Autodesk Official Training Guide
Essentials
AutoCAD
®
Electrical 2010
Learning AutoCAD Electrical 2010, Volume 1 (IEC Standard) ®
Using hands-on exercises, new users learn the basic commands necessary for creating professional electrical-controls production drawings. 225B1-050000-CM03A June 2009
© 2009 Autodesk, Inc. All rights reserved. Except as otherwise permitted by Autodesk, Inc., this publication, or parts thereof, may not be reproduced in any form, by any method, for any purpose. Certain materials included in this publication are reprinted with the permission of the copyright holder.
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Disclaimer THIS PUBLICATION AND THE INFORMATION CONTAINED HEREIN IS MADE AVAILABLE BY AUTODESK, INC. “AS IS.” AUTODESK, INC. DISCLAIMS ALL WARRANTIES, EITHER EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO ANY IMPLIED WARRANTIES OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE REGARDING THESE MATERIALS. Published by: Autodesk, Inc. 111 Mclnnis Parkway San Rafael, CA 94903, USA
Contents Introduction ............................................................................................... vii Chapter 1: Basic Workflow ........................................................................... 1 Lesson: Navigating the Interface ......................................................................... 2 Environment Comparisons ........................................................................ 3 About the Quick Access Toolbar ............................................................... 6 About the Ribbon ...................................................................................... 7 Changing Ribbon Settings and Display Options ........................................ 9 Using the Application Menu ................................................................... 16 Searching for Information Using InfoCenter ........................................... 21 Exercise: Navigate the Interface .............................................................. 25 Lesson: Basic Workflow ..................................................................................... 27 Basic Circuit Workflow ............................................................................ 28 Exercise: Explore the Basic Circuit Workflow .......................................... 32 Chapter Summary ............................................................................................. 41
Chapter 2: Project Basics ............................................................................ 43 Lesson: Project Manager ................................................................................... 44 About Project Files .................................................................................. 45 About the Project Manager .................................................................... 48 Creating New Projects ............................................................................. 54 Exercise: Create a New Project ............................................................... 58 Lesson: Project Drawing List ............................................................................. 60 About the Drawing List ........................................................................... 61 Creating New Drawings ........................................................................... 63 Editing the Project Drawing List .............................................................. 68 About Drawing Descriptions and Sections .............................................. 75 Adding Drawing Descriptions and Sections ............................................. 76 Changing the Drawing List Display .......................................................... 78 Project Batch Plotting ............................................................................. 82 Exercise: Edit the Project Drawing List .................................................... 86 Lesson: Moving Through Projects ..................................................................... 90 Selecting Drawings Using the Project Manager ...................................... 91 About Opening the Previous or Next Project Drawing ............................ 94 Searching Project Drawings Using the Surfer Tool .................................. 95 Exercise: Move Through Project Drawings ............................................ 101
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Lesson: Managing Projects .......................................................................... Opening Projects ............................................................................... Activating and Closing Projects ......................................................... Copying Projects ............................................................................... Exercise: Copy Projects ..................................................................... Chapter Summary .......................................................................................
103 104 107 110 117 120
Chapter 3: Schematic Wiring ................................................................. 121 Lesson: Wires and Ladders ......................................................................... 122 About Wires ...................................................................................... 123 Inserting Wires .................................................................................. 127 Layer Assignments ............................................................................ 131 Trimming Wires ................................................................................. 132 About Ladders and Rungs ................................................................. 136 Referencing ....................................................................................... 138 Inserting Ladders and Rungs ............................................................. 140 Revising Ladders ................................................................................ 144 Exercise: Insert a Ladder and Wires .................................................. 147 Lesson: Point-to-Point Wiring ...................................................................... 150 Point-to-Point Style Drawings ........................................................... 151 Point-to-Point Wiring Tools ............................................................... 152 Using Point-to-Point Wiring Tools ..................................................... 156 Exercise: Add Point-to-Point Wiring .................................................. 160 Lesson: Wire Numbers and Leaders ............................................................ 164 About Wire Numbers and Leaders .................................................... 165 Setting Wire Number and Leader Defaults ....................................... 169 Automatically Adding Wire Numbers and Leaders ........................... 173 Manually Adding and Editing Wire Copies and Leaders .................... 176 Exercise: Add Wire Numbers ............................................................ 181 Lesson: Source and Destination Signals ...................................................... 185 About Source and Destination Signals .............................................. 186 Adding Source and Destination Signals ............................................. 187 Exercise: Add Source and Destination Signal Arrows ........................ 194 Chapter Summary ....................................................................................... 201
Chapter 4: Schematic Components ....................................................... 203 Lesson: Inserting Schematic Symbols .......................................................... 204 Schematic Symbol Insertion Process ................................................. 205 About the Insert/Edit Component Dialog Box ................................... 209 Selecting Existing Catalog Part Numbers ........................................... 219 Creating Parent-Child Relationships .................................................. 223 Exercise: Insert a Relay Coil and Child Contact ................................. 227 Lesson: Inserting Schematic Components from Lists .................................. 232 About Equipment, Panel, and Catalog Lists ...................................... 233 Inserting Components from Lists ...................................................... 235 Exercise: Insert a Schematic Component from a Panel List ............... 248
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Lesson: Connectors ..................................................................................... 253 Inserting Connectors ......................................................................... 254 Editing Connectors ............................................................................ 261 Exercise: Add Connectors and Wiring ............................................... 267 Lesson: Terminals, Multiple Level Terminals, and Jumpers ......................... 271 About Terminals and Jumpers ........................................................... 272 About Multiple Level Terminals ........................................................ 275 Inserting Terminals, Multiple Level Terminals, and Jumpers ............. 279 Exercise: Create Terminal Jumpers and Associations ........................ 295 Lesson: Circuits ............................................................................................ 303 About Circuits .................................................................................... 304 Moving and Copying Circuits ............................................................ 306 Inserting Wblocked Circuits .............................................................. 310 Saving Circuits to an Icon Menu ....................................................... 313 Inserting Saved Circuits ..................................................................... 319 Exercise: Copy, Save, and Insert a Circuit .......................................... 323 Lesson: Multiple Phase Circuits ................................................................... 328 Adding Multiple-Phase Wires ........................................................... 329 Adding Three-Phase Components ..................................................... 334 Exercise: Create a Three-Phase Circuit .............................................. 338 Chapter Summary ....................................................................................... 344
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Acknowledgements The Autodesk Learning team wishes to thank everyone who participated in the development of this project, with special acknowledgement to the authoring contributions and subject matter expertise of Randy Brunette and Brunette Technologies, LLC. Brunette Technologies specializes in providing training, consulting, customization, and implementation services for AutoCAD® Electrical software. The company has been creating courseware and other training material for Autodesk® since 2004. Randy J. Brunette is the owner of Brunette Technologies, LLC, and is located in Chilton, Wisconsin. He has created custom training curriculum and professional presentations on a variety of subjects and is a top rated instructor at Autodesk University.
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Introduction Welcome to the Learning AutoCAD Electrical 2010 (IEC Standard) training guide for use in Authorized Training Center (ATC®) locations, corporate training settings, and other classroom settings. Although this guide is designed for instructor-led courses, you can also use it for self-paced learning. The guide encourages self-learning through the use of the AutoCAD® Electrical 2010 Help system. This introduction covers the following topics: ■ Course objectives ■ Prerequisites ■ Using this guide ■ CD contents ■ Completing the exercises ■ Installing the exercise data files from the CD ■ Notes, tips, and warnings ■ Feedback This guide is complementary to the software documentation. For detailed explanations of features and functionality, refer to the Help in the software.
Course Objectives After completing this guide, you will be able to: ■ Describe the AutoCAD Electrical user interface and follow the basic electrical project design workflow. ■ Manage projects and the multiple drawing and inter-drawing relationships contained in electrical projects. ■ Insert wires, add wire numbers, manage circuits, and create point-to-point wiring diagrams and drawings. ■ Insert and annotate schematic symbols. ■ Edit drawings projectwide with commands that are specific to the electrical design environment. ■ Extract information from drawings to create Bill of Material, Wiring, and other reports. ■ Create and annotate panel layout drawings with lists of components that are extracted from schematic drawings and with other specific panel layout tools, such as the Terminal Strip Editor.
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Prerequisites This guide is designed for new AutoCAD Electrical 2010 users. It is recommended that you have: ■ A background in electrical design (drafting and design experience is a plus). ■ A working knowledge of AutoCAD®. ■ A working knowledge of Microsoft® Windows® XP or Microsoft® Windows® Vista.
Using This Guide The lessons are independent of each other. However, it is recommended that you complete the lessons in the order that they are presented, unless you are familiar with the concepts and functionality described in those lessons. Each chapter contains: ■ Lessons Usually two or more lessons in each chapter. ■ Exercises Practical, real-world examples for you to practice using the functionality you have just learned. Each exercise contains step-by-step procedures and graphics to help you complete the exercise successfully.
CD Contents The CD attached to the back cover of this book contains all the data and drawings you need to complete the exercises in this guide.
Completing the Exercises You can complete the exercise in two ways: using the book or on screen. ■ Using the book Follow the step-by-step exercises in the book. ■ On screen Click the Learning AutoCAD Electrical 2010 IEC icon on your desktop, installed from the CD, and follow the step-by-step exercises on screen. The onscreen exercises are the same as those in the book. The onscreen version has the advantage that you can concentrate on the screen without having to glance down at your book.
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After launching the onscreen exercises, you might need to alter the size of your application window to align both windows.
Installing the Exercise Data Files from the CD To install the data files for the exercises: 1. 2.
Insert the CD. Double-click the self-extracting archive setup.exe.
Unless you specify a different folder, the exercise files are installed in the following folder: C:\Autodesk Learning\AutoCAD Electrical 2010\Learning IEC After you install the data from the CD, this folder contains all the files necessary to complete each exercise in this guide.
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Notes, Tips, and Warnings Throughout this guide, notes, tips, and warnings are called out for special attention. Notes contain guidelines, constraints, and other explanatory information.
Tips provide information to enhance your productivity.
Warnings provide information about actions that might result in the loss of data, system failures, or other serious consequences.
Feedback We always welcome feedback on Autodesk Official Training Guides. After completing this course, if you have suggestions for improvements or if you want to report an error in the book or on the CD, please send your comments to
[email protected].
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Digital Prototyping A digital prototype is created with Autodesk® Inventor® software and is a digital simulation of a product that can be used to test form, fit, and function. The digital prototype becomes more and more complete as all associated industrial, mechanical, and electrical design data are integrated. A complete digital prototype is a true digital representation of the entire end product and can be used to visualize and simulate a product to reduce the necessity of building expensive physical prototypes.
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What is Digital Prototyping? Digital Prototyping gives conceptual design, engineering, and manufacturing departments the ability to virtually explore a complete product before it becomes real. With Digital Prototyping, manufacturers can design, visualize, and simulate products from the conceptual design phase through the manufacturing process, boosting the level of communication with different stakeholders while getting more innovative products to market faster. By using a digital prototype created in Inventor, manufacturers can visualize and simulate the realworld performance of a design digitally, helping reduce their reliance on costly physical prototypes.
What is the Autodesk Solution for Digital Prototyping? Autodesk Inventor software takes manufacturers beyond 3D to Digital Prototyping. With Inventor, you can create a single digital model that gives you the ability to design, visualize, and simulate your products: ■ Design: Integrate all design data into a single digital model, streamlining the design process and increasing communication. ■ Visualize: Create a virtual representation of the final product to review design intent, secure early customer validation, and market products before they’re built. ■ Simulate: Digitally simulate the real-world performance of your product, saving the time and money required to build multiple physical prototypes. Inventor enables manufacturers to create a digital prototype, helping reduce reliance on costly physical prototypes and get more innovative products to market faster. The Autodesk® solution for Digital Prototyping brings together design data from all phases of the product development process into a single digital model created in Inventor.
What Pain Points Does Digital Prototyping Address? The manufacturing product development process today is dominated by islands of competency, each presenting its own technical challenges: ■ In the conceptual design phase, industrial designers and engineers often use paperbased methods or digital formats that are incompatible with the digital information used in the engineering phase. A lack of digital data, compatible formats, and automation keeps this island separate from engineering—the conceptual design data must be recreated digitally downstream, resulting in lost time and money. ■ In the engineering phase, mechanical and electrical engineers use different systems and formats, and a lack of automation makes it difficult to capture and rapidly respond to change requests from manufacturing. Another problem in the engineering phase: the geometric focus of typical 3D CAD software makes it difficult to create and use a digital prototype to validate and optimize products before they are built, making it necessary to build multiple costly physical prototypes. ■ Manufacturing is at the downstream end of all the broken digital processes—the disconnection between the conceptual design phase, the engineering components, electrical, and mechanical— and they receive this analog information in the form of drawings. The result is a heavy reliance on physical prototypes and the subsequent impact on productivity and innovation. ■ Disconnected product development processes make it difficult to bring customer and marketing requirements into the process early so customers can see exactly what the product will look like and validate how it will function before it is delivered. The inability to involve the customer early in the product development process means that the customer can’t validate a design before the product goes to manufacturing. Customer requests for changes become exponentially more expensive to address the further along the product is in the manufacturing process. The result: companies have to build multiple physical prototypes for customer validation.
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Hasn't the Concept of Digital Prototyping Been Around for Years? Although there has been talk about the benefits of Digital Prototyping for years, the budget for the tools required to build and test a true digital prototype has been out of reach for most manufacturing companies. Digital Prototyping solutions are usually expensive, customized installations for large enterprises. Most out-of-the-box 3D modeling applications provide only part of the functionality needed to create a complete digital prototype.
What is Unique About the Autodesk Approach to Digital Prototyping? Scalable: The Autodesk solution for Digital Prototyping is scalable, flexible, and easy to integrate into existing business processes. Using Inventor to create a single digital model, manufacturers can realize the benefits of Digital Prototyping at their own pace, with minimal disruption to existing productive workflows. Attainable: The Autodesk solution for Digital Prototyping provides an easy to deploy and manage solution for mainstream manufacturers to create and maintain a single digital model that can be used in all stages of production. Cost-effective: Delivering cost-effective software for design and manufacturing workgroups, an Inventor-based Digital Prototyping solution delivers the fastest path to ROI. Autodesk has a proven record of making powerful desktop technology available to mainstream manufacturers.
How Do the Autodesk Manufacturing Products and Technology Drive Digital ----Prototyping? Inventor takes you beyond 3D to Digital Prototyping. The Autodesk solution for Digital Prototyping enables manufacturing workgroups to develop a single digital model, created in Inventor, that can be used in every stage of production—bridging the gaps that usually exist between conceptual design, engineering, and manufacturing teams. This single digital model simulates the complete product and gives engineers the ability to better design, visualize, and simulate their product with less reliance on costly physical prototypes—thereby improving time to market, and increasing competitive advantage. Autodesk provides the interoperable tools required to create a complete digital prototype from the conceptual phase of a project through manufacturing.
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The Autodesk® Alias® product line enables you to work digitally from project outset using best-inclass industrial design tools. Capture ideas digitally—from initial sketches to 3D concept models using products in the Alias product line—then share those designs with the engineering team using a common file format, allowing a product’s industrial design data to be incorporated into the digital prototype created in Inventor. Today, the look and feel of a machine or device is more important than ever for consumers, so industrial designers and engineers must share housing and user interfaces early in the process.
With Autodesk® Showcase® software, you can quickly evaluate multiple design variations by creating realistic, accurate, and compelling imagery from 3D CAD data—helping reduce the time, cost, and need for building physical prototypes. You can then interactively view the digital prototype in realistic environments, making it faster, easier, and less expensive to make design decisions. Autodesk Inventor software moves engineers beyond 3D and enables them to develop complete digital prototypes of their products. The Autodesk Inventor family of software provides the powerful —yet cost-effective and easy to learn—desktop technology engineers need to take advantage of Digital Prototyping. Autodesk Inventor software enables engineers to integrate AutoCAD drawings and 3D data into a single digital model, creating a virtual representation of the final product. Using this single digital model, you can design, visualize, and simulate products digitally. The model serves as a digital prototype that is refined and used to validate design functions, helping to reduce reliance on physical prototypes and minimize manufacturing costs. ■ Functional Design: Autodesk Inventor software products combine an intuitive 3D mechanical design environment for creating parts and assemblies with functional design tools that enable engineers to focus on a design’s function, not geometry creation—letting the software drive the automatic creation of intelligent components such as plastic parts, steel frames, rotating machinery, tube and pipe runs, and electrical cable and wire harnesses. Reducing the geometry burden helps engineers spend more time rapidly building and refining digital prototypes that validate design functions and help optimize manufacturing costs.
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DWG™ Interoperability: Inventor provides direct read and write of native DWG files while maintaining full associativity to the 3D model without risking inaccurate translations. (DWG from Autodesk is the original format for storing and sharing design data when working with AutoCAD software. With billions of DWG files circulating throughout every industry, it’s one of the most commonly used design data formats.) This gives engineers the freedom to safely reuse valuable 2D DWG files to build accurate 3D part models, then communicate insights gained from Digital Prototyping with partners and suppliers that rely on AutoCAD software.
Dynamic simulation: Autodesk Inventor delivers the best integrated simulation tools in the industry. Tightly integrated tools for calculation, stress, deflection, and motion simulation make it possible for engineers to optimize and validate a digital prototype before the product is built. Simulation is performed based on real-world constraints, so you know you can rely on the simulation results. The dynamic simulation tools in Inventor enable engineers to evaluate multiple potential solutions to a motion problem, making it possible to make the best design decisions and avoid costly mistakes. ■ Documentation: Autodesk Inventor software includes comprehensive tools to generate engineering and manufacturing documentation directly from a validated 3D digital prototype, helping design teams communicate more effectively. Inventor combines the benefits of associative drawing views, so any changes made to the model are reflected in the drawing—with the power and widespread acceptance of the DWG format to help reduce errors and deliver the design in less time. ■ Routed Systems: Inventor software’s automated tools for designing routed systems, including complex tube and pipe runs, and electrical cable and harness design, allow you to create and validate a more complete digital prototype, which helps reduce errors and ECOs prior to manufacturing and get to market faster. ■ Tooling: The tooling capabilities of Inventor software give designers and engineers intelligent tools and mold base catalogs to quickly and accurately generate mold designs directly from a digital prototype. Using the Inventor digital prototype, mold, tool, and die manufacturers can validate the form, fit, and function of a mold design before it’s built, reducing errors and improving mold performance. To help validate and optimize designs before manufacturing, you can use the broad range of finite element analysis (FEA) and simulation tools in Algor simulation software, which will enhance the Autodesk solution for Digital Prototyping. ■
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AutoCAD Mechanical software is built to help mechanical designers and drafters simplify complex mechanical design work, enhancing productivity. Quickly detail production drawings using industryspecific manufacturing tools, reducing errors and saving hours of time. AutoCAD, one of the world’s leading design and professional drafting software, plays an important role in Digital Prototyping workflows. AutoCAD gives you the power and flexibility to explore, document, and communicate ideas. Both AutoCAD Mechanical and AutoCAD software enable engineers to accurately document digital prototypes created in Inventor, and communicate insights gained from Digital Prototyping with colleagues, partners, and suppliers that rely on AutoCAD software. AutoCAD® Electrical software passes electrical design intent information for cables and conductors directly to Autodesk Inventor software, adding valuable electrical controls design data to the digital prototype created in Inventor. Inventor users can pass wire-connectivity information to AutoCAD Electrical and automatically create the corresponding 2D schematics. The smooth integration between Inventor and AutoCAD Electrical helps your electrical and mechanical teams work collaboratively and efficiently on 2D and 3D mechatronic product designs.
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To optimize plastic part and injection mold designs, use Autodesk® Moldflow® injection molding simulation software.
Autodesk® 3ds Max® software enables you to leverage engineering data to create advanced softwarerendered and -animated visualizations of digital prototypes created in Inventor. 3ds Max contains a complete suite of CAD data preparation, modeling, effects, and rendering tools to create the highest quality photorealistic and stylistic still and animated visualizations. Autodesk® Navisworks® software for manufacturing enables manufacturing companies to visualize complete manufacturing facilities, industrial machinery, factory floor models, and production lines in a single environment. The software supports complete assembly visualization and optimization, and enables you to combine CAD data from various design systems regardless of file format or size. Autodesk’s data management tools allow design workgroups to manage and track all the design components for a digital prototype, helping you to better reuse design data, manage bills of material, and promote early collaboration with manufacturing teams and clients. With the Autodesk® Vault family of data management applications, design, engineering, and manufacturing workgroups can manage the Digital Prototyping process by helping reduce time organizing files, avoid costly mistakes, and more efficiently release and revise designs. You can further facilitate Digital Prototyping workflows with Autodesk® Design Review software, the all-digital way to review, measure, mark up, and track changes to designs—all without the original creation software.
What Can Customers Do with the Autodesk Solution for Digital Prototyping ----Today? Industrial designers use Autodesk Alias products to digitally sketch design ideas and create 3D digital concept models for validation that then can be shared with engineering or manufacturing teams. Engineers use Autodesk Inventor to explore ideas with simple, functional representations that help generate a digital prototype. Inventor software delivers the best bidirectional interoperability on the market between 2D and 3D mechanical and electrical design applications. Integrated stress analysis and motion simulation help engineers optimize and validate complete designs digitally and confirm that customer requirements are met even before a product is built. Manufacturing teams benefit from accessing the most current and accurate data (release drawings, models, and BOMs)—avoiding mistakes caused by using outdated documents. They can provide
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expertise earlier in the engineering process by sharing the digital prototype with Autodesk’s DWF™ (Design Web Format™) technology to communicate, mark up, and measure designs—moving one step closer to true paperless manufacturing processes.
What Are the Business Benefits of Digital Prototyping? According to an independent study by the Aberdeen Group, best-in-class manufacturers use Digital Prototyping to build half the number of physical prototypes as the average manufacturer, get to market 58 days faster than average, experience 48 percent lower prototyping costs, and ultimately drive greater innovation in their products. The Autodesk solution for Digital Prototyping helps customers achieve results like these.
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How Does the Autodesk Solution for Digital Prototyping Help Get Customers ----to Best-in-Class? By giving you the tools to develop a complete digital prototype, Autodesk helps you build fewer physical prototypes—and ultimately get to market ahead of the competition with more innovative products. Autodesk’s position is that moving to 3D is only the first step in creating a digital prototype. In today’s increasingly competitive global market, being best in class means using technology to stay ahead of the competition—incorporating Digital Prototyping into the product development process gives you that edge. Autodesk provides this functionality through a complete, easy-to-learn set of design applications and a wide range of partners for consultation regarding what is needed to make Digital Prototyping a reality.
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What is the Market Saying about Digital Prototyping? ■
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“To be best-in-class is not just about moving from 2D to 3D, but rather to push ahead to digital prototyping to answer questions about your product before you start to build it.” —Start-IT “IDC believes that with its new definition of digital prototyping, Autodesk is offering a product development solution to SMBs that will strengthen their competitiveness and give them the functional tools and processes required to achieve product excellence and profitability for years to come." —Gisela Wilson and Michael Fauscette, IDC “One of the primary reasons manufacturers aim to capture more product information electronically is to digitally prototype their product. As a result, they can reduce physical prototyping and in turn, save time and development costs.” —Aberdeen Group “It [Autodesk] provides a comprehensive range of software solutions for the manufacturing industry including its flagship 3D design offering, Autodesk Inventor. The solutions redefine product design process by supporting and connecting all disciplines of product development, from industrial design to mechanical and electrical engineering, and manufacturing.” —Design News “The ability to not only visualize product development in 3D but also to simulate how that product would perform in the physical world are among the benefits assigned to digital prototyping. Research from consulting firm Aberdeen Group, in fact, shows that the use of digital prototypes for top-performing companies both reduces their product development costs and speeds up how quickly products get to market.” —IndustryWeek “The latest Autodesk manufacturing solutions redefine the product design process by supporting and natively connecting all of the disciplines involved in product development, from industrial design to mechanical and electrical engineering and manufacturing.” —The Manufacturer “The Digital Prototyping approach is now embraced by some important manufacturers who once promoted enterprise PLM, including Boeing. Its new 787 Dreamliner, like the 777 before it, was digitally designed, but the digital definition from engineering was pushed into manufacturing via new processes that replaced DCAC/MRM.” —Nancy Rouse-Tally, Desktop Engineering “Autodesk is doing what it has always been good at—taking a technology idea and giving it the top 80% of functionality at 20% of the price. Digital Prototyping is no different. It takes the idea of ‘expensive’ out of PLM and brings it down to all those other users.” —Rachael Dalton-Taggart, PR, Marketing and the Business of CAD “Before Inventor, it would typically take me 18 months to bring a new design to market,” Jason Faircloth, product manager and designer for Marin Bikes, Inc. says. “The finite-element and motion analysis software have enabled me to almost eliminate physical prototypes. With the software, it’s now nine months, and getting faster—and the product is better. This is our future.” The CAE capabilities of Inventor Professional enabled Faircloth to produce multiple “digital prototypes” so that the time-consuming process of physical prototyping was reduced or eliminated. —Desktop Engineering
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Chapter
1 Basic Workflow This chapter describes the AutoCAD® Electrical version of AutoCAD® software. AutoCAD Electrical is created for electrical engineers who design industrial control systems. Along with the familiar AutoCAD working environment, an intuitive menu system is included that gives you access to many industryspecific tools that automate the electrical control system's design process. AutoCAD Electrical is an effective design tool for you to use to create schematics, diagrams, layouts, and related reports faster and more accurately than using AutoCAD software.
Objectives After completing this chapter, you will be able to: ■
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Navigate the user interface areas of ribbons, the Quick Access toolbar, the application menu, and the InfoCenter. Describe and execute the basic steps required to create or edit an AutoCAD Electrical circuit.
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Lesson: Navigating the Interface In this lesson you learn about the design environment and changes to the user interface. You learn about the Quick Access toolbar, ribbon, Application menu, and how to search for information using InfoCenter. When changes are made to the user interface of a software application, there is the potential for users to have feelings of anxiety or frustration. By learning about the changes and enhancements to the user interface, you will not lose any efficiency when navigating the user interface to create and modify your designs. In the following illustration, a portion of the user interface is shown after initially starting AutoCAD Electrical.
Objectives After completing this lesson, you will be able to: ■
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Describe and compare AutoCAD Electrical with AutoCAD, including symbol libraries and search paths. Describe the purpose and controls of the Quick Access toolbar. Describe the function and general characteristics of the ribbon. Set the ribbon and its panels to display the tools you want access to. Access tools and options on the Application menu. Locate helpful information using InfoCenter.
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Environment Comparisons The AutoCAD Electrical environment differs only slightly from the familiar AutoCAD interface. Along with Electrical-specific commands, other enhancements include Electrical symbol libraries and more powerful search path options. Knowing these differences can help you to learn the AutoCAD Electrical interface more quickly.
About AutoCAD Compatibility AutoCAD Electrical is not just compatible with AutoCAD. It is AutoCAD. AutoCAD Electrical is completely integrated with AutoCAD software, and it shares the same commands and functionality. Automated and enhanced commands have been added to AutoCAD Electrical to help you create schematic drawings. Electrical intelligence is stored in the drawings, mainly in the form of attributed blocks. Because the electrical information is stored in the drawing and not in a proprietary database, you can manipulate the drawings with any program that you can use to edit standard DWG™ files without corrupting the drawing and electrical intelligence.
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Familiar AutoCAD Environment The AutoCAD Electrical menu system has many industry-specific tools that automate the electrical control systems' design process. With the familiar AutoCAD working environment, you can use AutoCAD commands in AutoCAD Electrical for normal operations. Many AutoCAD Electrical functions are powerful AutoCAD macros, and other product functions use AutoCAD programming languages to create electrical industry-specific commands. AutoCAD Electrical produces generic AutoCAD objects in generic AutoCAD drawings. Everything automatically created by AutoCAD Electrical can be completed with a sequence of AutoCAD manual operations. Consequently, AutoCAD Electrical drawings can be edited with AutoCAD, or AutoCAD LT®, without corrupting or damaging AutoCAD Electrical functionality.
Symbols and Footprints All AutoCAD Electrical schematic blocks, or symbols, are standard AutoCAD blocks using a combination of attributes and xdata to enhance the block's intelligence. Symbols typically rely more on attributes, while panel layout blocks, or footprints, rely more on xdata.
Symbol as inserted
Exploded symbol
You can create symbols with generic AutoCAD block creation tools or with the AutoCAD Electrical Symbol Builder wizard. The Symbol Builder wizard automates many manual tasks, including the creation, sizing, and placing of symbol attributes. To differentiate between the two types of blocks, schematic blocks are usually referred to as symbols and panel layout blocks are usually referred to as footprints. Both symbols and footprints are referred to as components.
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Symbol Libraries Several electrical symbol libraries are included with AutoCAD Electrical. These libraries include: ■ Two sizes of JIC symbols, JIC1 and JIC125 (Joint Industrial Council - United States) ■ Two sizes of IEC symbols, IEC2, and IEC4 (International Electromechanical Commission - Europe) ■ One size of GB symbols (Gua Biao - Chinese) ■ One size of JIS symbols (Japanese Industrial Standard) ■ One size of AS symbols (Australian Standard)
Directory listing of available libraries Also included are several libraries of symbols for design processes other than Electrical schematics. These libraries include the following symbols. Type
Symbols included
Hydraulic
Filters, valves, cylinders, pressure switches, motors, pumps, meters, restrictors, quick disconnects, flow arrows, and other miscellaneous components that all adhere to the NFPA/T3.10.4R1-1990 and AS1101.1-1993 standards.
Pneumatic
Operators, valves, flow paths, filters, regulators, cylinders, meters, motors, quick disconnects, mufflers, manifolds, flow arrows, and other miscellaneous components.
P & ID
Equipment, tanks, nozzles, pumps fittings, valves, actuators, logic functions, instrumentation, flow, flow arrows that all adhere to the ANSI/ISA S5.1 instrumentation standard.
One-line
Library symbols for the creation of one-line style diagrams. The symbols are similar in appearance to schematic symbols.
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About the Scratch Database AutoCAD Electrical automatically maintains a scratch database, which reflects a project drawing’s intelligence and is updated as the drawings are changed. The database carries a snapshot of the block and attribute information carried in the project’s drawing files so that projectwide functions can be processed more efficiently. There is no need for you to manage the database; the drawing is the data storage area. If the scratch database is lost or corrupted, it is re-created automatically from the data stored in the project drawings.
About the Quick Access Toolbar The tools you access most often vary depending on the industry you work in and your specific duties. To help you work as efficiently as possible, you need to have an understanding of the purpose and capabilities of the Quick Access toolbar.
Definition of the Quick Access Toolbar The Quick Access toolbar is a toolbar located above or below the ribbon. By default it is located above the ribbon just to the right of the Application menu. The Quick Access toolbar contains the tools you want frequent and instant access to. You can customize the Quick Access toolbar by adding and removing tools so only tools you need are listed. You modify the Quick Access toolbar using the options in the shortcut menu.
Example of the Quick Access Toolbar In the following illustration, two different settings for tools are shown in the Quick Access toolbar. The AutoCAD default configuration of tools is shown first and the AutoCAD Electrical configuration is under it. In the AutoCAD Electrical configuration, the user requires frequent access to Previous Project Drawing, Next Project Drawing, and Surfer; therefore, those tools were added for easier and quicker access. AutoCAD Configuration
AutoCAD Electrical Configuration
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About the Ribbon In AutoCAD Electrical 2010, the location where you access the majority of tools was changed from the toolbars and palettes to the ribbon. In the following illustration, schematic editing is taking place. Part of the Schematic tab on the ribbon is shown with the tools for creating schematic drawings.
Definition of the Ribbon The ribbon is an aspect of the user interface that provides easy access to AutoCAD Electrical tools through a collection of tabs. Each tab contains multiple panels and each panel contains multiple tools. The position and layout of the panels on the tabs and the tools in a panel are based on the most common frequency of use. Some tools are available after expanding the panel while other tools may be in a flyout, similar to a toolbar. The display and organization of the ribbon follows the idea and workflow of having only the tools you need for the task at hand. Tools for unrelated tasks or tools that are used very infrequently are either not shown or are accessible in a flyout in the panel. If your workflow or designs require a different layout or organization of tools, you can customize the position and appearance of the ribbon, the panels displayed on the tabs, and the tools displayed on a panel.
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Example of the Ribbon In the following illustrations, tabs are shown for the ribbon for managing projects, working with panel layout drawings, and creating reports.
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Changing Ribbon Settings and Display Options There are a number of settings and changes you can easily make to customize how you interact with the ribbon and how it is displayed. To set the ribbon and its panels to display the tools you want access to, you need to know what changes can be made and where to make those changes. In the following illustration, the ribbon is shown in its default display and again after making some changes to the way it is displayed.
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Ribbon Position By default the ribbon is displayed at the top of the application. You can also set the ribbon to be displayed docked on the left or right sides of the application window or set to float anywhere on the screen. In the following illustration, the position of the ribbon was changed from its default top position to be docked on the left. The display of the tools in the panels is also changed to better suit this position.
Ribbon Tab Order If you want the tabs on the ribbon to be displayed in a different order, you can change the tab order by dragging them to a new location. The tab's new position is between the two tabs where you dropped the tab being moved. In the following illustration, the Panel tab is shown in the process of being reordered and after being reordered.
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Tab Display - Full or Minimized The tabs have three different options for how they are displayed. You can set to display all the panels on the active tab, only the panel titles on the active tab, or only the tabs themselves. The primary difference between these settings is the amount of screen area the ribbon covers and how you access a tool on a panel on a tab. When set to show the full ribbon, with the proper tab already active, you start a tool by clicking the tool on the panel. When set to display only the panel titles, prior to clicking the tool, you first move the cursor over or click the panel where the tool resides. When set to display only the tabs, you first click the tab and then the tool on the panel.
Show Full Ribbon
Minimize to Panel Titles
Minimize to Tabs
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You switch between the tab display settings by right-clicking in the ribbon and then clicking Minimize as shown, or you click the identified option to cycle through the display settings.
Panels per Tab You can add or remove panels from a tab based on a set list of panels for the active tab. The available panels and what you have set to display vary from one tab to another. You toggle on or off the display of a panel on a tab by right-clicking anywhere on the ribbon and then clicking Panels. You then click the name of the panel you want to toggle on or off. In the following illustration, the list of panels that can be toggled on and off for the Model tab are shown being accessed.
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Panel Location Panels can move to a new position on the tab or you can move it off the ribbon and display it as a floating panel. When the panel is floating, you can place it anywhere on the screen. To reposition the panel on the ribbon or move it off the ribbon to have it float, click the title of the panel and then drag it to the desired location. To put a floating panel back on the ribbon, drag it back on the ribbon or click Return Panels to Ribbon on the floating panel.
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Tooltips When you move your cursor over a tool on a ribbon panel, a tooltip displays the name and a brief description. When you move the cursor over the tool a little longer, the tooltip expands to display additional textual and graphical information if additional information is available.
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You can specify at which level tooltips are displayed and how long you wait before they are displayed. You make these setting changes in the Options dialog box, Display tab, Window Elements area.
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Using the Application Menu Each area of the user interface enables you to accomplish different tasks. To efficiently utilize the Application menu, you need to understand the purpose of the Application menu and where and how to access its tools and options.
Application Menu The Application menu is displayed after clicking the AutoCAD Electrical product icon in the upperleft corner of the application window. You use the Application menu to perform common tasks such as opening and closing files, accessing tools, searching for tools, modifying application options, and exiting AutoCAD Electrical.
To expand the menu list for a menu item so that you can access the tools related to that item, you must first either move the cursor over the menu item until the menu expands or click the right arrow.
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In the following illustration, the Application menu for Print has been expanded so the tools within that menu can be accessed.
Viewing a List of Recent and Open Files When you first display the Application menu, a listing of files is displayed in the menu. This list of files is either a list of recently accessed files or a list of currently opened files. You toggle between showing the list of recent documents and open documents by clicking the corresponding button to the left of the list title. By default the list is ordered. You have other options for how you want the files to be displayed. You can change the file list to display different size icons or different size preview images. In the following illustration, a portion of the Application menu and file list is shown with both file list settings active. On the left, the list for recent documents is shown and the Recent Documents option is identified. On the right, the list of currently open files is shown with the Open Documents option identified.
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In the following illustration, the list of files has been set to display with small images. The option for selecting between icons and images and their size is shown being accessed.
In the following illustration on the left, the option for setting how the file list is sorted is shown being accessed. The results for organizing the list by type of file are shown on the right.
As you open different files, the list of recently opened documents updates accordingly. If you want a document to continue to display in the list even after opening multiple files since the last time you opened the document, click the pin icon to the right of the file name. When the icon is displayed as a
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pin pushed in, that document continues to be displayed in the list. Click the pin icon again to allow it to be removed from the list and return the icon back to a side view of a pin. In the following illustration, the document Side Exhaust Manifold.iam has been pinned to the list of recent documents.
When you move the cursor over a file in the Recent or Open Documents list, a tooltip is displayed with information about that file. Along with information such as the file location and the date it was modified, a preview image is also displayed.
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Searching in the Application Menu There is a search tool within the Application menu that enables you to quickly locate and launch tools that you may not frequently use and need help finding. This tool is a real-time search that begins the moment you start typing in the search field. The following illustration shows the Application menu with the search field identified.
You can enter any text character, symbol, or number in the search field and it is not case sensitive. The results for a search depend on the environment that is currently active. Along with the name of the tool in the search results, the list also displays which ribbon tab and panel the tool can be accessed from. When the tool you want to use is displayed in the search results, you can start that tool by clicking it in the list. If you press ENTER while your cursor is in the search field, the first search result in the list is automatically selected and the tool is executed. Any tool that is returned in the list but cannot be currently executed is disabled and appears dimmed. In the following illustration, the word insert is being entered into the search field. All tools that begin with Insert are listed.
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Searching for Information Using InfoCenter A key part of your continual learning is knowing how and where to get more information when you need it. By understanding the what, where, and why of InfoCenter, you can locate the information you need.
InfoCenter The InfoCenter is a collection of tools located on the right end of the main AutoCAD Electrical window title bar. You use these tools to help you learn and relearn as efficiently as possible. The tools within InfoCenter include: ■ A search engine. ■ Quick access to Subscription Center. ■ Communication Center access. ■ A listing of Favorites. ■ The Help menu.
InfoCenter Search The InfoCenter search engine enables you to quickly search for the most relevant information for the word or phrase you enter into the search field. The default search looks through all AutoCAD and AutoCAD Electrical Help systems. Instead of searching all locations, you can specify a single location to search for information. You specify the location for a search by displaying the Search menu and then selecting the appropriate option.
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In the following illustration, the Search menu is shown being accessed so that a specific search location can be specified.
Clicking Search Settings on the Search menu displays the InfoCenter Settings dialog box. Within this dialog box, you can specify which locations are included in the default search and how many items to display. You can also include additional search locations so that if you have company-specific help information you can configure InfoCenter to have those files searched. Along with configuring the search locations, within this dialog box you can also configure the general InfoCenter settings and the Communication Center settings.
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InfoCenter Communication Center The Communication Center enables you to access RSS feeds and knowledge base information. By configuring the CAD Manager Channel in the InfoCenter Settings dialog box, you can also review internally published content. The Communication Center also provides notifications regarding updated software and subscription content updates. In the following illustration, the top part of the Communication Center list is shown. The first category is the RSS feeds.
InfoCenter Favorites The Favorites list displays the topics you have identified as a topic you want to quickly access. You add and remove topics from the Favorites list by clicking the star icon that is displayed to the right of the link.
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In the following illustration, the Quick Reference help information on parts lists was added to the Favorites list.
Help When you click Help within InfoCenter, the AutoCAD Electrical Help window is displayed. By first displaying the Help menu, you can access an area related to help or a specific help topic.
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Exercise: Navigate the Interface In this exercise, you become familiar with the user interface. You access tools from the ribbon and Quick Access toolbar, adjust the display of the ribbon, set which panels to display on a ribbon tab, review help information, and search for a command.
The completed exercise.
Completing the Exercise To complete the exercise, follow the steps in this book or in the online exercise. In the online list of chapters and exercises, click Chapter 1: Navigating the Interface. Click Exercise: Navigate the Interface.
2.
On the Project tab, Project Tools panel, move the cursor over the Manager tool. After remaining stationary for a couple of seconds, the tooltip display expands to display help information for the tool.
Use the Ribbon and Help In this section of the exercise, you access tools from the ribbon and use different help tools to locate tools. 1.
On the ribbon, review the list of tabs. Click different tabs to activate them and briefly review which panels are displayed on those tabs.
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3.
4.
5.
To search for the Pin List Database Editor tool: ■ Click to expand the Application menu. ■ In the search field, enter Pin List. ■ Notice the search list includes the ribbon location for the tool.
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To start the Pin List Database Editor tool, in the search results list, click Pin List Database Editor.
2.
To begin reviewing some of the display options for the ribbon panels, on the ribbon to the right of the Conversion Tools tab, click the down arrow to toggle the ribbon to its next minimize display state.
3.
To display the tools in the panels, move the cursor over a panel name.
4.
Click the same down arrow located to the right of the Conversion Tools tab twice to toggle the ribbon and return its display to the full ribbon. This completes the exercise.
In the Select Pin List Table dialog box, click Cancel.
Adjust the Ribbon Display In this section of the exercise, you adjust the display of the ribbon and include another panel to be displayed on a ribbon tab. 1.
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Right-click anywhere on the ribbon. On the shortcut menu, click Tab > View.
To add the display of a tab to the ribbon display:
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Lesson: Basic Workflow Understanding the basics of the design process can help you when you adapt AutoCAD Electrical to your design methods and standards. This lesson describes the basic workflow of AutoCAD Electrical design. Although some methods are used more often than others, many methods are available. For example, you may start with a panel layout to determine and order components that require a long lead time. Then you can extract a component list from the panel layout to design the schematic. Or maybe you design your schematics in a point-to-point style, laying out components in empty areas of the drawing and then connecting the components with wires. AutoCAD Electrical automatically connects these components as wires are drawn across them.
Objectives After completing this lesson, you will be able to: ■
Describe and perform many of the basic steps necessary to complete an electrical design.
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Basic Circuit Workflow One of the more frequently used styles for electrical design is drawing a ladder and rungs, and then inserting components from the icon menu system. Basic commands are described for a general overview of AutoCAD Electrical functionality.
A typical reset circuit including rungs, components, and wire numbers
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Process: Basic Circuit Workflow The following is an overview of the schematic ladder-style design process. 1.
Set the drawing properties options to match your company or project standards for component tag referencing, symbol libraries, ladder numbering, and other design parameters.
2.
Add ladders, rungs, or wires to your schematic drawing.
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3.
Select the components to be added by browsing through the icon menu system.
4.
Select the insertion location point of the symbol. The symbol is inserted and automatically trims and connects to the underlying wire.
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5.
In the Insert/Edit Component dialog box, enter the component information, including part-number lookups from a database, description and location code assignments, and pin-number checking and assignments.
6.
Add wire numbers and cross-referencing.
7.
At any point during the design process, you can generate Bill of Material, Wiring, and other reports.
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Exercise: Explore the Basic Circuit Workflow In this exercise, you create a simple electrical control circuit. You complete the following steps: ■ Insert ladder rungs and a push button. ■ Insert push-button components and add partcatalog information. ■ Add a second push button and a relay coil. ■ Add a light and wire numbers and generate a Bill of Material report.
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 1: Basic Workflow. Click Exercise: Explore the Basic Circuit Workflow.
Insert Ladder Rungs and a Push Button 1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
2.
In the Project Manager, right-click in an empty area. Click Open Project.
3.
Browse to where you installed the exercise files and select Basic_Workflow_IEC.wdp. Click Open. On the Project Manager, double-click Basic_Workflow_IEC to expand the drawing list. Right-click Basic_Workflow_IEC_06.dwg. Click Open.
The completed exercise 4.
5.
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6.
7.
Zoom in to the left side of the drawing. Make sure both the positive and 0 volt wires are displayed. On the Schematic tab, Edit Wires/Wire Numbers panel, click Add Rung to add two rungs to the ladder at location references 1 and 2.
11. In the Insert Component: IEC: Schematic Symbols dialog box, click Push Buttons.
12. In the IEC: Push Buttons dialog box, click Push Button NO Momentary.
13. Select the insertion point on the left rung, near the upper end. 8.
9.
Select the insertion points for two rungs at location references 1 and 2. (These will be at the x values of 70 and 110, respectively.) Note: Be sure to click anywhere between the horizontal buses, rather than on the bus. Notice that the rung automatically snaps to the nearest rung reference (if available) and adds connection symbols as necessary.
10. On the Schematic tab, Insert Components panel, click Icon Menu to insert the first component, which is a push button to reset the circuit.
14. Now you annotate the component, adding description and catalog information. You can manually enter the desired information, but AutoCAD Electrical provides many tools for entering the information from various reference files. In the Insert/Edit Component dialog box, notice that AutoCAD Electrical automatically assigns the tag name -06S1. Under Description, click Defaults.
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15. In the Descriptions dialog box, click System| Reset. Click OK.
20. Select AB, 800EP-F2. Click OK. Notice that AutoCAD Electrical transfers the catalog data, including the subassembly information, into the Insert/Edit Component dialog box.
16. Under Catalog Data, click Project.
21. Click OK. This completes the insertion of the push button. This same basic process is repeated for most component insertions.
17. In the Find: Catalog Assignments dialog box, click Active Project. Click OK. 18. In the Qsave dialog box, click OK to save the current drawing, ensuring that the drawing file data is up to date. 19. AutoCAD Electrical searches all of the drawings in the current project and lists any push buttons found in the HPB11/VPB11 Catalog Values (This Project) dialog box.
Add a Second Push Button and a Relay Coil 1.
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On the Schematic tab, Insert Components panel, click Icon Menu to add an emergency stop push button.
2.
In the Insert Component: IEC: Schematic Symbols dialog box, click Push Buttons.
3.
In the IEC: Push Buttons dialog box, click Mushroom Head NC Momentary. 10. Notice that the information is transferred into the Insert/Edit Component dialog box.
4. 5.
6. 7. 8.
9.
Select the insertion point near the middle of the left rung. In the Insert/Edit Component dialog box, notice that AutoCAD Electrical has automatically entered the tag name as -06S2. Because this is the second push button inserted, AutoCAD Electrical increments the last push button number automatically. This drawing had the Automatic Numbering option set to Sequential. If the numbering was based on the component location, the second push button on the same rung would have a suffix such as "A" appended to it. In the Insert/Edit Component dialog box, under Descriptions, click Defaults. In the Descriptions dialog box, select Emergency|Stop. In the Insert/Edit Component dialog box, under Catalog Data, click Lookup.
11. Click OK. This completes the push button insertion.
In the Parts Catalog (Table: PB) dialog box, you can browse the parts catalog database to find the desired part number. You filter the available options using the edit boxes at the top of the dialog box. Select the part number 800T-D6A. Click OK.
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12. On the Schematic tab, Insert Components panel, click Icon Menu to add an emergency stop push button.
13. In the Insert Component: IEC: Schematic Symbols dialog box, click Relays/Contacts.
14. In the IEC: Relays and Contacts dialog box, click Relay Coil.
20. In the Insert/Edit Component dialog box, click OK. 21. You can easily edit component insertions with built-in utilities. To move the Description attribute to the outside of the ladder in the same way as the other relay coils on the drawing, do the following: ■ Right-click -06K1. ■ Click Attributes > Move Attribute. ■ Enter W. ■ Press ENTER. ■ Select the Master Control and Relay attributes. ■ Press ENTER. ■ Select the Base point. ■ Select the desired To point. ■ Press ENTER.
15. Select the insertion point for the relay coil on the left rung, near the bottom, directly to the left of -06K2.
Note: Changing the justification requires you to use the AutoCAD Properties command.
Add Wire Branches and Relay Coil Child Contacts
16. 17. 18. 19.
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Notice that AutoCAD Electrical has automatically assigned the component tag name as -06K1. In the Insert/Edit Component dialog box, under Description, click Defaults. In the Descriptions dialog box, select Master Control|Relay. Click OK. In the Insert/Edit Component dialog box, under Catalog Data, click Lookup. In the Parts Catalog (Table: CR) dialog box, select the part number 700-P200A1. Click OK.
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1.
On the Schematic tab, Insert Wires/Wire Numbers panel, click Wire to add two wires that create connecting branches for the circuit.
2.
For the wire start point, select a point on the left rung between -06K1 and -06S2.
3.
4.
Select the wire endpoint on the right rung, directly to the right of the wire start point. Notice that AutoCAD Electrical adds angled wire connections automatically.
For the second wire branch, select the wire start point on the left rung between -06S1 and -06S2.
5.
Select the wire endpoint on the right rung, directly to the right of the wire start point. Press ENTER.
6.
On the Schematic tab, Edit Wires/Wire Numbers panel, click Trim Wire to trim the wire on the right rung between the two wire branches that you added.
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7.
Select a point on the right rung between the two wire branches you added.
10. In the IEC: Relays and Contacts dialog box, click Relay NO Contact.
11. Select the insertion point on the right rung, directly to the right of -06S1. This is a child contact of the parent coil. 12. In the Insert/Edit Child Component dialog box, under Component Tag, click Parent/Sibling to select the parent coil and transfer data from the parent to the child. 13. In the drawing, select anywhere on -06K1. 14. In the Insert/Edit Child Component dialog box, click OK to transfer data such as the tag, description, and pin numbers to the child component.
8.
Notice that AutoCAD Electrical removed the selected wire. If the angled connections are no longer needed, AutoCAD Electrical also removes them. On the Schematic tab, Insert Components panel, click Icon Menu to add a contact from -06K1. This contact will latch the circuit when -06K1 is activated.
Add a Light and Wire Numbers and Generate a BOM Report 9.
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In the Insert Component: IEC: Schematic Components dialog box, click Relays/Contacts.
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1.
On the Schematic tab, Insert Components panel, click Icon Menu to insert a red light to signal when the circuit is engaged.
2.
In the Insert Component: IEC: Schematic Symbols dialog box, click Pilot Lights.
3.
In the IEC: Pilot Lights dialog box, click Standard Lights.
11. On the Schematic tab, Insert Wires/Wire Numbers panel, click Wire Numbers to add wire numbers.
12. In the Wire Tagging dialog box, click DrawingWide. The drawing is searched for wire networks. A wire number is placed on each network found. 4.
In the IEC: Standard Lights dialog box, click Red Light.
5.
Select the insertion point on right rung, directly right of -06K1.
13. The last step is to extract a Bill of Material report from the components in the drawing. On the Reports panel, Schematic tab, click Reports.
6.
Instead of using the description defaults, you manually enter the description. In the Insert / Edit Component dialog box, in the Description area, for Line 1, enter POWER. 7. For Line 2, enter ON. 8. Under Catalog Data, click Lookup. 9. In the Parts Catalog (Table: LT) dialog box, select AB, 800H-PR16R. Click OK. 10. In the Insert/Edit Component dialog box, click OK.
14. In the Schematic Reports dialog box, in the Report Name area, select Bill of Material.
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15. In the Bill of Material area, click Active Drawing. Click OK.
16. In the Qsave dialog box, click OK. A Bill of Material report is generated from component data within the drawing. You can save the report to any of five different file formats, or place on the drawing in the form of a table.
17. In the Report Generator dialog box, click Close. This completes the exercise.
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Chapter Summary In this chapter you learned about the AutoCAD Electrical version of AutoCAD software. AutoCAD Electrical is created for electrical engineers who design industrial control systems. Along with the familiar AutoCAD working environment, an intuitive menu system is included that gives you access to many industry-specific tools that automate the electrical control systems design process. AutoCAD Electrical is an effective design tool for you to create schematics, diagrams, layouts, and related reports faster and more accurately than using AutoCAD software.
Chapter Summary
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Chapter
2 Project Basics This chapter describes the project-based system used by AutoCAD® Electrical to manage the multiple drawings and inter-drawing relationships contained in most electrical projects. Understanding how this system works is essential to increasing your efficiency and creating accurate electrical designs.
Objectives After completing this chapter, you will be able to: ■
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Use the Project Manager to create new projects and open existing ones, and activate and close projects. Display the Project Manager drawing list, including adding and removing drawings from the list, change the list display configuration, change the drawing order, and edit the drawing properties. Open project drawings using the Project Manager drawing list, the Previous and Next Drawing commands, and the Surfer utility. Open, close, activate, and copy projects.
Chapter Overview
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Lesson: Project Manager This lesson describes how to use the Project Manager to manage your project files, create new files, open existing files, close open files, and activate project files as required. Using the Project Manager, you can quickly switch between different active projects. The projects can have completely different symbol libraries, part number databases, and drawing configurations. All the settings that the project references change as the project changes.
Project Manager displaying the preview of a drawing
Objectives After completing this lesson, you will be able to: Describe a project file and the information it contains. Display open and active projects with the Project Manager. Create a new project with the Project Manager.
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About Project Files Usually an electrical project requires more than one drawing to convey all of the necessary design information. In AutoCAD Electrical, you use a project file to manage the group of drawings.
Definition of a Project File A project file is an ASCII text file with a .wdp extension that stores information about a project. A project file contains some of the following information: ■ Project description lines ■ Project default settings ■ Project drawing list, including: ❏ Complete path information ❏ Drawing description lines ❏ Section and subsection assignments ■ Other miscellaneous catalog and symbol library settings To ensure consistency throughout the project drawings, the project settings you store in the project file are referenced when you create or add new drawings to a project. A single project file can find an unlimited number of drawings located in many different directories.
A project file is not needed if the project consists of a single drawing.
By default, project files are stored in the directory pointed to by the WD_PROJ setting in your environment file, but the project files can be stored in any subdirectory. The location of the project file is used early in the file search path. Custom drawing files, symbol libraries, and other reference files can be stored in the project directory so that you can easily change configurations for separate projects.
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Project File Example The following is an example of a typical project file.
Lines starting with "*[n]" are project description lines. Lines starting with "?[n]" are drawing default settings. Lines starting with "+[n]" are projectwide settings. Lines starting with "=" are drawing section labels. Lines starting with "= =" are drawing subsection labels. Lines starting with "= = =" are drawing description lines. Lines without a prefix are project drawing files.
For more details on what is contained in a project file, go to AutoCAD Electrical Help > Index > Projects, File Formats.
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Relative Drawing File Paths Relative path information is used to save the drawing file location. If the drawing is stored in the same directory as the project file, only the file name is stored in the project file. If the drawing is stored in a different directory than the project file, the drawing name information includes both the file name and complete relative path information. In the following example, the project file and first drawing are stored at C:\Documents and Settings\All Users\Autodesk Learning\AutoCAD Electrical 2010\AOTG\Settings and Configuration\. The second drawing is stored at C:\Documents and Settings\All Users\Autodesk Learning\.
A project drawing file that is stored in the same directory as the project file. Only the drawing file name is listed. A project drawing file that is stored in a different directory from the project file. Relative paths are added to the drawing file name. In this example the double periods ".." are a DOS command meaning move one level up in the directory tree structure. Store the project file in the same directory as the project drawings. Although this is not required, it allows the project to be moved to different directories or entered into file management programs, such as Autodesk® Vault, with little or no management of file paths. Absolute or fixed paths to drawing files can also be used. To use an absolute path to a drawing file, you must manually edit the project file using any text editor. You cannot enter a fixed path using the Project Manager.
Guidelines for Project Files Follow these guidelines when working with project files. ■ A single project file can have drawings located in many different directories. There is no limit to the number of drawings in a project. ■ Although you can use any text editor to edit a project file, in most cases it is recommended that you use the Project Manager to make changes. ■ The recommended location for the project file is in the same directory as the project drawing files. ■ When archiving or backing up the project drawing files, it is helpful to include the project file.
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About the Project Manager An electrical project can consist of dozens or even hundreds of separate drawing files. Managing all of these files, keeping them in the correct order, and so on, can be a time-consuming task. To efficiently maintain these files you need to understand what functionality the Project Manager can provide and how to use it.
Project Manager with the project, expanded drawing list, and current drawing in bold
Project Manager Definition You use the Project Manager to open, close, and activate projects. You also use the Project Manager to add, delete, and reorder drawings in a project file. The Project Manager uses a tool palette style interface called an Enhanced Secondary Window (ESW) to manage the project files and drawings. The behavior of the Project Manager ESW is very similar to other AutoCAD® tool palettes. You can dock the Project Manager at different locations on the screen or hide it until you want to use the project tools.
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Click the Properties icon, or right-click in the title bar area to display options to move, size, close, dock, hide, or set the transparency for the Project Manager.
Use the Anchor option to relocate the palette to the left or right side of the screen. This option docks the palette to the selected side but allows the Autohide feature to work.
Command Access Project Manager
Quick Access toolbar: Ribbon: Project tab > Project Tools panel > Manager
Menu Bar: Projects > Project > Project Manager Toolbar: ACE: Main Electrical 2 > Project Manager > Project Manager
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Projects List The Projects list displays all the open projects. The active project is shown at the top of the list in boldface. You can change project settings and create projectwide reports only for active projects. To edit project-based drawing information, such as descriptions or the drawing order, right-click the project name to display a shortcut menu with available options.
Projects Drop-down List The Projects drop-down list displays all open projects, as well as commands, for creating a new project or opening an existing one. Projects cannot be closed from the drop-down list. The active project is shown with a check mark.
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Shortcut Menus You use shortcut menus extensively in AutoCAD Electrical. You right-click elements such as symbols, wires, project names, and drawing names to display the associated shortcut menu options. For example, different shortcut menus are displayed for active and nonactive projects.
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When you click in an empty area, the Project Manager displays a shortcut menu that you can use to create new projects and drawings and open existing projects.
Learning how to access shortcut menus is essential because several commands are accessible only through the shortcut menus.
Project Drawing List You can expand or collapse the drawing list for a project by double-clicking the project name. The current drawing opened for editing is displayed in boldface in the drawing list. With the drawing list displayed, you can right-click a drawing name to display a shortcut menu and access individual drawing commands such as Remove, Rename, or Properties.
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With the drawing list displayed, you can right-click a drawing name and access individual drawing commands such as Remove, Rename, or Properties.
Drawings are opened for editing by right-clicking the drawing name and clicking Open. You can also open a drawing by double-clicking the drawing name. You can view detailed information or a thumbnail of a selected drawing file in the lower area of the Project Manager. Click either Details or Preview to select your viewing choice.
Drawing details displayed
Drawing preview displayed
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Creating New Projects A project file is one of the most important parts of an AutoCAD Electrical project and contains necessary information for project functions. To consistently and efficiently create new project files, you need to understand the utilities provided for this purpose.
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Command Access New Project
Project Manager toolbar: New Project
Project Manager shortcut menu: Right-click in the Projects list. Click New Project.
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Procedure: Creating New Projects The following steps describe how to create a new project with name, location, and reference file settings. 1.
In the Project Manager, click New Project.
2.
For Name, enter the name for the new project.
3.
Select the Create Folder with Project Name check box to create a new folder for the project with the same name that you entered for the project. The folder is created in the path that is specified in Location. The location is also the path where the project file is saved. If left empty, AutoCAD Electrical uses the path to the wd.env file.
4.
If you want to copy project settings from an existing project, click Browse to select the existing project file. Click Descriptions to enter project information that can be included in report headers and title blocks.
5.
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6.
Click OK-Properties to create the new project and open the Project Properties dialog box where you can make changes to the settings.
7.
Click OK to create the new project without making changes to the settings.
Project Descriptions You can enter an unlimited number of project description lines. Information you enter can be reused in Bill of Material, Component, and Wire reports that are generated for the project or mapped to your drawing's title blocks. To include project description line information in reports, select the In Reports check box.
AutoCAD Electrical uses a WDL file that defines edit box title lines that you can use instead of the generic Line 1, Line 2, Line 3 references. These titles are usually matched to your drawing title block attributes. On the Project menu, the Title Block utility can update your title block with project description and drawing description information. When the WDL file is used to relabel the edit boxes, you can see how the information in the project description lines is related to the title block. For more information on the WDL file, see AutoCAD Electrical Help > Project-Wide Tools > Title Block Utility > Link Information to the Title Block > Procedure > Customize LINEx Labels.
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Exercise: Create a New Project In this exercise, you create a new project and add project description information.
1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
2.
In the Project Manager, click New Project.
3.
In the Create New Project dialog box, for Name, enter NEWPROJ. For Location, do the following: ■ Click Browse. ■ In the Browse for Folder dialog box, browse to where you installed the exercise files. ■ Select the Project Basics folder. ■ Click OK. Select the Create Folder with Project Name check box to turn on the Create Folder with Project Name option.
4.
The completed exercise
5.
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 2: Project Basics. Click Exercise: Create a New Project.
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6.
For Copy Settings from Project File, do the following: ■ Click Browse. ■ In the Open dialog box, browse to where you installed the exercises files. ■ In the Project Basics folder, select Project_Basics_IEC.wdp. ■ Click Open. 7. In the Create New Project dialog box, click Descriptions. 8. In the Project Description dialog box, for Line 1, enter your name. Select the In Reports check box. 9. For Line 2, enter your company name. Select the In Reports check box. 10. For Line 3, enter your city. Select the In Reports check box. 11. For Line 4, enter 12345-67. Select the In Reports check box.
15. Click Details. Under Details, notice that the project information you entered for the first four lines is displayed.
This completes the exercise.
12. Click OK to save your changes. 13. In the Create New Project dialog box, click OK. 14. In the Project Manager, select NEWPROJ.
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Lesson: Project Drawing List This lesson describes what the drawing list is and how to use the Project Manager to manage the drawing list by adding drawings, removing drawings, and changing the drawing order. Managing the drawing list is a crucial part of managing the drawings used within your project.
Expanded drawing list with descriptions
Objectives After completing this lesson, you will be able to: Describe what the drawing list is, and how to manage it using the Project Manager. Create a new drawing using the New Drawing tool. Edit the project drawing list by adding and removing drawings from the list and changing the sequence of how AutoCAD Electrical processes the drawings. Describe the primary uses for descriptions and sections. Edit the properties of each drawing, including the description, section, and reference information. Change the configuration of the drawing list, displaying different pieces of information about the drawings. Use the Plot Project utility to batch plot your entire project drawing list or sections you select.
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About the Drawing List Almost every electrical design project contains multiple drawings. This list of drawings is referenced by the project for various functions. It is important for you to know what the drawing list is and how to manage it using the Project Manager.
IECDemo project expanded to display drawing list
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Definition of the Drawing List Drawings referenced by a project are stored within the project file as a drawing list. There is no limit to the number of drawings in a project. The drawing list, and the drawing order in the list, is referenced during projectwide operations including tagging and report generation. The drawing order is also used when drawings are opened sequentially. Included in the project file along with the drawing file name is the path to the drawing file relative to the project file location. A project file can have drawings located in many different folders. If the drawing file is stored in the same folder as the project file, no path information is included.
Project_Basics_IEC_01.dwg in bold as current drawing
Example Use of the Drawing List A new project you are starting has specifications that match parts of previous projects you have created. You start a new project, adding drawings gathered from the previous projects. After the drawings are added to the new project, you reorder the drawings into logical groupings such as schematic, panel, and machine layout drawings. You also reorder the drawings to match the flow of the schematic design. For example, all drawings with PLC input modules are ordered sequentially.
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Creating New Drawings You frequently need to create new drawings for use with your projects. You can complete a new drawing by using standard AutoCAD commands to create and save the drawing, and then using AutoCAD Electrical commands to add the drawing to the project. You can simplify this process by using the New Drawing command.
Command Access New Drawing
Project Manager: New Drawing
Project Manager shortcut menu: Right-click in the Projects list. Click New Drawing.
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Creating New Drawings To create a new drawing and add it to your project, you use the New Drawing command. This command displays the Create New Drawing dialog box, which combines all of the drawing settings and startup options in a single dialog box. Drawings created with the New Drawing command are automatically added to the active project at the end of the drawing order, and the title block update routine is completed on each new drawing.
Procedure: Creating New Drawings The following steps describe how to create a new drawing, set some of the drawing properties, and automatically add the drawing to the current project. 1.
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In the Project Manager, start the New Drawing command.
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For Name, enter the drawing name.
3.
Note: You must enter a name. For Template, click Browse. In the standard AutoCAD Select Template dialog box, select a template for the new drawing.
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4.
Under Location, the directory of the active project file is listed by default. Click Browse to select a different location for the new drawing.
5.
Enter the drawing description information.
6.
Enter the IEC style designator information.
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7.
Enter the sheet value information.
8.
Click OK to create the new drawing, or click OK - Properties to create the drawing and open the Drawing Properties dialog box.
Other than the Name and Template fields, you can edit any of the fields later using the Drawing Properties command.
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Editing the Project Drawing List Frequently during a project design you need to edit the project drawing list. As the project specifications change you need to change the drawings and the order in which they are referenced. The order of drawings in the list determines how AutoCAD Electrical processes the drawings during projectwide operations, such as resequencing and wire numbering.
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Command Access Using the Project Manager, you can add, remove, and change the order of drawings in the drawing list. The Project Manager is the only feature in AutoCAD Electrical that enables you to access these functions. Right-click the project name to display a context menu containing the available commands.
Project Manager shortcut menu displaying drawing list editing commands Use Add Drawings to add multiple drawings to your project. Use Reorder Drawings to change the drawing display and processing order. Use Remove Drawings to remove multiple drawings from your project.
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Procedure: Adding Drawings The following procedure describes how to add drawings to your project.
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1.
Open the Project Manager.
2.
Right-click the project to which you want to add the drawings. Click Add Drawings.
3.
In the Select Files to Add dialog box, select the desired drawing files. Click Add to add the selected drawings to the project. The added drawings are inserted in the drawing list at the end of the drawing order.
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4.
Reorder the drawings as required.
Two projects can reference the same drawing file; however, doing so can lead to conflicts. Each project attempts to process the drawing according to its own requirements. The last project to process the drawing overwrites any changes from previous projects.
Procedure: Removing Multiple Drawings The following steps describe how to remove multiple drawings from your project. 1.
Open the Project Manager.
2.
Right-click the project from which you want to remove the drawings. Click Remove Drawings.
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3.
In the Select Drawings to Process dialog box, select the drawings from the Project Drawing list that you want to remove.
4.
Click Process V to move the selected files to the Drawings to Remove list. Click OK.
Procedure: Removing Individual Drawings The following steps describe how to remove individual drawings from your project. 1.
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Open the Project Manager.
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2.
Locate the project containing the drawing you want to remove. If the drawing list is not displayed, double-click the project to expand the drawing list.
3.
Right-click the drawing to be removed. Click Remove.
Removing Is Not Deleting Removing drawings from a project does not delete them. It removes only the reference to the file from the project.
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Procedure: Changing the Drawing Order The following steps describe how to reorder the drawings in a project.
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1.
In the Project Manager, in the Projects list, right-click the project name. Click Reorder Drawings.
2.
In the Reorder Drawings dialog box, select the drawing whose position you want to change. Click Move Up, Move Down, or Sort, as necessary, to reorder the list.
3.
Use the Sort option to choose between alphanumeric or numeric-alphanumeric sort orders. You can sort the drawings by reference, section, subsection, and file name.
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No Drag-and-Drop Editing The Projects drawing list does not support drag-and-drop editing.
About Drawing Descriptions and Sections Some projects are so large that it is difficult to keep track of all the drawings, what the drawings contain, and where the drawings are used. To effectively work with these larger projects, you need to learn about the tools available for describing and grouping the drawings.
Drawing Descriptions You can add up to three lines of description for each drawing to the project file. They are stored only in the project file and do not change the drawing itself. You can reuse these drawing descriptions in drawing title block attributes and associate them with AutoCAD Electrical reports.
Section and Subsection Codes Especially in projects with large numbers of drawings, it can be helpful to separate groups of drawings into sections or even subsections. The software can search for and process these groupings of drawings during projectwide operations. This information is stored only in the project file and does not change the original drawings.
You do not have to use the section and subsection codes in sequence. There is no fixed relationship between the two codes. Depending on your company standards, you might not use section codes at all and might use only subsection codes for identifying your drawings.
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Section and Subsection Example You can use the section and subsection codes to group your drawings for reports, plotting, and other functions. For example, add section codes of infeed and outfeed to the appropriate drawings. When creating reports, you can sort on the section code and create a Bill of Material report from only those drawings marked as infeed.
Adding Drawing Descriptions and Sections There are times when the drawing file name may not include enough information to easily identify the drawing. You can add drawing description and section information to aid in the identification and grouping of the drawings.
Command Access Drawing Properties
Ribbon: Schematic tab > Other Tools panel > Drawing Properties
Menu Bar: Projects > Drawing Properties Shortcut menu option: Project Manager, right-click drawing name; click Properties > Drawing Properties
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Procedure: Adding Drawing Descriptions and Section Codes The following steps describe how to add or change the drawing description and section codes. 1.
Start the Drawing Properties command.
2.
On the Drawing Settings tab, under Drawing File, enter drawing descriptions.
3.
Enter section and subsection codes.
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You can designate the drawing as a reference file only to exclude it from tagging, cross-referencing, and reporting functions. Drawings designated as reference files are included in projectwide plotting and title block update operations.
You can reselect and edit entries in the drawing properties at any time. This can save time and improve accuracy when reentering the information for another drawing.
Changing the Drawing List Display Depending on company name conventions, a drawing file name itself may not help to identify the information contained on a drawing. To aid in identifying the drawings in the drawing list, you can display more information about the drawing files. To have this extra information appear, you need to know how to edit the drawing list display.
Drawing list with file name followed by drawing description
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Command Access Drawing List Display Configuration
Project Manager: Drawing List Display Configuration
The only access to the Drawing List Display Configuration command is by using the toolbar in the Project Manager.
Drawing List Display Options By default, the drawing list displays only the file name. You can change the appearance of the drawing list displayed in the Project Manager, adding more information about the file. Other drawing list display configuration options include the following: ■ Installation Code (%I) ■ Location Code (%L) ■ Section ■ Sub Section ■ Sheet Number (%S) ■ Drawing Number (%D) ■ Drawing Description 1, 2, and 3
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Drawing Highlighting There are two options for controlling the highlighting of drawings in the Project Manager.
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Option
Description
Always Show Highlight
When you move the cursor away from the Project Manager, the last drawing you selected remains highlighted.
Show Highlight Only When Active
When you move the cursor away from the Project Manager, the drawing highlight is removed.
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Procedure: Changing the Drawing List Display The following steps describe how to change the appearance of the drawing list in the Project Manager. 1.
From the Project Manager, click Drawing List Display Configuration.
2.
In the Drawing List Display Configuration dialog box, select an option from the Display Options list.
3.
Click the double arrows (>>) to move selected options to or from the Current Display Order list.
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4.
Click Move Up or Move Down to reorder options in the Current Display Order list.
5.
Specify a separator value to be used between the display options. The default character is a hyphen (-).
Project Batch Plotting When you are plotting drawings referenced by a project, you often need to plot more than a single drawing. To batch plot project drawings, you need to learn about the Plot Project command and the options available.
Command Access You can use the Plot Project command to batch plot a project's full drawing set or a group of drawings. Plot Project
Project Manager toolbar: Publish/Plot > Plot Project Project Manager shortcut menu option: Right-click the project name; click Publish > Plot Project
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Batch Plotting Options and Order Dialog Box The Batch Plotting Options and Order dialog box is the control center for batch plotting.
The following options are available in the Batch Plotting Options and Order dialog box. Specify Layout Enter a value in the Layout Tab to Plot box or select an option from the Pick List (from Tab to Plot Active Drawing) list. The list contains the existing layout tabs in your drawing. Only one layout tab can be plotted during a single batch process. If you require multiple layout tabs to be printed, run the Plot Project command several times. For Each You can execute command scripts before and after plotting. For example, the preplot Drawing command script file might stamp Preliminary on the drawing before it is plotted. The postplot script can remove it. The default script files are named preplot.scr and postplot.scr, respectively. The files are located in the user subdirectory. For more information on script files, click AutoCAD Help menu > Commands > S Commands > Script.
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Output Device You can set options for the output device name, configuration file, and output file Name name. You can accept the default layout tab configuration, or you can set a custom configuration for the process. For more information about plotting and plot configurations, click AutoCAD Help menu > Plot command. Order To accept these options and plot the selected drawings, click OK. Click OK-Reverse to plot the drawings in reverse order, last one first.
Procedure: Plotting a Project The following steps describe how to batch plot project drawings. 1.
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In the Project Manager, start the Plot Project command.
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2.
3. 4.
In the Select Drawings to Process dialog box, select drawing files from the drawing list. Click Process V to add the selected files to the process list.
Click Do All to add all the files to the Drawings to Print/Plot list. You can select defined sections by clicking Section/Subsection. You can add or remove files from the Drawings to Print/Plot list at any time. When you are satisfied with the selection in the Drawings to Print/Plot list, click OK. Select the desired options in the Batch Plotting Options and Order dialog box.
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Exercise: Edit the Project Drawing List In this exercise, you edit the drawing list and drawing list display. You complete the following: ■ Add, remove, and replace drawings from a project drawing list. ■ Edit drawing descriptions and change the drawing list display.
The completed exercise
2.
In the Project Manager, right-click in an empty area. Click Open Project.
3.
Browse to where you installed the exercise files and in the current project folder, select Project_Drawing_List_IEC.wdp. Click Open. In the Project Manager, right-click Project_Drawing_List_IEC. Click Add Drawings. In the Select Files to Add dialog box, from the Projects_IEC list, select New_Project_IEC_01 through New_Project_IEC_04. Click Add.
4. 5.
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 2: Project Basics. Click Exercise: Edit the Project Drawing List.
Edit the Drawing List 1.
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If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
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6.
In the Apply Project Defaults to Drawing Settings dialog box, click No.
7.
In the Project Manager, double-click the Project_Drawing_List_IEC project name to expand the drawing list.
8.
Right-click New_Project_IEC_04.dwg. Click Remove.
11. In the Apply Project Defaults to Drawing Settings dialog box, click No.
Edit and Display the Drawing Descriptions 1. 2.
3. 4.
5. 6.
Right-click New_Project_IEC_01.dwg. Click Properties > Drawing Properties. In the Drawing Properties dialog box, Drawing Settings tab, for Description 1, enter 3 Phase Motors. Click OK. Right-click New_Project_IEC_04.dwg. Click Properties > Drawing Properties. In the Drawing Properties dialog box, Drawing Settings tab, for Description 1, enter Panel Layout. Click OK. Right-click New_Project_IEC_03.dwg. Click Properties > Drawing Properties. In the Drawing Properties dialog box, Drawing Settings tab, for Description 1, enter Pallet Sensors. Click OK.
9.
Right-click New_Project_IEC_02.dwg. Click Replace. 10. In the Select Replacement Drawing dialog box, select New_Project_IEC_04.dwg to replace New_Project_IEC_02.dwg. Click Select.
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7.
In the Project Manager, click Drawing List Display Configuration.
8.
In the Drawing List Display Configuration dialog box, under Display Options, select Drawing Description 1. Click the double arrows (>>) to add the Drawing Description 1 box to the Current Display Order list.
9.
Click OK.
10. In the Project Manager, click New Drawing.
11. In the Create New Drawing dialog box, for Name, enter New Project Drawing. 12. For Template, click Browse. Select ACAD_ELECTRICAL_IEC.dwt. Click Open.
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13. For Description 1, enter This is a New Drawing. Click OK.
14. In the Apply Project Defaults to Drawing Settings dialog box, click Yes.
This completes the exercise.
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Lesson: Moving Through Projects This lesson describes how to open drawings in three ways that are different from the standard AutoCAD commands: ■ Selecting a drawing from the Projects drawing list in the Project Manager. ■ Navigating to the previous or next drawing in the list. ■ Using the Surf utility to search through drawings for component references with characteristics you specify.
Overview of the drawing-opening tools: Project Manager, Surf, and Previous Drawing and Next Drawing AutoCAD Electrical 2006 and later versions support the Multiple Document Interface, or MDI, standard. With an MDI application, such as AutoCAD Electrical, you can open several files at the same time.
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Objectives After completing this lesson, you will be able to: ■ ■
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Select and open drawings from the Project Manager. Move between sequential drawings in the active project using the Previous Project Drawing and Next Project Drawing tools. Use the Surfer tool to quickly locate and open project drawings based on component references.
Selecting Drawings Using the Project Manager Especially with projects containing large numbers of drawings, you may want to open drawings scattered throughout the drawing list. To do this quickly and easily, you need to learn how to use the drawing list in the Project Manager for this purpose.
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Procedure: Opening Drawings Using the Project Manager The following steps describe how to open a drawing from the drawing shortcut menu in the Project Manager.
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1.
In the Project Manager, double-click a project to expand the drawing list.
2.
Browse to the desired drawing file name in the list.
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3.
To open the drawing, double-click the drawing name, or right-click the drawing name and click Open.
This method opens the selected drawing but does not close other drawings that are currently open.
This method is recommended when browsing among drawings scattered in the drawing list.
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About Opening the Previous or Next Project Drawing Schematics are most commonly organized and connected in a linear fashion with wires connecting from one drawing to the next sequentially. The design process usually follows this pattern also. To move between drawings sequentially, as the design process dictates, you use the Previous Project Drawing and Next Project Drawing tools.
Command Access Previous Project Drawing
Quick Access toolbar: Ribbon: Project tab > Other Tools panel > Previous Drawing
Toolbar: ACE: Main Electrical 2 > Previous Project Drawing Next Project Drawing
Quick Access toolbar: Ribbon: Project tab > Other Tools panel > Next Drawing
Toolbar: ACE: Main Electrical 2 > Next Project Drawing
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Previous and Next Project Drawing Command Options When you use these tools to move to the previous or next drawing, any unsaved changes to the current drawing are saved, the drawing is closed, and the requested drawing is opened. To not save and close the current drawing, and only open the requested drawing, you press and hold SHIFT while selecting the command. These tools are available only when the current drawing is referenced from the active project. The commands are disabled if the current drawing is not from the active project.
This method is recommended for moving sequentially between drawings in the project drawing list.
Searching Project Drawings Using the Surfer Tool During the design of a project you may have the need to search for insertions of specific objects, such as components, wire numbers, or catalog number assignments. To accomplish this task quickly and easily, you need to understand how to use the Surfer tool.
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Definition of the Surfer Tool You use the Surfer tool to move through drawings to panel, pneumatic, and schematic component locations. You can surf to related components based on a component tag, catalog number, or wire number. You specify surf criteria by selecting an existing component reference or by entering reference information manually. Wild-card characters are supported during manual entry. Once you have identified the surf criteria, the Surfer tool scans the project drawings and returns a list of all component references found. When you click a found reference, AutoCAD Electrical saves and closes the current drawing, opens the drawing that contains the reference, and zooms in on the selected component. You can quickly edit the component and return to the Surf list for further surfing and editing.
Surfer zoomed in to selected component reference Many AutoCAD Electrical reports, such as Missing Bill of Material and Cross-Reference Exception, can be exported to the Surfer tool. You can use the exported Surf list to edit component references.
The Surfer tool is available only when the current drawing is referenced from the active project. The command is disabled if the current drawing is not from the active project.
The Surfer tool is especially useful for surfing through the project drawing list to scattered drawings based on component references.
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Command Access Surfer
Quick Access toolbar: Ribbon: Project tab > Other Tools panel > Surfer
Menu Bar: Projects > Surfer Toolbar: ACE: Main Electrical 2 > Surfer Continue Surfer
Ribbon: Project tab > Other Tools panel > Surfer flyout > Continue Surfer
Menu Bar: Projects > Continue Surfer Toolbar: ACE: Main Electrical 2 > Surfer > Continue Surfer
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Surf List Columns and Options The Surf dialog box displays information about each found reference, such as the component type, the state of contacts, the sheet and reference location, and the installation and localization codes. You also have several options available for displaying and editing the found references. The list area columns and some of the other options are shown in the following figure.
The letter X indicates that this reference has been visited during this surfing session. Codes listed in this column identify the type of reference: ■ A blank or empty column indicates that this reference is a child schematic component, such as a relay contact. ■ The letter p indicates that this reference is a parent component, such as a relay coil. ■ The # symbol indicates that this reference is a panel layout component. ■ The abbreviation np indicates that this reference is a panel nameplate component. This column indicates the state of the reference, where applicable: ■ NO indicates that this reference is a normally open contact. ■ NC indicates that the reference is a normally closed contact. This lists the sheet and reference location of the reference. This lists the installation and location codes of the component. You can adjust zoom levels for the current session or save a zoom level for future surfing.
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You can use Edit to modify a selected component reference without canceling the Surfer session. You can use Delete to remove a component from the drawing.
Procedure: Using the Surfer Tool The following steps describe how to search through a project for all related references to the selected data. 1.
Start the Surfer tool.
2.
At the Command prompt either select a component or tag for the Surfer to trace, or press ENTER to manually enter a tag to trace.
3.
If you want to enter a tag manually, in the Type It to Surf It dialog box, enter the trace data.
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4.
In the Surf dialog box, select the desired trace reference from the list. Click Go To.
5.
Click Edit to open the appropriate editing tool for the reference selected, or choose another command option.
Some command options within the Surfer tool require the Surfer to close. When the operation is complete, you use Continue Surfer to return to the last Surf dialog box listing.
Searching for an Existing Component You know that a relay tagged as K74 exists somewhere in your project, but you can't remember which sheet it is located on. To find the relay, you start the Surfer tool, and press ENTER to select manual entry. In the Type It to Surf It dialog box, in the Component Tag box, you enter K74. All references to the relay are displayed in the Surf dialog box. You click Go To to take you directly to the desired component reference.
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Exercise: Move Through Project Drawings In this exercise, you use the Project Manager, Previous Project Drawing and Next Project Drawing, and the Surfer utility to move to and open drawings in the active project.
The completed exercise
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 2: Project Basics. Click Exercise: Move Through Project Drawings.
1.
2.
3.
If Project_Basics_IEC is the active project, skip to step 6. If it is open but not active in the Project Manager, do the following: ■ Right-click Project_Basics_IEC. ■ Click Activate. ■ Skip to step 6. In the Project Manager, right-click in an empty area. Click Open Project.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
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4. 5. 6. 7.
Browse to where you installed the exercise files and select Project_Basics_IEC.wdp. Click Open. In the Projects list, double-click Project_Basics_IEC to expand the drawing list. Right-click Project_Basics_IEC_06.dwg. Click Open. On the Quick Access toolbar, click Next Drawing.
8.
On the Quick Access toolbar, click Previous Drawing.
9.
Zoom in to the relay coils located in the middle of the first ladder.
13. If requested, in the Qsave dialog box, click OK.
14. In the Surf dialog box, double-click the parent coil listing, p 06, 6/E. Click Go To. 15. If requested, in the Qsave dialog box, click OK. 16. You can change the zoom factor that the Surfer tool uses. Click Zoom Out. 17. Click Close to exit the Surfer tool. AutoCAD Electrical displays the current drawing location and view.
10. On the Quick Access toolbar, click Surfer. 11. From the drawing, select the relay coil -06K4.
This completes the exercise.
12. In the Surf dialog box, select the child contact listing, NO, 07, 3/A. Click Go To.
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Lesson: Managing Projects This lesson describes how to manage projects. You learn how to open, close, activate, and copy projects. Because projects are the main tools used to manage the drawings required by a design, you must learn how to manage them.
Objectives After completing this lesson, you will be able to: ■ ■ ■
Open existing projects with the Project Manager. Activate and close projects with the Project Manager. Create copies of existing projects, including all drawings and project-related files.
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Opening Projects Completed projects are often opened and used again. Even if you just want to make corrections to reflect actual assembly methods, you often have to return to completed and closed projects. It is essential for you to know how to access the Open Project command and to follow some guidelines when opening projects.
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Command Access Open Project
Project Manager: Projects list > Open Project Project Manager: Projects list > Right-click > Open Project
Open Project displayed in Project list
Open Project displayed in Project pane
You can only open projects by using the Projects list or shortcut menu options. A drawing must be opened if you want to use the shortcut menu option.
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Procedure: Opening Projects The following steps describe how to open a project with the Project Manager.
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1. 2.
In the Project Manager, open the Projects list or right-click in empty area. Click Open Project.
3.
Browse to the desired project file.
4.
The Select Project File dialog box displays only AutoCAD Electrical WDP file types. Double-click or select the project file. Click Open.
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Guidelines Follow these guidelines when opening projects: ■ When you open a project, it is added to the current Projects list and automatically becomes the active project. ■ You can have as many projects open as you want, but only one project can be active at a time. ■ Keep open only the current projects you are working on. Having many projects open can adversely affect system resources.
Activating and Closing Projects You may have to move between projects frequently during the course of a workday, sometimes within minutes. Because the project files contain important information about the project, you need to learn how to activate projects for reference by AutoCAD Electrical.
Definition of an Active Project AutoCAD Electrical references the active project for symbol libraries, configuration settings, and other resource information. You can have as many projects open as you need, but only one project can be active at a time. The active project is displayed at the top of the Projects list in boldface. In the Projects list, the active project is indicated by a check mark. When you close a project, AutoCAD Electrical removes it from the current Projects list. If you close the active project, the next project in the list becomes the active project.
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Command Access Activate
Project Manager: Right-click the nonactive project in the Projects list. Click Activate. Project Manager: Project drop-down list. Select project. Close
Project Manager: Right-click the project in the Projects list. Click Close.
The only way to close projects is to use the context menu in the Project Manager.
Procedure: Activating and Closing Projects The following steps describe how to activate and close projects using the Project Manager.
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1.
To activate a project, open the Project Manager.
2.
In the Projects list, right-click a nonactive project name. Click Activate. The project is displayed at the top of the Projects pane in boldface.
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3.
To close a project, open the Project Manager.
4.
In the Projects list, right-click a project name. Click Close.
5.
If the active project is closed, the next project in the Projects list is made active.
Closing a project does not delete it. The project is removed only from the Projects list displayed in the Project Manager.
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Copying Projects New projects are rarely started completely from scratch. Almost always, new projects are started by copying existing projects and drawings and then modifying them to match the new requirements. Because you do this so frequently, it is important for you to learn how to use the Copy Project tool.
Copying Projects Manually A typical manual process for starting a new project uses Microsoft Windows Explorer to complete the following steps: 1. Create a new project folder. 2. Copy existing project files into the new folder, including drawings and reference files. 3. Rename each file one at a time. 4. Edit the project file, removing old references and adding new ones.
Copy Project Tool The Copy Project tool combines all of the manual steps into a single wizard-style interface that guides you through the process of copying and renaming project files, including reference files and drawings. All files referenced by a project are copied into the new project folder and renamed accordingly to match the new project name. You can use Find and Replace to rename the drawing files within the project. As the project file is copied, the old drawing paths and file names are replaced with the copied drawing paths and file names.
Command Access Copy Project
Ribbon: Project tab > Project Tools panel > Copy Project
Menu Bar: Projects > Project > Copy Project Toolbar: ACE: Main Electrical 2 > Project Manager > Copy Project
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Cannot Copy Open Drawings You cannot copy open drawings. You must close drawings that are part of the project you are copying before starting the command.
Procedure: Copying Projects Using the Copy Project Tool The following steps describe how to make a copy of a project. 1.
Start the Copy Project tool.
2.
In the Select Existing Project to Copy dialog box, either browse to select an existing project to be copied or click Copy Active Project.
3.
Select the path and file name for the new project.
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4.
In the Select Drawings to Process dialog box, select existing drawings to be copied to the new project.
5.
Browse to or enter the base path for the project drawings.
If you have created project-related files, you can select these to be copied and renamed to the new project name as well. AutoCAD Electrical cannot find files that are not selected.
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6.
Edit the new drawing file names. You can edit them one at a time or click Find/Replace to make changes throughout the drawing list.
The newly created project is opened and made active. The first drawing in the drawing list is opened.
Procedure: Selecting Drawings for Projectwide Processing For any projectwide procedure, you need to select only those drawings from the project that you want to process. You are not required to process all drawings that are referenced by the project. 1.
Start any projectwide command.
The upper list displays all drawings that the project references that AutoCAD Electrical has not already added to the lower processing list.
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2.
Select the drawings you want to process.
3.
Click Process to add the selected drawings to the process list.
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4.
Click Do All to add all available drawings to the process list.
5.
To remove drawings from the process list, select drawings in the process list. Click Unselect.
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Drawings removed from the process list (or not selected for processing) are displayed in the upper list. Click OK to process all drawings in the process list.
6.
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Exercise: Copy Projects In this exercise, you copy an existing project and drawings, creating a new project and copies of the selected drawings.
The completed exercise
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 2: Project Basics. Click Exercise: Copy Projects.
1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
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2.
In the Project Manager, right-click in an empty area. Click Open Project.
10. Click Save to accept the same directory path for the new project file that is used for the current project. 11. In the Select Drawings to Process dialog box, click Do All. Click OK. 12. In the Copy Project: Step 4 dialog box, notice that all available project-related files are also selected for copying.
3.
Browse to where you installed the exercise files. Select Project_Basics_IEC.wdp. In the Project Manager, double-click Project_Basics_IEC to expand the drawing list. On the Quick Access toolbar, click New.
13. Click OK to accept the same directory path for the new project drawings that you used for the current project drawings. 14. In the Copy Project: Step 5 dialog box, notice that the original named drawings are listed.
4. 5. 6. 7. 8.
In the Select Template dialog box, select acadiso.dwt. Click Open. On the Project tab, Project Tools panel, click Copy. In the Copy Project: Step 1 dialog box, click Copy Active Project. Click OK.
15. Click Find/Replace. 16. In the Find/Replace dialog box, for Find, enter Project_Basics_IEC_.
9.
In the Copy Project: Step 2 dialog box, for File Name, enter COPY PROJECT.
17. For Replace, enter CopyProjects_IEC_.
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18. Click OK. The original files are renamed as shown.
19. In the Copy Project: Step 5 dialog box, click OK. AutoCAD Electrical activates the copied project and opens the first drawing for editing.
This completes the exercise.
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Chapter Summary In this chapter you learned about the project-based system used by AutoCAD Electrical. Each project is defined by an ASCII text file with a .wdp extension. The project file includes the drawing list, project description lines, project settings, and drawing descriptions and section information.
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Chapter
3 Schematic Wiring This chapter describes many of the tools that are provided to increase the productivity of your standard schematic creation tasks. Tools such as Automatic Wire Numbers not only automate the task but also add intelligence and accuracy to your drawings. Tools such as the Source and Destination Signals link components throughout your project and transfer intelligence between the drawings.
Objectives After completing this chapter, you will be able to: ■ ■ ■ ■
Configure, insert, and edit the ladders and wires in your schematic drawings. Create point-to-point wiring diagrams using multiple-wire buses, wires, and connector utilities. Automatically insert wire numbers and leaders onto wires. Set up and insert source and destination signals.
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Lesson: Wires and Ladders This lesson introduces you to the basics of adding wires and ladders to your electrical schematics. You learn what distinguishes a line in AutoCAD® from a wire in AutoCAD® Electrical. You insert a new ladder, and edit or revise existing ladders. You also learn to add individual wires and rungs, and to trim or erase existing wires.
Objectives After completing this lesson, you will be able to: ■ ■ ■ ■ ■ ■ ■ ■
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Define wires and wire networks, wire connections and tees, and wire trap distance. Insert wires in your drawings. List the priority used to determine the layer assignment for new wires added to a drawing. Trim wires in your drawings. Describe what ladders and rungs are and give examples of their uses. Describe the difference between X-Y Grid and XZone referencing and how they are used. Insert schematic ladders of differing sizes and configurations, and add rungs as necessary. Revise schematic ladders and existing ladder references.
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About Wires You use objects that represent wires in every schematic design style. In the common ladder and pointto-point styles, lines on a drawing usually represent the actual wires that connect to components in the design. To effectively create schematics, you must learn what defines a wire in the AutoCAD Electrical environment.
Wires Wires are AutoCAD line objects that you place on specific wire layers in the Create/Edit Wire Type dialog box. Other line properties, such as Linetype and Width, can be used in the wire-type definition. Polylines, lwpolylines, and other AutoCAD object types are not recognized as wires.
Wire Networks A wire network is one or more wire segments and optional branches that interconnect and form an unbroken electrical conductor. Wire segments of the network may contain inline components such as terminals, splices, or wire-crossing gaps, as long as these objects do not force a wire number change as the wire passes through them.
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Wire Connections When you select a component or branch for the wire start point, connection dots or angled connections are added automatically, as required by the Drawing Properties dialog box settings. The X=Show Connections option, chosen before selecting a wire start point, places a small marker on the component wire connection points currently visible on the screen. Any zoom operation erases the markers. If you choose a component wire connection point with an existing wire already attached, a short angled wire is added to offset the second wire from the original. Placement of the offset wire depends on the second point chosen.
Components with multiple wires attached with angled connections
Connection Tees When connecting wires you can use a variety of connection symbols to help indicate how the wiring should be installed. You can have a default style, which you set in the Drawing Properties dialog box, and later edit that style using the Toggle Angle Tee Markers command. For more information, see Electrical Help Topics. Enter Tee on the Search tab and select Wire Sequencing.
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Wire Connection Tee Options The following illustration shows the various wire-tee options that are available when connecting two wires.
Standard connection dot
Wire tee - angle 1, left
Wire tee - angle 2, left
No connection symbol
Wire tee - angle 1, right
Wire tee - angle 2, right
Wire Trap Distance When connecting to another wire, the two wire segments are considered connected if the end of one wire segment touches or falls within the trap distance of any part of the second wire segment. This can be at the end of the second wire or anywhere along the length of the second wire. When connecting to a component, the component's wire connection attributes are used. The trap distance is 0.025 when using inch units, 0.625 when using millimeter units. For more information about wire connection attributes, click Help menu > Electrical Help Topics. Enter connection attributes in the Search tab. Select Overview of Schematic Attributes.
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Wire and Wire Network Example As shown in the following illustration, wires numbered 10 through 19 are lines drawn between connections on the terminal strip TB-4 and the various components. Because these lines are on a layer defined as a wire layer, they are considered to be wires in the AutoCAD Electrical environment. Wires numbered 11 and 15 are also examples of wire networks that contain several wire segments.
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Inserting Wires Inserting wires into your drawings is one of the most common tasks you perform, and several methods for inserting wires are available. Knowing the correct tools, recommended procedures, and insertion guidelines can help you work smarter.
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Command Access Insert Wire
Ribbon: Schematic tab > Insert Wires/Wire Numbers panel > Insert Wire
Menu Bar: Wires > Insert Wire Toolbar: ACE: Main Electrical > Insert Wire
Insert Wire Options Use the Insert Wire command to add new wire segments to your drawings. The Insert Wire command is similar to the AutoCAD Line command in the following ways: ■ You are prompted for start points and endpoints. ■ You can continue a wire segment by continuing to select points. In addition, the Insert Wire command provides the following functionality: ■ Lines drawn are placed on a wire layer by default. ■ By default, segments are automatically drawn in 90-degree increments. ■ Connections are made automatically to other components or wires.
Inserting a wire with a 90-degree bend between two segments
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If you want to fix the endpoint of the first segment, at the Command prompt, enter C. The Insert Wire command continues the wire from the fixed point, automatically drawing the two perpendicular segments. Unless you select a specific angle with the Insert Wire command, only horizontal and vertical wire segments are drawn. Be sure to have Snap mode turned on when drawing wires and inserting components. This keeps the cursor locked in the position you want and helps to prevent unwanted wire segments from being added due to the automatic 90-degree segments.
You can also use the AutoCAD Line command to insert new wires. Make sure the current layer is set to a valid wire layer. Use the AutoCAD Electrical Insert Wire Gap command if the line crosses another wire and you want to show a gap.
Procedure: Inserting Wires The following steps describe how to insert a wire in your drawing. 1.
Start the Insert Wire command.
2.
If desired, enter T at the command line. Press ENTER to manually set a wire-type layer. Select a wire type from the list.
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3.
Select the start point for the wire.
4.
Select endpoints for the wire segments. If desired, enter C at the command line. Press ENTER to select the intermediate endpoints.
5.
Press ENTER to end the wire. The command autorepeats, enabling you to insert another wire.
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Layer Assignments When you use any command to add wires in your drawings, the new wires are automatically placed on a wire layer. Knowing the methods used to make layer assignments is essential to creating accurate electrical designs.
Wire Layer Assignments When new wires are added to a drawing, the following wire type layer assignments are made automatically: ■ If a new wire segment is attached to an existing wire, the new wire is placed on the same layer as the existing wire. When a wire segment is added between wires on two different layers, the wire layer at the starting connection is used for the new wire segment. ■ When new wire segments are not attached to existing wire, they are placed on the current layer if it is a valid wire layer. If the current layer is not a wire layer, the new wire segment is placed on the default wire layer as set in the Create/Edit Wire layer dialog box. You can also manually set the default wire layer. Before selecting a wire start point, choose the T=Wiretype option. This displays the Set Wire Type dialog box where you set the wire layer to be used during the command. For more information about the Wire Type command, click Help menu > Electrical Help Topics. Enter Use Wire Layers in the Search tab. You can change the layer assignments of line objects at any time, converting lines to wires and vice versa, by using the AutoCAD Electrical Change/Convert Wire Type utility or by using any AutoCAD properties commands.
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Trimming Wires Existing wires can be edited or erased using a variety of methods. Knowing the available tools and recommended procedures improves your efficiency.
Example of wires with components added
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Command Access Trim Wire
Ribbon: Schematic tab > Edit Wires/Wire Numbers panel > Trim Wire
Menu Bar: Wires > Trim Wire Toolbar: ACE: Main Electrical > Trim Wire
Trim Wire Options Use the Trim Wire tool to remove a wire segment and connection dots, as necessary. You can trim a single wire or draw a fence or a crossing to select multiple wires. When you choose a wire segment to be trimmed, AutoCAD Electrical follows the wire in each direction from your selected point until it finds wire connection points. The wire is trimmed to each point and the connection dot is automatically removed if it is no longer needed. You can also use the AutoCAD Erase or Trim command to remove wires, but the wire connection dots are not removed automatically and might require extra steps to remove them.
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Procedure: Trimming Wires The following steps describe how to trim wires from your drawings.
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1.
Start the Trim Wire command.
2.
To trim individual segments, select each segment.
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3.
To trim multiple segments using a fence line, at the Command prompt, enter F. Draw a fence line across all wires that you want to trim.
4.
To trim multiple segments by window-selecting, at the Command prompt, enter C. Draw a crossing window across all the wires that you want to trim.
Nonwire objects are ignored and are not trimmed or erased.
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About Ladders and Rungs When using ladder-style design methods, one of your first tasks is to create the ladder structure for the insertion of components. To complete this task, you need to understand what ladders and rungs are in AutoCAD Electrical.
Ladder with rungs and wires
Ladders Ladders are a collection of wires joined together to form a matrix. The outside wires of the ladder are referred to as a bus. The inside wires are referred to as rungs. Three-phase ladders are usually created with only the bus wires. Ladders, ladder rungs, and power buses are all wires; you can draw them using the Insert Wire command. However, Insert Ladder and Add Rung commands are available to make the creation of these special types of wires easier. There is no limit to the number of ladders you can insert into a drawing as long as the ladders do not overlap each other. You can insert a new ladder at any time. Multiple ladder fragments in the same vertical column need to be vertically aligned along the left side. Note that these limitations do not apply when X-Y Grid or X-Zone referencing is selected. A single drawing can contain both control ladders and three-phase ladders, each one with a different length, width, and rung spacing, as necessary.
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Ladder Rungs Add Rung is a specialized version of the Insert Wire command. When you select an insertion point, AutoCAD Electrical seeks to the left and to the right, or to the top and to the bottom, depending on the ladder orientation, for bus wires. The rung is inserted, connecting the two buses. Connection symbols are inserted as required. If ladder referencing is used, the rung is placed at the closest line reference location. Do not click directly on the bus wires. This can cause the program to behave inconsistently when seeking a connection to the bus wires. Always click somewhere between the two buses.
Example showing pick points not on buses
Insert Ladder Example The Insert Ladder and Add Rung commands make the creation and editing of ladders much faster. For example, creating a ladder with buses and rungs using the Insert Wire command requires drawing the two buses and repeatedly drawing wires from bus to bus, being careful to start each wire on the correct reference location. Then reference numbers need to be added. The Insert Ladder command does this automatically, even placing all wires on the default wire layer.
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Referencing Locating components within the project drawings is very helpful when troubleshooting or editing your schematics. This is especially true when working with complex drawings and larger projects. Two main types of referencing styles are commonly used: ladder referencing and grid referencing. You need to learn what those types are and how they define locations in your drawings.
Ladder reference example
Grid reference example
Ladder Referencing When using ladder referencing, each rung in the ladder is assigned a number. The number can be in a variety of formats that may include rung number, sheet or drawing number, or several other variables. The first ladder reference number is a master ladder reference (MLR) block. Attributes in this block contain the settings for the ladder. All other reference numbers in the ladder are simple text objects and can be erased without affecting the ladder intelligence. Each ladder in the drawing is associated with a unique MLR block.
Example of ladder referencing with MLR highlighted
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You set the ladder referencing format under Format Referencing on the Drawing Format tab in the Drawing Properties dialog box.
Grid Referencing There are two grid referencing options available, X-Y Grid, and XZone. When X-Y Grid referencing is used the drawing area is divided into columns and rows. This is similar to the referencing commonly used on geographical maps. If XZone referencing is chosen the drawing is divided into columns only. Grid referencing does not place any intelligence on the ladder itself. The grid reference spacing, origin, and vertical and horizontal axis annotation lists are carried on attribute values of the drawing's invisible WD_M block. There is no MLR block, and no reference text values inserted on the ladder.
Drawing with X-Y Grid referencing; Columns sorted by numbers, rows sorted by letters
Example of Ladder Referencing Your company standard is to use a four-character number for each ladder rung. The first two characters represent the sheet number in the project and the last two characters represent the rung number. You set the component tag format to Referencing to use the ladder reference as the tag value When using this method you can identify where a component is in the project drawings by just interpreting the tag value. For example, CR1043 is a control relay on located on sheet 10, rung 43.
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Inserting Ladders and Rungs Inserting ladders and rungs is very tedious if you use manual methods such as the AutoCAD Line or Add Wire commands. For the highest design productivity, you need to understand the tools that help you to simplify these tasks.
Command Access Insert Ladder
Ribbon: Schematic tab > Insert Wires/Wire Numbers panel > Insert Ladder
Menu Bar: Wires menu > Ladders > Insert Ladder Toolbar: ACE: Main Electrical > Insert Ladder > Insert Ladder Add Rung
Ribbon: Schematic tab > Edit Wires/Wire Numbers panel > Add Rung
Menu Bar: Wires menu > Add Rung Toolbar: ACE: Main Electrical > Add Rung
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Insert Ladder Dialog Box
Insert Ladder dialog box areas Setting
Description
Width
Specifies the width of the ladder between buses.
Spacing
Specifies the spacing between each rung.
Length
Specifies both the length of the ladder and the number of rungs. Whichever one is not entered is calculated automatically. You can enter the total ladder length, the number of ladder rungs, or leave both blank and manually select the beginning and ending points of the ladder.
1st Reference
Specifies the beginning line reference for the ladder. Index is the increment number for line reference numbering (default=1).
Phase
Specifies whether to create a one-phase or three-phase ladder. If you select to create a three-phase ladder, the Width and Draw Rungs options are unavailable.
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Setting
Description
Draw Rungs
Specifies how to draw the rungs. No Bus draws only the line reference numbers, while No Rungs draws only the hot and neutral bus without rungs. Select Yes to include rungs automatically at every reference location (Skip=0). You can specify whether to skip rungs; a value of Skip=1 means every other rung is drawn; a value of Skip=4 means that four rungs are skipped for every one that is drawn.
Procedure: Inserting Ladders and Rungs The following steps describe how to insert a ladder and rungs in your drawing.
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1.
To insert a ladder, start the Insert Ladder command.
2.
In the Insert Ladder dialog box, click the phase of the ladder--either 1 Phase or 3 Phase.
3.
Enter other ladder options as desired.
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4.
Select the ladder insertion point.
5.
To add rungs, start the Add Rung command.
6.
Select a rung insertion point.
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Revising Ladders After a ladder has been inserted, changes may be required to match new requirements. To make these changes, you need to understand how to use the Revise Ladder tool.
Command Access Revise Ladder
Ribbon: Schematic > Edit Wires/Wire Numbers panel > Add Rung flyout > Revise Ladder
Menu Bar: Wires > Ladders > Revise Ladder Toolbar: ACE: Main Electrical > Insert Ladder > Revise Ladder
Revise Ladder Options The Revise Ladder tool adjusts the line reference numbering along the side of the ladders; however, it does not change existing ladder rung spacing. You use the Scoot utility or other methods to manage rung spacing. Revise Ladders cannot change the style of a ladder, once it is inserted. For example, you cannot use it to change the reference number formatting from Numbers Only to Sheet and Numbers. To change the style of a ladder, you can use the Swap Block utility to change the master ladder reference block.
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Each line in the Modify Line Reference Numbers dialog box represents a ladder in the drawing. Changing any value in the dialog box automatically selects the Redo check box. Select Redo manually to force an update.
Updating the ladder's reference numbers does not update existing components or wire numbers. Use the Retag Components and Automatic Wire Numbers commands to complete these tasks. Use the AutoCAD Move command to relocate an entire ladder. Make sure that you select the entire ladder, including the very first-line reference number (the MLR block insert). Click Revise Ladder. When the Revise Ladder dialog box is displayed, click Cancel. Using this sequence forces an update of the internal ladder location list.
Revise Ladder Example You inserted a ladder in your drawing but decided that you needed to change the spacing and number of rungs. You start the Revise Ladder command and change the rung spacing from 0.75 to 0.50 and the number of rungs from 7 to 8.
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Ladder and dialog box before revision
Ladder and dialog box after revision
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Exercise: Insert a Ladder and Wires In this exercise, you insert a ladder in a new drawing. You edit the ladder by trimming rungs and adding wires and rungs.
The completed exercise
Completing the Exercise
1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
2.
If Schematic_Wiring_IEC is the active project, skip to step 6. If it is open but not active, in the Project Manager, do the following: ■ Right-click Schematic_Wiring_IEC. ■ Click Activate. ■ Skip to step 6.
To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 3: Schematic Wiring. Click Exercise: Insert a Ladder and Wires.
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3.
In the Project Manager, right-click in an empty area. Click Open Project.
9.
Notice that AutoCAD Electrical automatically calculates the ladder length when you move the cursor from the box. Click OK.
10. Select an insertion point for the ladder at approximately 70.00,260.00.
4.
5. 6. 7.
8.
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Browse to where you installed the exercise files. Select Schematic_Wiring_IEC.wdp. Click Open. Double-click Schematic_Wiring_IEC to expand the drawing list. Double-click Schematic_Wiring_IEC_22.dwg to open the file. On the Schematic tab, Insert Wires/Wire Numbers panel, Insert Ladder flyout, click Insert Ladder.
In the Insert Ladder dialog box, do the following: ■ For Phase, select 1 Phase. ■ For Width, enter 180. ■ For Spacing, enter 40. ■ For Rungs, enter 8. ■ For Draw Rungs, select Yes.
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11. On the Schematic tab, Edit Wires/Wire Numbers panel, click Trim Wire. 12. Select rungs 2, 4, 6, and 8.
13. On the Schematic tab, Insert Wires/Wire Numbers panel, Wire flyout, click Wire. 14. Add a wire starting on rung 1D and ending on the bottom horizontal bus at 2E. 15. Add a wire starting on rung 1B and ending on the upper horizontal bus at 2A.
16. Add a wire starting on rung 3B and running to the right and down to 4D. Select the endpoint of the first segment. 17. Continue running the wire and select the endpoint on rung 5D.
18. On the Schematic tab, Edit Wires/Wire Numbers panel, Add Rung flyout, click Add Rung. 19. Add ladder rungs at references 6 and 8. (Be sure to click in the area between vertical buses.) Press ESC to end the command.
This completes the exercise.
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Lesson: Point-to-Point Wiring This lesson describes the point-to-point style of schematic design and the specific tools required to create this style of drawing.
Example of point-to-point style wiring between connectors
Objectives After completing this lesson, you will be able to: ■
■ ■
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Describe what point-to-point style drawings or wiring diagrams are and how they differ from ladder style schematics. Describe the tools available that aid in the creation of point-to-point style schematics. Create and edit wiring in point-to-point drawings (wiring diagrams).
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Point-to-Point Style Drawings Different industries use different styles of schematic drawings. To create different styles of drawings, you need to learn the differences between point-to-point and ladder style drawings.
Point-to-Point Style Drawings Defined The point-to-point or wiring diagram style of drawings generally refer to the same style of schematic drawing. In this style of drawing the components are placed on the drawing in a freeform manner, many times to display the simplest wire routing and component connections. Some drawings may use the location of the component in the drawing to simulate the location on the machine. This is in contrast to using a ladder style drawing that uses two buses and rungs running between them. The ladder style of drawing generally restricts placement of the components to the buses and rungs. Either style of drawing can be used to represent just about any electrical device. Which one is used is determined by company and industry standards.
Example of ladder style drawing
Example of point-to-point style drawing
Example of Point-to-Point Style Drawings You are working for a company that uses the wiring diagram or point-to-point style of drawings for its schematics. Start to create the drawing by placing components that are located in the front of the machine on the left side of the drawing, and components that are located near the back of the machine on the right side of the drawing. After the components are placed, you insert individual wires between the components, connecting them together.
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Point-to-Point Wiring Tools Most of the standard AutoCAD Electrical commands fully support the point-to-point style of design. In addition, several commands offer functionality to aid in the creation of point-to-point design schematics. To efficiently create these wiring diagrams, you need to know what these tools are and how they are used. Only some of the tools that are especially helpful for point-to-point style drawing creation are presented here. All tools can be useful for both ladder style and pointto-point drawings.
Collision Avoidance and Wire Routing As you insert wires, the software checks for collisions and automatically routes the wire to avoid overlapping existing wires. The following steps describe how to add a 45-degree wire segment. When you start a wire at a wire connection where a wire exists, a short 45-degree segment is added to the new wire to offset it from the existing wire.
Existing wire
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45-degree wire segment added
When you insert a wire so that it overlaps an existing wire, the new wire is automatically offset to run parallel to the existing wire.
Existing wire
Select new wire points causing overlap
Wire is automatically routed around existing wire
Insert Splice When using the Insert Splice command, the splice symbol is oriented to the wire direction (vertical or horizontal) and connects to the wire. A splice also triggers a wire number change. After the splice is inserted on the wire, the Insert/Edit Component dialog box is displayed so that you can assign catalog numbers and add descriptions and other attribute data.
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Insert Wire When using the Insert Wire command, you select endpoints for each wire segment. The Insert Wire command automatically attempts to create two segments 90 degrees to each other when selecting endpoints. The Continue option is useful. During the Insert Wire process you can enter C and press ENTER at the command line. This ends the first segment at the current corner point and continues drawing the wire from the newly established endpoint.
Insert Wire command indicating two 90degree segments before using the Continue option
With first segment ended, Insert Wire command is continued after using the Continue option
Bend Wire Use this command to bend wires around obstacles in the wire path. This command adds a corner to the existing wire, adding new segments to the existing wire. You are prompted to select the bend points on the two intersecting wires. A corner is added between the selected wires.
Wires before bend
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Result of using Bend Wire command
Multiple Wire Bus The Multiple Wire Bus command has many options, including the ability to connect to a component by windowing the pins on the existing component. In the Multiple Wire Bus dialog box, under Starting At, use the Component (Multiple Wires) option. You are prompted to select pins at the starting connector. With this option selected, you do not need to set the number of wires. This number is determined by the connections you select for wiring during the command. Spacing for the start points of the wires is determined by the connections selected, but the spacing settings are used as the wires traverse the drawing, make turns, and so on. You can start and end connections on more than one component at a time. For example, you can window a series of terminals for a connection to a plug. You can select several pins from one component and create multiple wires that connect to another component. You must use a window for selecting wire connections, but you can select only one pin at a time. The selection order defines the order that the wires connect to the ending connector. The default order at the ending connector can be reversed or flipped by entering F on the command line. Only one symbol orientation can be selected at a time, such as, for example, only horizontal connections or vertical connections. Little green X’s indicate that the available wire connection points are displayed during the selection process. If you zoom, these connection indicators may disappear, but the connection points still exist and can still be selected. If you connect to a device that has multiple connection points, the utility finds the other connection points on the device and automatically connects to them. When connecting to devices with a single connection point, you select each connection point individually.
Multiple Wire Bus command pin selection window
Multiple Wire Bus command connecting wires
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Using Point-to-Point Wiring Tools Although all tools work with different types of design styles, some tools and options are used more frequently in the point-to-point style of design. To create drawings with this style of design, you need to know which options to select and how to use them.
Command Access Insert Splice
Ribbon: Schematic tab > Insert Components panel > Insert Connector flyout > Insert Splice
Menu Bar: Components > Insert Connector > Insert Splice Toolbar: ACE: Main Electrical > Insert Connector > Insert Splice Insert Component icon menu: Miscellaneous > Splice Symbols > Splice Bend Wire
Ribbon: Schematic tab > Edit Wires/Wire Numbers panel > Stretch Wire flyout > Bend Wire
Menu Bar: Wires > Bend Wire Toolbar: ACE: Main Electrical > Insert Wire > Bend Wire
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Multiple Wire Bus
Ribbon: Schematic tab > Insert Wires/Wire Numbers panel > Multiple Wire Bus
Menu Bar: Wires > Multiple Wire Bus Toolbar: ACE: Main Electrical > Insert Wire > Multiple Wire Bus
Procedure: Adding Wire Bends The following steps describe how to add a bend to a wire. 1.
Start the Bend Wire command.
2.
Select two points on an existing wire.
3.
Press ENTER. Corners will be added at the selected points, creating the bend.
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Procedure: Adding Multiple Wires Between Components The following steps describe how to add multiple wires between components.
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1.
Start the Multiple Wire Bus command.
2.
In the Multiple Wire Bus dialog box, do the following: ■ Set the spacing between the horizontal wires. ■ Set the spacing between the vertical wires. ■ Click Component (Multiple Wires). ■ Click OK.
3.
Select the wire connection start points, using a selection window.
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4.
Draw unattached multiple-phase wires by selecting the start points and endpoints, in a similar way as when you use the Add Wire command.
5.
To lock or fix an endpoint but continue with the bus wiring, enter C at the Command prompt.
6.
To reverse or flip the phase sequence of the wires when turning a corner, enter F at the Command prompt. The phase sequences are shown as normal and flipped.
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Exercise: Add Point-to-Point Wiring In this exercise, you add point-to-point style wiring to your drawing. You complete the following steps: ■ Add individual wires and change the wire placements with the Scoot command. ■ Add a splice and an additional wire connection. ■ Use the Multiple Wire Bus command to add wires to individual terminals and a connector.
The completed exercise
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 3: Schematic Wiring. Click Exercise: Add Point-to-Point Wiring.
Insert Individual Wires 1.
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If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
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2.
If Schematic_Wiring_IEC is the active project, skip to step 6. If it is open but not active, in the Project Manager, do the following: ■ Right-click Schematic_Wiring_IEC. ■ Click Activate. ■ Skip to step 6.
3.
In the Project Manager, right-click in an empty area. Click Open Project.
4.
Browse to where you installed the exercise files. Select Schematic_Wiring_IEC.wdp. Click Open. In the Projects list, double-click Schematic_Wiring_IEC to expand the drawing list. Right-click Schematic_Wiring_IEC_18.dwg. Click Open. Zoom in to rungs 4-8.
5.
6. 7.
8.
Add four wires between the connectors and terminals. As you insert the wires, notice the X's on the wire connection points, and how the wire path is automatically changed to avoid collisions with existing wires. On the Schematic tab, Insert Wires/Wire Numbers panel, Wire flyout, click Wire. Do the following: ■ For the wire start, select the bottom side of terminal 62. ■ For the wire end, select -18X1, pin 1. ■ For the wire start, select the bottom side of terminal 53. ■ For the wire end, select -18X2, pin 2. ■ For the wire start, select the bottom side of terminal 63. ■ For the wire end, select -18X1, pin 2. ■ For the wire start, select the right side of terminal 54. ■ For the wire end, select -18X2, pin 1.
9.
On the Schematic tab, Edit Components tab, Scoot flyout, click Scoot. 10. Select the topmost horizontal wire and evenly space it below the lowest wire as shown.
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9.
Add a Splice 1.
On the Schematic tab, Insert Components panel, click Icon Menu.
2.
In the Insert Component dialog box, IEC: Schematic Symbols preview window, click Miscellaneous.
For the wire endpoint, on the PLC, select output terminal 13. Press ENTER.
10. On the Wires palette, click Scoot. 11. Select the horizontal portion of the new splice wire. Scoot it down off the terminal text. 3.
In the IEC: Miscellaneous preview window, click Splice Symbols.
4. 5.
Click Splice. For the insertion point, select the leftmost vertical wire.
Add Multiple Wires 1. 2.
6. 7. 8.
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In the Insert/Edit Component dialog box, click OK. On the Schematic tab, Insert Wires/Wire Numbers panel, Wire flyout, click Wire. For the wire start point, on the splice, select the top wire connection.
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3.
In the Project Manager, right-click Schematic_Wiring_IEC_16. Click Open. On the Schematic tab, Insert Wires/Wire Numbers panel, click Multiple Bus.
In the Multiple Wire Bus dialog box, click Component (Multiple Wires). Click OK.
4.
In the drawing, select the pin connection points 1-6 on the plug side of connector -16X1. Press ENTER.
5.
Drag the cursor to the left and down to display the wires crossing over each other. Before selecting an insertion point, enter F. Press ENTER. This flips the wire crossovers and attachment order. Click the upper wire connection point on input 17 to attach the wires to the PLC. Notice how the spacing of the wires changes to match the component.
6.
7.
This completes the exercise.
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Lesson: Wire Numbers and Leaders This lesson describes different types of wire numbers, how to change wire-number placement and other options, and how to attach wire numbers and wire leaders to wire networks in your drawing set. Using tools provided in the software, you can automatically add wire numbers to every wire network in the project drawing set with a single command. This is more accurate and faster than adding wire numbers manually using AutoCAD commands.
Objectives After completing this lesson, you will be able to: ■
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Identify different types of wire numbers, describe the purpose of leaders, and describe placement options. Set wire number and leader default options for automatic placement. Automatically add wire numbers and wire number leaders to your drawings. Manually add and edit wire number copies and leaders.
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About Wire Numbers and Leaders Wire numbers and leaders are unique labels that identify individual wires and wire networks.
Wire number 06.4 is shown in default location; Wire number 06.5 shown with leader; Wire number 06.6 shown inline
Definition of Wire Numbers Wire numbers are unique labels that identify individual wires and wire networks. A wire number is an attribute attached to an invisible block (a block without graphics). The block is inserted on the wire and the attribute is displayed nearby, depending on the location style chosen. The distance from the wire is determined by the attribute spacing within the wire number block definition. Only one wire number is assigned per wire network. A wire network may have many wire number copies added to it. There are four types of wire numbers: normal, fixed, extra, and terminal/signal. Type
Description
Normal
Updated whenever AutoCAD Electrical executes an automatic wire-numbering command.
Fixed
Locked to current values. They can be edited manually but are not updated during automatic wire-numbering commands.
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Type
Description
Extra
Extra copies of a normal or fixed wire number that are assigned to a given wire network. A wire network has only one normal or fixed wire number, but not both, and may have many extra copies of that wire number inserted at various locations on the network. Extra wire numbers automatically update if the normal or fixed number is changed.
Terminal/signal
For terminals and signal arrows.
Assign different layers and layer colors to each type of wire number in order to identify them easily in your schematic.
Wire numbers cannot be added to a wire network entirely made of wires with the Wire Numbering property set to No. Existing wire numbers can be updated.
Definition of Wire Number Leaders Wire number leaders are graphics that extend from a point on a wire to a remotely located wire number. Wire number leaders indicate where the wire number is attached to the wire.
Examples of wire numbers with leaders
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Leaders are commonly used when the default wire number location is crowded and the wire number collides with other objects in the area.
Arrow indicates wire number leader added due to crowding Leader checks are triggered when you insert wire numbers or recenter them with a move. If the application cannot determine a suitable location, the wire number is left in its original position, and you must adjust it manually.
Wire leaders are placed on the same layer as the associated wire number.
Automatic Leader Options If you set the placement location option to Above or Below the wire you have several options for automatically adding leaders to every new wire number. Use the following options for the automatic placement of leaders. Option
Description
As Required
The application adds leaders to wire numbers when it determines that the wirenumber text is colliding with something. However, it does not determine if the leader itself is colliding with something.
Always
Leaders are added to every new wire number.
Never
Leaders are not added to a wire number even if a collision is detected.
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You can also add leaders to wire number copies.
Wire Number Example While your company standard is to use line referencing for the wire numbers, a customer has requested that the schematic is to have all the wires in the project wired sequentially. You take the standard schematic and run the Automatic Wire Number command. By setting the wire number style to sequential and selecting a projectwide process, you renumber all the wires in the project automatically to the sequential style. Examples of wire numbers applied in a drawing are shown in the following illustration.
Normal, placed above the horizontal wire. Fixed, placed above (to the left of) the wire. This wire number is not changed by any automatic wirenumbering process. Wire Number Copy, placed above (to the left of) the wire. This wire number automatically changes as the corresponding wire number changes. Wire Number Copy, with leader, placed above (to the left) of the wire.
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Process: Adding Wire Numbers and Leaders The following chart shows the overall process for adding wire numbers and leaders.
Setting Wire Number and Leader Defaults You use the Wire Numbers tab in the Project Properties or Drawing Properties dialog boxes to set the default settings for the automatic insertion of wire numbers and leaders. Default options include layer property, wire number placement and offset position, and leader attachment.
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Command Access You can use the following methods to access the Drawing Properties dialog box, Wire Numbers tab. Drawing Properties
Ribbon: Schematic tab > Other Tools panel > Drawing Properties
Menu Bar: Projects > Drawing Properties Toolbar: ACE: Main Electrical 2 You can use the following method to access the Project Properties dialog box, Wire Numbers tab. Project Properties
Project Manager: Right-click the project name. Click Properties.
Right-clicking the project name in the Project Manager is the only way to access Project Properties.
Changing the project properties does not automatically change the drawing properties. You must transfer project properties to drawing properties.
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Wire Number Location You can locate the wire numbers above (or left with a vertical wire), below (or right with a vertical wire), or inline with a wire automatically.
Procedure: Changing the Default Wire Number Location The following steps describe how to change the default location of new wire numbers. 1. 2.
Open the Drawing Properties dialog box. On the Wire Numbers tab, under New Wire Number Placement, select the desired location.
3.
If you select the In-Line option for the placement of the wire numbers, you set the gaps between the end of the wire and the start of the text with the Gap Setup option.
4.
Select the position in relation to the beginning of the wire, Center or Offset. If you select Offset, enter the distance for the offset.
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You cannot change the placement of existing wire numbers automatically. You must erase the existing wire numbers and re-add them to change their placement.
Procedure: Defining Wire Number Layers The following steps describe how to set the layers for the different types of wire numbers. 1. 2.
Open the Drawing Properties dialog box. In the Drawing Properties dialog box, Drawing Format tab, under Layers, click Define.
3.
Enter the desired layer names in the appropriate boxes.
Procedure: Changing Leader Options The following steps describe how to change the default options for the automatic insertion of leaders. 1. 2.
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Open the Drawing Properties dialog box. On the Wire Numbers tab, under New Wire Number Placement, select the desired option from the Leaders list.
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Automatically Adding Wire Numbers and Leaders You can automatically add wire numbers to each wire network in your project drawings. Depending on the default option chosen, wire leaders are also added automatically, either to every wire number or only when space is not available for normal positioning of the wire number.
Command Access Insert Wire Numbers
Ribbon: Schematic tab > Insert Wires/Wire Numbers panel > Wire Numbers
Menu Bar: Wires > Insert Wire Numbers Toolbar: ACE: Main Electrical 2 > Insert Wire Numbers
Wire Numbering Selection Options Use one of the following options for the command: Setting
Description
Project-wide
Sequences tagging through all drawings in the Project drawing list. The Wire Tagging (Project-wide) dialog box is displayed, where you can select additional project settings.
Pick Individual Wires
Prompts you to select individual wires within the current drawing for the automatic wire-numbering process.
Drawing-wide
Processes all wires in the current drawing.
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Procedure: Adding Wire Numbers and Leaders The following steps describe how to add wire numbers and optional leaders to individual wires, an entire drawing, or across an entire project.
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1.
Start the Insert Wire Number command.
2.
In the Wire Tagging dialog box, set the desired wire number options. Preset options from the drawing default settings are displayed. You can override these options during the current operation.
3.
Select the wires to be numbered. You can select from Project-wide, Drawing-wide, or individual wires.
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4.
A wire number is automatically applied to each wire network selected. The default setting is to process wire networks from top to bottom and from left to right.
It is recommended that you keep the Cross-reference Signals and Freshen Database (for Signals) options selected for all operations.
A "???" wire number indicates that an actual number is not assigned to the wire. If the wire is an off-page connector, it may be because wire numbers are only assigned to the current drawing. Wire signal arrows allow a wire network to jump to another location.
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Manually Adding and Editing Wire Copies and Leaders You can manually add wire number copies and wire number leaders. You can also remove leaders from wire numbers, automatically repositioning the wire number back to the default position.
Examples of wire numbers with leaders
Command Access Copy Wire Numbers
Ribbon: Schematic tab > Edit Wires/Wire Numbers panel > Copy Wire Number flyout > Copy Wire Number
Menu Bar: Wires > Copy Wire Number Toolbar: ACE: Main Electrical 2 > Copy Wire Number
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Wire Leaders
Ribbon: Schematic tab > Insert Wire/Wire Numbers panel > Wire Number Leader
Menu Bar: Wires > Wire Number Leader Toolbar: ACE: Main Electrical 2 > Wire Leaders
Procedure: Copying Wire Numbers The following steps describe how to insert wire number copies. 1.
Start the Copy Wire Number command.
2.
Select a location on a wire for the wire number copy.
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The assigned wire number is found on the selected wire network. A wire number copy is inserted at the selected point.
3.
Wire numbers must be assigned to a wire network before adding wire number copies.
Procedure: Adding Wire Number Leaders The following steps describe how to manually add wire number leaders to wire numbers.
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1.
Start the Wire Leader command.
2.
Select a wire number to add a leader.
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3.
Select leader segment points.
4.
Press ENTER to end the leader segments and locate the wire number.
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Procedure: Collapsing Wire Number Leaders The following steps describe how to remove or collapse wire number leaders to reposition a wire number back to its original or default location. 1.
Start the Wire Leader command.
2.
At the Command prompt enter C. Press ENTER.
3.
Select the wire number with the leader you want to remove. The leader is removed and the wire number is relocated back to its original position.
Each leader to be collapsed must be selected individually.
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Exercise: Add Wire Numbers This exercise takes you through the process of inserting wire numbers automatically. ■ First, you add wire numbers throughout the drawing. ■ Then, as you enter a relay contact symbol, you see how wire numbers are updated automatically when components change the wire networks. You also add wire number copies. ■ Finally, you add wire numbers projectwide, sequencing through the entire project drawing list.
Add Wire Numbers Drawingwide 1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
2.
If Schematic_Wiring_IEC is the active project, skip to step 6. If it is open but not active, in the Project Manager, do the following: ■ Right-click Schematic_Wiring_IEC. ■ Click Activate. ■ Skip to step 6. In the Project Manager, right-click in an empty area. Click Open Project.
3.
The completed exercise 4.
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 3: Schematic Wiring. Click Exercise: Add Wire Numbers.
5. 6.
Browse to where you installed the exercise files. Select Schematic_Wiring_IEC.wdp. Click Open. Double-click Schematic_Wiring_IEC to expand the drawing list. Double-click Schematic_Wiring_IEC_06.dwg to open the file.
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7.
Zoom in to rungs 4-6.
8.
On the Schematic tab, Insert Wires/Wire Numbers panel, click Wire Numbers.
9.
In the Sheet 06 - Wire Tagging dialog box, use all of the default settings. Click Drawing-wide. Notice that AutoCAD Electrical adds a single wire number to each of the wire networks in the drawing.
Update Wire Numbers and Add Copies
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1.
On the Schematic tab, Insert Components panel, click Icon Menu.
2.
In the Insert Component dialog box, select Relays/Contacts.
3.
In the Relays and Contacts dialog box, select Relay NO Contact.
4.
Select an insertion point on rung 4 between the -06S4 limit switch and the -X1-A terminal.
6. 7.
5.
In the Insert/Edit Child Component dialog box, click OK to complete the insertion of the child contact. Notice that the new wire number is automatically added.
On the Schematic tab, Edit Wires/Wire Numbers panel, click Copy Wire Number. Select insertion points on rungs, 4, 5, and 6 just to the bottom of the -X1-A terminals. Notice that different colors are used for the extra wire numbers.
Add Wire Numbers Projectwide 1.
On the Schematic tab, Insert Wires/Wire Numbers panel, click Wire Numbers.
2.
In the Wire Tagging dialog box, click ProjectWide. In the Wire Tagging (Project-wide) dialog box, click OK to accept all defaults. In the Select Drawings to Process dialog box, click Do All. Click OK.
3. 4.
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5.
If requested, in the Qsave dialog box, click OK. Notice that AutoCAD Electrical processes each drawing that is selected and automatically adds wire numbers to all wire networks and cross references.
This completes the exercise.
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Lesson: Source and Destination Signals This lesson describes how to insert and link source and destination signals in your schematic drawings. AutoCAD Electrical fully supports wire number signals, which can carry a wire number from one location to another, from source to destination. A wire number can jump from one column to the next, from one drawing to the next, or skip around the project drawing set.
Objectives After completing this lesson, you will be able to: ■ ■
Describe source and destination signals and the functionality they provide. Set up and insert source signals, linking them to destination signals.
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About Source and Destination Signals Understanding what source and destination signals are and how they work makes it easier for you to know when and where to place them in your drawings. This knowledge also helps when troubleshooting problems or when working with the drawings without the AutoCAD Electrical software available.
Definition of Source and Destination Signals When a wire is forced to traverse to a remote location, either on the same drawing or separate drawings, you end the wire in the first location, and start a new wire in the remote location. Source and destination signals are blocks with specifically named attributes that you place on the two ends of the wires. You enter matching code values in mating signal blocks. This effectively connects the two separate wires into a single wire network. Source signals provide the beginning or parent link between the two wires. A destination signal is the ending or child link. Properties from the source wire such as wire number and wire type are transferred to the destination wire. Wire numbering will not span across source or destination arrows that include wires with the No Wire Numbering property set to No.
Signal Arrow Examples The illustration shows examples of source and destination signals.
Source Signal Arrow Destination Signal Arrow
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Adding Source and Destination Signals Schematic diagrams are typically spread across multiple drawings. To link wires into a single network throughout the drawing set, you need to understand the processes and options used to add source and destination signals.
Command Access Source Signal Arrow
Ribbon: Schematic tab > Insert Wires/Wire Numbers panel > Source Arrow flyout > Source Arrow
Menu Bar: Wires > Signal References > Source Signal Arrow Toolbar: ACE: Main Electrical 2 > Source Destination Signals > Source Signal Arrow
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Destination Signal Arrow
Ribbon: Schematic tab > Insert Wires/Wire Numbers panel > Source Arrow flyout > Destination Arrow
Menu Bar: Wires > Signal References > Destination Signal Arrow Toolbar: ACE: Main Electrical 2 > Source Destination Signals > Destination Signal Arrow
Procedure: Inserting Source Signals The following steps describe how to insert source signals and establish the links to destination signals. Start the Source Signal Arrow command.
1.
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2.
Select the wire end for the source signal. Click near the end of the wire segment. (You do not have to be exactly on the endpoint.)
3.
In the Signal - Source Code dialog box, for Code, enter or select a value.
You can use any of the tools provided to search for and select an existing code, or to manually enter a new code.
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Source Options The following table describes the tools available in the Signal - Source Code dialog box for selecting or entering code values and for changing signal display options.
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Setting
Description
Code
Specifies the source signal code. Enter a unique number, word, or phrase (32character maximum). AutoCAD Electrical uses this code to link the source wire network to any or all destination wire networks.
Use
Enters the displayed value as the code. This is useful for using the next number in a sequence.
Description
Describes the source signal (optional).
Defaults
Opens an ASCII text file where you can choose standard descriptions.
Recent
Choose from recently inserted codes. The list is saved in the current session of AutoCAD Electrical only.
Drawing
Choose from all source and destination codes used in the current drawing.
Project
Choose from all source and destination codes used in the selected project.
Search
Prompts you to select a wire network, and then searches for a destination signal on the selected wire network. If a destination signal is found, AutoCAD Electrical repeats its signal code for the new source signal.
Pick
Selects an existing wire network. AutoCAD Electrical searches for an existing destination signal and uses its signal code on the new source signal.
Signal Arrow Style
Specifies the signal style to use for the source signal. There are currently four styles to choose from. The remaining five are for custom styles.
OK + Update Destination
Inserts the source signal and updates the destination signal with this source signal information.
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Procedure: Inserting Destination Signals The following steps describe how to insert destination signals and establish links to source signals. 1.
Start the Destination Signal Arrow command.
2.
Select the wire end for the destination signal. Click near the end of the wire segment. (You do not have to be exactly on the endpoint.)
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In the Insert Destination Code dialog box, for Code, enter or select a value.
3.
You can use any of the tools provided to search for and select an existing code, or to manually enter a new code.
Destination Options The following table describes the tools available in the Signal - Destination Code dialog box for selecting or entering code values and for changing signal display options.
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Setting
Description
Code
Specifies the destination signal code. Enter a unique number, word, or phrase (32-character maximum). AutoCAD Electrical uses this code to link the destination wire network to any or all source wire networks. Enter the code for the source signal arrow to make the link to it.
Description
Describes the destination signal (optional).
Defaults
Opens an ASCII text file where you can choose standard descriptions.
Recent
Choose from recently inserted codes. The list is saved in the current session of AutoCAD Electrical only.
Drawing
Choose from all source and destination codes used in the current drawing.
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Setting
Description
Project
Choose from all source and destination codes used in the selected project.
Pick
Selects an existing wire network. AutoCAD Electrical searches for an existing source signal and uses its signal code for use on the new destination signal.
Signal Arrow Style
Specifies the style to use for the destination signal. There are currently four styles to choose from. The remaining five are for custom styles.
OK + Update Source
Inserts the destination signal and updates the source signal with this destination signal information.
Guidelines Follow these guidelines when working with source and destination signals. ■ You can start with either a source or a destination signal and link the signals together when you insert the mating component. ■ A source signal can be linked to multiple destination signals, but a destination signal can be linked to only one source signal. ■ To easily maintain and report source and destination signals in a project, you can use the Component Cross Reference and Projectwide Update/Retag commands.
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Exercise: Add Source and Destination Signal Arrows In this exercise, you create source and destination signals in your schematic. You complete the following: ■ Review the cross references on an existing source signal. ■ Add a contact and wiring for a motor starter. ■ Add a destination signal arrow to one side of the motor contact coming from a power source on a second drawing. ■ Add a source arrow to the other side of the motor contact, sending the power to a third drawing. ■ Complete the source/destination network, adding a light component and a destination signal arrow coming from the motor contact source signal you created.
The completed exercise
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Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 3: Schematic Wiring. Click Exercise: Add Source and Destination Signal Arrows.
6. 7.
Right-click Schematic_Wiring_IEC_05.dwg. Click Open. Zoom in to rung 8. Notice that the source signal arrow on rung 8/ C is sending signals to rungs 02-4/B and 02-6/ B.
Review the Source Signal 1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
2.
If Schematic_Wiring_IEC is the active project, skip to step 6. If it is open but not active, in the Project Manager, do the following: ■ Right-click Schematic_Wiring_IEC. ■ Click Activate. ■ Skip to step 6. In the Project Manager, right-click in an empty area. Click Open Project.
3.
4.
5.
Add a Contact and Wire 1.
On the Quick Access toolbar, click Previous Project Drawing to open the previous drawing, Schematic_Wiring_IEC_04.dwg, in the Projects list.
2.
Click Previous Drawing again to open Schematic_Wiring_IEC_03.dwg. Click Previous Drawing again to open Schematic_Wiring_IEC_02.dwg.
Browse to where you installed the exercise files. Select Schematic_Wiring_IEC.wdp. Click Open. In the Projects list, double-click Schematic_Wiring_IEC to expand the drawing list.
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3.
Zoom in to rungs 5-8/D to create a source/ destination circuit identical to the one on rung 6.
4.
On the Schematic tab, Insert Components panel, click Icon Menu.
5.
10. In the Insert/Edit Child Component dialog box, click OK.
11. On the Schematic tab, Insert Components panel, click Link Components with Dashed Line.
In the Insert Component: IEC Schematic Symbols dialog box, click Relays/Contacts. 12. Select the rightmost -08K1 contact on rung 7 as the component to link from. 13. Select the -08K1 contact you inserted on rung 8 as the component to link to. Press ENTER.
6.
In the IEC: Relays and Contacts dialog box, click Relay NO Contact.
7.
Select the insertion point for the contact on rung 8, directly to the right of the -08K1 contactor. (The contact is placed in empty space, that is, not on an existing rung.) In the Insert/Edit Child Component dialog box, click Parent/Sibling. In the drawing, select the -08K1 contact component as the sibling.
8. 9.
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14. On the Home tab, Layers panel, change the current layer to RD_1_mm^2. (This is an AutoCAD Electrical wiring layer.)
15. On the Schematic tab, Insert Wires/Wire Numbers panel, click Wire to insert a new wire. 16. Select the wire start point directly below the relay contact at approximately the C location. Select the wire endpoint above the relay contact at approximately the B reference location. Press ENTER. Note: Be careful to draw a straight wire without any turns. The wire is automatically connected to both sides of the contact.
2. 3. 4.
In the drawing, select near the upper end on the added wire. In the Insert Destination Code dialog box, click Project. Notice that AutoCAD Electrical transfers the signal code information to the Insert Destination Code dialog box. In the Signal Codes--Project-wide Source dialog box, select MOTORS CONNECTED, Reference 8/ C. Click OK.
Add a Destination Signal Arrow 1.
On the Schematic tab, Insert Wires/Wire Numbers panel, Source Arrow flyout, click Destination Arrow.
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5.
In the Insert Destination Code dialog box, click OK + Update Source.
3.
4.
In the Signal - Source Code dialog box, enter -02M3 AUX CONTACT as the code. Click OK.
AutoCAD Electrical places the matching destination on Schematic_Wiring_IEC_06.dwg and you cannot select it at this time. In the Source/Destination Signal Arrows dialog box, click No.
Add a Source Signal Arrow 1.
On the Schematic tab, Insert Wires/Wire Numbers panel, Source Arrow flyout, click Source Arrow.
5.
2.
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In the drawing, select near the lower end on the added wire.
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On the Quick Access toolbar, click Next Project Drawing as required to open Schematic_Wiring_IEC_05.dwg.
6.
Zoom in to rung 8. Notice the reference added to rung 02-8/B.
3. 4.
On the Schematic tab, Insert Wires/Wire Number panel, click Wire. Draw the wire starting on the lower horizontal bus at rung 7 and ending about one quarter of the way across the ladder. Note: Be careful to draw a straight wire without any turns.
5.
On the Schematic tab, Edit Components panel, click Copy Component.
6. 7.
Select -06H1 located on rung 2. Insert the new light on the added wire directly to the right of -06K4.
Complete the Network 1.
2.
On the Quick Access toolbar, click Next Project Drawing to open Schematic_Wiring_IEC_06.dwg. Zoom in to the lower area on rung 7.
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8.
In the Insert/Edit Component dialog box, do the following: ■ Under Description, for Line 1, enter INDEXING MOTOR. ■ For Line 2, enter RUNNING. ■ Click OK.
12. In the Signal Source/Destination Codes-Recent dialog box, select -02M3 AUX CONTACT. Click OK.
13. In the Insert Destination Code dialog box, click OK + Update Source. 14. In the Change Destination Wire Layer? dialog box, click Yes. Notice that when you resequence and retag the project, AutoCAD Electrical transfers the wire number from Schematic_Wiring_IEC_02.dwg to Schematic_Wiring_IEC_06.dwg and replaces the question marks.
9.
On the Schematic tab, Insert Wires/Wire Numbers panel, Source Arrow flyout, click Destination Arrow.
This completes the exercise. 10. Click near the upper end of the added wire on rung 7. 11. In the Insert Destination Code dialog box, click Recent.
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Chapter Summary In this chapter you learned about many of the tools that are provided to increase the productivity of your standard schematic creation tasks. Tools such as Automatic Wire Numbers not only automate the task but also add intelligence and accuracy to your drawings. Tools such as the Source and Destination Signals link components throughout your project and transfer intelligence between the drawings.
Chapter Summary
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Chapter
4 Schematic Components This chapter describes how to use schematic components in your drawings. Several methods are available to insert schematic components. When starting with an empty project, you use the Icon Menu system to select and insert the component symbols. When panel or schematic drawings exist, you can extract component lists to aid the insertion process. You can also use an external component list as an insertion tool. Some tools, such as the Circuit tools and the Multiple Wire Bus tool, provide intelligence and automation to otherwise repetitive tasks.
Objectives After completing this chapter, you will be able to: ■
■ ■ ■ ■ ■
Insert and annotate schematic symbols, add catalog and description data, and create parent-child relationships. Select schematic components for insertion from a panel component list extracted from the project. Describe and insert parametric connectors in your schematic drawings. Describe and create multiple level terminals and terminal jumpers. Create and edit electrical circuits, including moving, copying, and saving them in the icon menu. Insert multiple-phase wires and components into your drawings.
Chapter Overview
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Lesson: Inserting Schematic Symbols This lesson describes how to use the Insert Component icon menu system to select and insert schematic symbols. You learn how to assign information such as manufacturer and part number, location, and descriptions to the inserted components. You also establish the relationship between a parent component and its contacts, or children. Inserting and annotating components is the basic procedure for building an intelligent schematic. Data from the annotated schematic components is reused several times in places such as panel design and reports.
Objectives After completing this lesson, you will be able to: ■ ■
■ ■
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Describe the basic process of selecting and inserting schematic symbols. Describe the primary function and multiple options available in the Insert/Edit Component dialog box. Use the catalog lookup function to display and select catalog numbers for a component type. Establish a link between parent and child components.
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Schematic Symbol Insertion Process Inserting schematic symbols is one of the most basic and frequent tasks in creating an electrical drawing. Most of the information in a schematic is given through the insertion of graphic symbols. You need to understand the basic process and options used to insert symbols.
Insert Component Process The following diagram describes the typical process for inserting components.
Command Access Insert Component
Ribbon: Schematic tab > Insert Components panel > Icon Menu
Menu Bar: Components > Insert Component Toolbar: ACE: Main Electrical > Insert Component Shortcut Menu: Right-click over a wire; click Insert Component > Insert Component
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Inserting Schematic Symbols with Icon Menus Icon menus are the primary user interface you use to select and insert symbols. You use controls in the Insert Component icon menu to manage the insertion of symbols in your schematic drawings. When you are at the main or first page in the menu, entries in the tree view on the left correspond to the icons in the icon symbol menu in the center. For example, the first entry in the list, Push Buttons, corresponds to the icon of a push button shown under Schematic Symbols, and so on. Clicking Push Buttons in either the tree view or under Schematic Symbols highlights Push Buttons in the tree view and displays the Push Buttons icon submenu.
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Menu Controls The following controls are available in the Insert Component dialog box.
Tree view menu - Enables you to maneuver through symbol display pages. Selecting an entry here displays the matching icon page in the Symbol Menu area. Symbol menu - Displays icons of schematic symbols. This is where you select the symbol for insertion. Recently Used - Displays the symbols you most recently used during this session. You can change the number of icons displayed by entering a value in the Display box. Menu - Toggles the display of the tree view. If the tree view is closed, click this button to redisplay it. Up One Level - Displays the previous icon menu page. It is similar to the Back button used in Windows. This button is especially important for maneuvering through symbol pages when the tree view icon menu is not displayed. Views - Displays an option menu for changing the display of the icon menu page. You can select from the following: ■ Icons with Text (default). ■ Icons Only. ■ List View (text with very small icons). Vertical/Horizontal - Toggles the preview orientation of the symbol during insertion. This button depends on the ladder orientation setting in the Drawing Properties dialog box, as follows: ■ If the ladder orientation is horizontal, this button is displayed as Vertical. ■ If the ladder orientation is vertical, this button is displayed as Horizontal.
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No Edit Dialog - Inserts the symbol without displaying the Insert/Edit Component dialog box. The component tag is inserted, but no other component information. Scale Schematic/Panel - Changes the scale factor of the symbols as they are inserted. Type It and Browse - Enables you to enter the name of the symbol in the box or browse to the file location if the component to be inserted is not in the icon menu system but exists as a file.
Symbol Insertion When you select a symbol for insertion, the symbol appears on the cursor as a reference while you select an insertion point. When you have vertically oriented ladders with horizontal rungs, the horizontal symbol appears on the cursor by default. If you choose a vertical wire, the symbol is automatically switched to a vertically oriented symbol for insertion. The opposite is true for horizontally oriented ladders with vertical rungs. A vertical symbol appears on the cursor and is automatically switched if a horizontal wire is selected.
Vertical symbol preview with vertical wire Upon insertion, the schematic symbols break the underlying ladder rung or wire and reconnect. This works if you select directly on the wire or within the trap distance. After the symbol is inserted, you can complete the annotation and insertion of the component in the Insert/Edit Component dialog box.
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If you cancel the insertion process at any time, the symbol is not inserted and the underlying ladder rung or wire is rejoined. This is true even if the symbol has been placed on the wire and the Insert/Edit Component dialog box is displayed.
Left image is during insertion with inserted symbol and broken wire; Right image is with rejoined wire after cancel
About the Insert/Edit Component Dialog Box The Insert/Edit Component dialog box is one of the most important dialog boxes used in your schematic designs. This dialog box is where you enter the component information such as catalog numbers, tag name, and descriptions, and so on, into the component attributes. This information drives almost all the intelligence and automation available in the software. It is important that you understand the options and choices that are available for creating the most intelligent drawings and projects possible.
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Command Access Insert/Edit Component: Insert
Ribbon: Schematic tab > Insert Components panel > Icon Menu
Menu Bar: Components > Insert Component Toolbar: ACE: Main Electrical > Insert Component Shortcut menu: Right-click over a wire; click Insert Component > Insert Component Insert/Edit Component: Edit
Ribbon: Schematic tab > Edit Components panel > Edit flyout > Edit
Menu Bar: Components > Edit Component Toolbar: ACE: Main Electrical > Edit Component Shortcut menu: Right-click over a component; click Edit Component
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Insert/Edit Component Dialog Box You use the Insert/Edit Component dialog box for both inserting and editing component attribute values. During the component insertion process, the dialog box is automatically displayed after you select the component insertion point. It is also displayed when you select the Edit Component command. The boxes in the Insert/Edit Component dialog box correspond to attributes found in the component. You can either enter information directly in the boxes or use the labeled buttons to look up and enter the information automatically. You can use any AutoCAD® attribute editing tool to edit symbol attributes. However, the Insert/Edit Component dialog box also provides tools to help fill the attributes with accurate information.
Insert/Edit Component dialog box for selector switches
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Component Tag Component tags, such as -06S7, are based on the current drawing configuration settings and are automatically generated during the component insertion process. To define the component tag manually, you edit the existing tag or enter another tag in the box. Select Fixed if you do not want this tag to be updated during automatic retag operations. Other options in this window enable you to search for existing tag entries.
Each component must have a unique tag or identifier.
The tag format is customizable. You set component tag and suffix formatting on the Components tab in the Drawing Properties dialog box.
When a component tag is fixed, AutoCAD® Electrical changes the TAG attribute in two ways: ■ Moves it to the Fixed Tags layer as defined in the Drawing Properties, Define Layers dialog box. ■ Appends an F to it; for example, TAG1 becomes TAG1F.
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Description You can enter up to three lines of description attribute text. If a description line is unavailable, the component you are editing does not carry that attribute.
The following describes the options available under Description. Option
Description
Drawing
Displays a list of descriptions found in the current drawing so you can choose similar descriptions to insert and edit.
Project
Displays a list of descriptions found in the project so you can choose similar descriptions to insert and edit.
Defaults
Opens an ASCII text file from which you can select standard descriptions.
Pick
Prompts you to choose a similar description from a component to edit on the current drawing.
AutoCAD Electrical has an option (on by default), which automatically capitalizes entries in the description lines. To change the setting, right-click the project name in the Project Manager to open the Project Properties dialog box. The option is located on the Components tab, under Component Options.
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Cross-Reference AutoCAD Electrical usually enters cross-reference information automatically as components are inserted and linked together. Under Cross-Reference, you can manually edit the cross-reference information on a component.
The following options are available under Cross-Reference.
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Option
Description
Component Override
Changes the cross-reference formatting for the component, thereby overriding the settings in the Drawing Properties dialog box.
Reference NO and Reference NC
Contains the cross-reference information for the child contacts of the symbol. Normally, these values are updated automatically as child contacts are inserted, but you can also edit the information manually.
NO/NC Setup
Creates pin list assignments for the component being edited. Normally, these values are copied onto the parent component automatically from the pin list database information (if available) when a matching catalog number is selected. You can also edit the information manually.
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Catalog Data Sample catalog information is included with the default installation. The information is stored in tables in a Microsoft Access database file (MDB) populated with sample vendor data. Expand and modify these tables to meet your specific bill-of-materials needs. You can use the tools provided with the software or a database program that can read and write the MDB file format. You are not required to have Microsoft Access or any other database software installed when you access the database file.
The following options are available under Catalog Data. Option
Description
Lookup
Opens the component's catalog database, from which you can manually enter or select the manufacturer or catalog values. Search the database for a specific catalog item to assign to the selected component.
Drawing
Lists the part numbers used for similar components in the current drawing.
Project
Lists the part numbers used for similar components in the active project, a different project, or in an external list file.
Multiple Catalog
Inserts or edits extra catalog part numbers to the selected component. You can add up to ten part numbers to any component. These multiple bill-of-material part numbers appear as subassembly part numbers to the main catalog part number in the various bill-of-material and component reports.
Catalog Check
Displays what the selected item looks like in a bill-of-material template.
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Ratings Under Ratings, you can specify values for each ratings attribute. You can enter up to 12 ratings attributes on a component. Select Defaults to display a list of default values.
If Ratings is unavailable, the component you are editing does not carry rating attributes.
Show All Ratings Selecting Show All Ratings displays a separate dialog box specifically for editing the rating values. Use the Defaults option to open an external ASCII text file, which is named Wd_Ratings.wdr by default. You can edit this file to list the values that you use most often.
In the View/Edit Rating Values dialog box, the box descriptions are a combination of the attribute name, and the attribute prompt value. For example, Rating 1 is the attribute name, and Motor Size is the value of the attribute prompt.
Because the tools for handling Ratings attributes are built into the interface, you can frequently use these attributes for the unusual or miscellaneous values you want to store with a component.
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Installation and Location Codes Enter the installation and location codes by entering a value in the boxes or by clicking Drawing or Project.
Drawing and Project searches are available in several areas of the Insert/Edit Component dialog box. They have the same general purpose in all instances. Option
Description
Drawing
Lists the values used for similar components only in the current drawing.
Project
Lists the values used for similar components in the following: ■ Any drawing in the active project. ■ Any drawing in a different project. ■ An external ASCII list file.
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Pins Assigns pin numbers to the pin or terminal attributes that are physically located on the component. The GREATER THAN (>) and LESS THAN (<) keys increase and decrease the value displayed in the box, respectively. Pins 1 and 2 are always displayed. You use the third box (X) for entering all other pin numbers. You use the arrow keys to move between the pins. If pin list information is associated with a catalog number in the pin list database, the appropriate pin numbers are automatically filled in when the catalog number is selected.
The terms Pin and Terminal are used interchangeably when discussing the wire connection points on components.
Switch Positions Under Switch Positions, you can enter descriptions for switches with multiple positions. Positions 1 and 2 are always displayed. You can use the third box for entering all other position descriptions. You use the arrow keys to move between the positions. In the State box, you can enter the normal state of the switch. A common style is to enter the letter O to indicate normally open and the letter X to indicate normally closed, such as, OX.
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Selecting Existing Catalog Part Numbers You can manually enter part numbers and manufacturer information in the Insert/Edit Component dialog box, but this can be a tedious and time-consuming task that leaves you vulnerable to typographical errors. To improve this process, you need to learn how to use the Catalog Data: Lookup function to search the catalog database for existing catalog numbers.
Tool Access In the Insert/Edit Component dialog box, under Catalog Data, click Lookup to select an existing part number from the part catalog.
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Parts Catalog Dialog Box When you click Lookup, the Parts Catalog dialog box is displayed and you can access the database table that matches the family type of the inserted component. In this dialog box, you can search the database for a specific catalog item that you want to assign to the selected component.
Parts Catalog dialog box for the light family
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Database Filters Database queries, or filters, appear in three lists across the top of the Parts Catalog dialog box. Query 1 is Manufacturer, Query 2 is Type, and Query 3 is Style. The Query 2 and 3 headings may vary depending on the component type you have selected. For example, when you select a motor component, the Query 3 heading is HP; when you select a light, the Query 3 heading is Voltage. Each time that you make a selection from one of the query lists, the catalog selection is filtered. As you make selections in the lists, the list of appropriate catalog numbers narrows.
Parts Catalog dialog box with all three filter lists displayed Main window of the Parts Catalog dialog box displays the identified matches
Selecting the All check box for a column removes the filter and displays all entries for that field from the catalog database. For example, the Manufacturer list can display all manufacturers for all part numbers that have been previously entered in the database table for the selected component family.
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Parts Catalog Lookup Options The lower portion of the Parts Catalog dialog box has options for prefiltering, displaying, and editing the catalog database as well as the database and table selections.
Sorts the catalog entries by catalog number. By default the entries are shown in the order that they appear in the catalog database. Filters the symbol names using the WDBLKNAM value. If you select this option, records that contain a WDBLKNAM value that does not match the symbol block name do not appear in the catalog list. If you do not select this option, the query does not check the WDBLKNAM field and returns all catalog information matching the other selected sort criteria. The first character of the block name, called the orientation character, is removed. For example, a red light has a block name of HLT1R. If you select the Symbol Name Filtering option, only catalog entries with the WDBLKNAM of LT1R are displayed. If you set the option to OFF, all catalog entries in the LT table are displayed. Opens the Add Catalog Record dialog box and provides a template to add a new catalog item to the catalog database file. If you select a catalog number, the template is prefilled with values from the selected catalog number. Enables you to select the catalog record to edit from the Parts Catalog dialog box, and make any changes in the Edit Catalog Record dialog box.
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Creating Parent-Child Relationships The basic process of selecting and inserting a child symbol, such as a switch or relay contact, is similar to the process used to insert a parent symbol. The process changes when you link the child to a parent component and enter the component attribute information. To establish the parent and child relationship, you need to understand the difference between the two insertion processes and how to establish the link between the parent and the child components.
Parent Coil
Child Coil Contacts
Command Access Insert/Edit Component: Insert
Ribbon: Schematic tab > Insert Components panel > Icon Menu
Menu Bar: Components > Insert Component Toolbar: ACE: Main Electrical > Insert Component Shortcut menu: Right-click over a wire; click Insert Component > Insert Component
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Insert/Edit Component: Edit
Ribbon: Schematic tab > Edit Components panel > Edit flyout > Edit
Menu Bar: Components > Edit Component Toolbar: ACE: Main Electrical > Edit Component Shortcut menu: Right-click over a component; click Edit Component
If a child component is selected for insertion or editing, the Insert/Edit Child Component dialog box is automatically displayed instead of the standard Insert/Edit Component dialog box.
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Insert/Edit Child Component Dialog Box Except for the Component Tag area, the Insert/Edit Child Component dialog box is similar to the parent Insert/Edit Component dialog box.
The Catalog Data area is not displayed in this dialog box. Catalog data is stored in the parent component only.
Parent-Child Link To establish a parent-child relationship, the same tag value is used for both the parent and the child component. Differently named tag attributes on the parent and child components identify the symbols as a parent or a child. Under Component Tag, you find options that help you enter the matching tag value so that you can link the child component to its parent.
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Use the following options under Component Tag to link the parent and child components. Option
Description
Tag
Manually enters the tag name of the parent component to be linked.
Drawing
Selects the parent symbol from a list of all parent symbols in the drawing. Only those parents of the same family type are displayed.
Project
Selects the parent symbol from a list of all parent symbols of the same family type in the project. Only those parents of the same family type are displayed.
Parent / Sibling
Selects the parent symbol or a sibling (child component) in the current drawing.
When the parent component is selected the tag value from the parent is copied to the child tag value linking the two together. Other attribute values from the parent symbol are also copied in the Insert/Edit Child Component dialog box. You can also edit the child attributes independently of the parent attributes.
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Exercise: Insert a Relay Coil and Child Contact In this exercise you insert a limit switch, relay coil, and contact using the schematic symbol icon menu. You add information to the symbols using various copying and searching techniques to take advantage of existing data. You complete the following: ■ Insert a limit switch, copying description lines, and searching the project for catalog information. ■ Insert a relay coil, searching the drawing for catalog information. ■ Insert a relay contact and link the child contact to the parent coil.
The completed exercise
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 4: Schematic Components. Click Exercise: Insert a Relay Coil and Child Contact.
1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
Insert a Limit Switch
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2.
3.
If Schematic_Components_IEC is the active project, skip to step 6. If it is open but not active, in the Project Manager, do the following: ■ Right-click Schematic_Components_IEC. ■ Click Activate. ■ Skip to step 6. In the Project Manager, right-click in an empty area. Click Open Project.
8.
On the Schematic tab, Insert Components panel, click Icon Menu.
9.
In the Insert Component: IEC Schematic Symbols dialog box, click Limit Switches.
10. In the IEC: Limit Switches dialog box, click Limit Switch, NO.
11. Select the insertion point on rung 6/A, directly to the right of -06S5. 4.
5.
6.
7.
Browse to where you installed the exercise files. Select Schematic_Components_IEC.wdp. Click Open. In the Projects list, double-click Schematic_Components_IEC to expand the drawing list. Right-click Schematic_Components_IEC_06.dwg. Click Open. Zoom in to rungs 5/A -6/A on the upper area of the ladder. 12. In the Insert/Edit Component dialog box, under Description, click Pick.
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13. Select -06S5. The description lines from the selected component are copied to the matching description lines in the Insert/Edit Component dialog box.
14. Change the first description line to RAM 03. 15. Under Catalog Data, click Drawing. 16. In the HLS11/VLS11 Catalog Values dialog box, select the MS MS-50L entry. Click OK.
Insert Relay Coil 1. 2.
In the Project Manager, right-click Schematic_Components_IEC_18. Click Open. Zoom in to rungs 6/D.
17. The catalog values from the existing components are copied to the Insert/Edit Component dialog box. Click OK.
3.
On the Schematic tab, Insert Components panel, click Icon Menu.
4.
In the Insert Component: IEC Schematic Symbols dialog box, click Relays/Contacts.
The insertion of -06S1 limit switch is completed.
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5.
In the IEC: Relays and Contacts dialog box, select Relay Coil.
13. In the Insert/Edit Component dialog box, click OK. This completes the insertion of the -18K1 Audible Alarm Relay coil.
6.
Select the insertion point on rung 6/D, directly to the left of -18K2.
Insert Relay Child Contact 1. 2.
7.
In the Insert/Edit Component dialog box, under Description, click Pick. 8. On rung 6/A, select the PLC output description, Audible Alarm Relay. 9. Under Catalog Data, click Project. 10. In the Find: Catalog Assignments dialog box, click Active Project. Click OK. 11. If prompted, in the Qsave dialog box, click OK. 12. In the HCR1/VCR1 Catalog Values dialog box, select the AB, 700-P400A1 entry. Click OK.
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3.
In the Project Manager, right-click Schematic_Components_IEC_08. Click Open. Zoom in to rung 5/A.
On the Schematic palette, click Insert Component. On the Schematic tab, Insert Components panel, click Icon Menu.
4.
In the Insert Component: IEC Schematic Symbols dialog box, click Relays/Contacts.
5.
In the IEC: Relays and Contacts dialog box, select Relay NO Contact.
6.
Select the insertion point on rung 5/A, directly to the left of -18K2.
8.
In the Complete Project List for Family ="CR" dialog box, select the 18K1, Audible Alarm Relay entry. Click OK.
9.
In the Insert/Edit Child Component dialog box, click OK.
The child contact is linked to the parent coil, and data is copied from the parent to the child, including descriptions, pin numbers, and crossreference information. This completes the exercise.
7.
In the Insert/Edit Child Component dialog box, under Component Tag, click Project.
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Lesson: Inserting Schematic Components from Lesson: Lists This lesson describes how to create and use component lists to help you with your schematic drawings. You insert these listed components into your schematic drawings, linking the components between the schematic and panel drawings. Some workflows require a preliminary panel layout design to determine panel size requirements and to aid in ordering long lead time items early in the design process. Because both schematic-topanel and panel-to-schematic workflows are supported, you can start your design with the panel or schematic drawings. Use extracted component lists from either drawing set to add in components to the other. Virtually any workflow pattern is supported.
Objectives After completing this lesson, you will be able to: ■ ■
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Describe the uses for and differences between equipment, panel, and catalog lists. Insert components into a schematic drawing using equipment, panel, and catalog lists for component selection.
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About Equipment, Panel, and Catalog Lists At times you may want to limit your choices for inserting components. You may just want to use a list of components you have inserted from another project, or you may have customers who want only preapproved components used when you design and build their panels. To accomplish these tasks, you need to understand what lists are available and how to create them.
Definition of Equipment and Panel Lists An equipment list is a list of electrical components saved as an external file. You can use the project database, or you can create equipment lists by saving a report to an external file. The Insert Component (Equipment List) utility organizes the selected equipment list and presents it in a pick list. The Insert Component (Panel List) utility creates a list of all panel components by extracting the component information directly from the selected panel layout drawings. When using either an equipment list or a panel list, you select an item from the pick list and the utility uses the catalog number to search the schematic_lookup.mdb file for a matching schematic symbol. If a match is found, the symbol appears on your cursor and you are prompted for an insertion point in your drawing. If a match is not found you are prompted to select a symbol for insertion. The common tag name identifier automatically establishes a link between the schematic and panel components. Using this link, bidirectional updating is supported between schematic components and the associated footprint blocks. If you change a component, options are provided to update any related components in either the corresponding schematic or panel drawings.
Examples of equipment list files and file types
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When selecting an equipment list, you can open a comma-delimited file, Microsoft Excel spreadsheet, or Microsoft Access database file for input. The Insert Component (Equipment List) utility does not account for quantity of components or duplicate insertions.
You can find the built-in editor for the schematic_lookup.mdb file under Miscellaneous Panel Tools. This process is the same as when you insert panel footprints from lists. For more information see Electrical Help Topics. Enter schematic_lookup.mdb in the Search tab.
Definition of Catalog List A catalog list is an external database file that contains a predefined list of schematic and panel symbols. You can select either schematic or panel components from the list, but only one type is displayed at a time depending on if you started the utility from the schematic or panel toolbars. The database file is in a generic Microsoft Access format and must be in the normal AutoCAD Electrical search path. You can add records to the list using Access or by using the Add and Edit buttons in the Schematic Component or Circuit dialog box. Block names are defined for each item in the list as it is added. To insert components from a catalog list, select the component from the list and then select the insertion point in your drawing.
Default catalog list
Example: Using an Equipment List You are creating a new design of a machine that you built for a customer a couple of months ago. They have requested some changes but want to use the same components used in the previous design. You create an equipment list by selecting the database from the previous project. When you select and insert items from the equipment list, you are assured of using only the components that were used on the previous design.
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Example: Using a Panel List You work for a job-shop company that builds panels for your customers. Your customers depend on you for a fast turnaround of design projects. A new order comes in requiring the fastest design and build possible. You lay out the panel components, inserting longer lead-time items such as a variable frequency drive. When you have the correct sizing of the panel, you order all the long lead-time items. Next, you start the schematic design. You create an equipment list from the components you inserted in the panel layout. Selecting and inserting items from the equipment list, you get a quick start on the schematic design.
Example: Using a Catalog List One of your customers requires that only specified parts are used in their panels. The customer has supplied you with a catalog file of the approved components and footprints in MDB format. Instead of using the Catalog Data: Lookup function and searching through your company's entire parts database, you insert all components using the supplied catalog list.
Inserting Components from Lists When using an equipment list, you have to complete several steps. To execute the task efficiently, you need to know what the steps are and how to accomplish them.
Command Access Insert Component (Equipment List)
Ribbon: Schematic tab > Insert Components panel > Icon Menu flyout > Equipment List
Menu Bar: Components > Insert Component (Lists) > Insert Component (Equipment List)
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Insert Component (Equipment List)
Toolbar: ACE: Main Electrical > Insert Component > Insert Component (Lists) > Insert Component (Equipment List) Insert Component (Panel List)
Ribbon: Schematic tab > Insert Components panel > Icon Menu flyout > Panel List
Menu Bar: Components > Insert Component (Panel List) Toolbar: ACE: Main Electrical > Insert Component > Insert Component (Panel List)
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Insert Component (Catalog List)
Ribbon: Schematic tab > Insert Components panel > Icon Menu flyout > Catalog List
Menu Bar: Components > Insert Component (Lists) > Insert Component (Catalog List) Toolbar: ACE: Main Electrical > Insert Component > Insert Component (Lists) > Insert Component (Catalog List)
Panel Components Dialog Box Options The following callouts describe the Panel Components dialog box and its options.
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Sort List
You can sort the list using four levels of sort criteria. Use the drop-down lists to select different options for each level.
Reload
In the Panel Components dialog box, click Reload to reopen the Panel Layout List --> Schematic Components Insert dialog box so that you can reextract data or select a saved external file to use. In the Panel Components dialog box, click Mark Existing to identify components that may already be in the schematic drawings included in the project. An X is placed next to any components that have already been inserted. An O placed next to a component in the list indicates that a schematic component with a matching component tag is found, but the catalog information does not match. Marked components cannot be inserted multiple times. In the Panel Components dialog box, select one of two display options to show all extracted panel data, or to hide the panel data that has a matching schematic component (marked with an X). If the selected component contains catalog data, you can perform a bill-of-materials check. The part catalog database is searched and the resulting component information is displayed.
Mark Existing
Display
Catalog Check
TAG Options
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Accessed in the Panel Components dialog box, TAG options specify whether to use the panel footprint tag or to retag the component based on the component tagging format set in the drawing configuration settings. If a new tag is generated when inserting the schematic component, the source panel footprint is updated with the generated tag. The active drawing is automatically updated, while updates on other drawings are maintained inside the update task file (project_name.upd). Later the panel drawings are modified to match the new schematic component tag. If the panel footprint tag is used, the tag is set to Fixed in the schematic.
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Insert
You click Insert to start a search for a schematic symbol based on the catalog information. If a symbol match to the catalog information is found, you are prompted to select a location for the symbol. After the symbol is inserted, the Insert/Edit Component dialog box is displayed with attributes prefilled with information from the panel footprint.
Multiple Insert Spacing Options If you select multiple components and click Insert in the Panel Components dialog box, you need to specify the locations or set the automatic spacing between each component. The Spacing for Insertion dialog box provides multiple options, as described in the callouts.
The following are options in the Spacing for Insertion dialog box. Prompt for Each Location Fence Insertion
In the Spacing for Insertion dialog box, select the Prompt for Each Location option when you do not have a pattern of insertions and you need to be prompted for each insertion point. In the Spacing for Insertion dialog box, select the Fence Insertion option to use a fence line to insert the components on all lines that intersect the fence line. You are not prompted with insertion options such as Keep? or Skip. Use Uniform In the Spacing for Insertion dialog box, select the Uniform Spacing option to insert Spacing schematic components in a row or a column with equal spacing between each component. Use a negative value to move down or to the left. Move Up/ Moves the item in the Insert Order list up or down one position in the sort order. Move Down
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Reverse
Reverses the sort order of all components in the Insert Order list.
Re-sort
Re-sorts all of the components in the Insert Order list using an alphanumeric priority in ascending order.
This is not an array with rows and columns. If you enter nonzero values for both the X distance and Y distance, the second component is located diagonally from the first and so on.
Procedure: Inserting Schematic Components from Equipment Lists The following steps describe how to insert schematic components from an equipment list.
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1.
Start the Insert Component (Equipment List) command.
2.
Select an external data file you want to use as the equipment list. Choose from XLS, CSV, or MDB file formats. The default data files are the project databases, located in your user directory.
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3.
If the data file that you selected has multiple sheets or tables, you must select the desired category.
4.
After you select the data file and category, you must tell the program how to read the formatting of the file. Select Default Settings or Read Settings (previously saved settings). Click OK. You can change the mapping of data file information to electrical categories by clicking Spreadsheet/Table Columns. You can save the changes for later by clicking Save Settings.
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5.
Select a component from the list for insertion.
6.
If component mapping doesn't exist, select a symbol to be inserted for the selected component by clicking Icon Menu, or by selecting an existing symbol.
7.
Select an insertion point in the drawing for the symbol and enter the appropriate information in the Insert/Edit Component dialog box.
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8.
(Optional) You can select multiple components for insertion. Highlight the desired items in the Panel Components dialog box list. Click Insert. The Spacing for Insertion dialog box appears.
Procedure: Inserting Schematic Components from Panel Lists The following steps describe how to insert schematic components from a panel list. 1.
Start the Insert Component (Panel List) command.
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2.
You select the source files for the extracted list in the Panel Layout List --> Schematic Components Insert dialog box. You can extract a component list from the active drawing or from the entire active project. You can also extract a list using installation and location criteria.
3.
You can use the Select Drawings to Process dialog box to select the desired drawings to process from the current project.
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4.
The Panel Components dialog box is displayed. It lists panel components extracted from the selected drawings. Select components from the list for insertion.
5.
If the query of the schematic_lookup.mdb file cannot find a matching block name or returns more than one block name, the results are displayed in the Insert dialog box along with a short description of each choice, if available. Click Icon Menu or Copy Component to select the appropriate symbol for insertion.
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6.
In the drawing, select an insertion point for the symbol.
7.
The symbol is inserted and information is transferred from the panel symbol into the schematic symbol attributes. Edit information in the Insert/Edit Component dialog box as required.
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8.
(Optional) You can choose multiple components for insertion. Highlight the desired items in the Panel Components dialog box list. Click Insert. The Spacing for Insertion dialog box appears.
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Exercise: Insert a Schematic Component from a Panel List In this exercise, you extract a panel component list from the current project. Then you insert several components from the list in your schematic drawing. After insertion, you are prompted to update the matching panel footprints.
The completed exercise
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 4: Schematic Components. Click Exercise: Insert a Schematic Component from a Panel List.
Extract Panel List 1.
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If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
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2.
If Schematic_Components_IEC is the active project, skip to step 6. If it is open but not active, in the Project Manager, do the following: ■ Right-click Schematic_Components_IEC. ■ Click Activate. ■ Skip to step 6.
3.
In the Project Manager, right-click in an empty area. Click Open Project.
4.
Browse to where you installed the exercise files. Select Schematic_Components_IEC.wdp. Click Open. In the Projects list, double-click Schematic_Components_IEC to expand the drawing list. Right-click Schematic_Components_IEC_08.dwg. Click Open. Zoom in to the upper-left corner, rungs 1/A-B.
5.
6.
7.
8.
On the Schematic tab, Insert Components panel, Icon Menu flyout, click Panel List.
9.
In the Panel Layout List dialog box, click Project. Click OK. In the Select Drawings to Process dialog box, click Do All. Click OK. If prompted, In the QSave dialog box, click OK. In the Panel Components dialog box, click Sort List. In the Sort Fields dialog box, from the Primary Sort list, select TAGNAME. Click OK.
10. 11. 12. 13.
14. Notice the three blank entries at the top of the Select Panel Footprint list. These are footprints on the panel drawing that do not have a location reference in the schematic. In the Panel Components dialog box, click Mark Existing.
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6.
Insert a Single Component from the List 1.
From the Select Panel Footprint list, select Indexing Motor Enable. Click Insert.
2.
A mapping does not exist in the Schematic_Lookup.mdb file for this part number. In the Insert AB, 800MR-HH2BB dialog box, click Icon Menu.
3.
In the Insert Component: IEC Schematic Symbols dialog box, click Selector Switches (first row, second column).
Notice that the schematic symbol is inserted and the Panel Components dialog box is redisplayed. The inserted symbol now is marked with an X. The new tag appears when the list is reloaded.
7. 8. 9.
4.
In the IEC: Selector Switches dialog box, click 2 Position Maintain, NO.
5.
The schematic symbol for a two-position selector switch appears on the cursor, and you are prompted to select an insertion point. Select an insertion point on rung 1/A. Information is copied from the panel component to the schematic Insert/Edit Component dialog box.
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In the Insert/Edit Component dialog box, click OK.
In the Panel Components dialog box, click Close. In the Update Other Drawings? dialog box, click OK. If prompted, in the QSave dialog box, click OK. The Schematic_Components _IEC_19.dwg file opens and the panel footprint of the switch is updated with the information from the schematic component.
5.
In the Spacing for Insertion dialog box, click Fence Insertion. Click OK.
6.
Select the first fence point on the left side of rung 5/A and the second point on the right side of rung 7/A. Press ENTER.
7.
The previous insertion in this exercise used the same part number. The corresponding block name is now displayed.
Insert Multiple Components from the List 1.
On the Schematic palette, click Previous Drawing.
2.
Zoom in to rungs 5/A-7/B.
3.
4.
On the Schematic tab, Insert Components panel, Icon Menu flyout, click Panel List. The Panel Components dialog box is redisplayed. In the Panel Components dialog box, from the Select Panel Footprint list, select Conveyor Motor Enable and Hydraulic Motor Enable. Click Insert.
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8. 9.
10. 11.
12. 13. 14.
In the Insert AB, 800MR-H2BB dialog box, click OK. In the Insert/Edit Component dialog box, click OK. The first symbol is inserted and the sequence is repeated for the second selected symbol. In the Insert AB, 800MR-H2BB dialog box, click OK. In the Insert/Edit Component dialog box, click OK. The multiple insertion sequence is completed and the Panel Components dialog box is redisplayed. In the Panel Components dialog box, click Close. In the Update Other Drawings? dialog box, click OK. If prompted, in the QSave dialog box, click OK.
This completes the exercise.
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Lesson: Connectors This lesson describes how to use the Connector tools to manage connector data, including pins and receptacles, in your project drawings. With the Connector tools, you can quickly create custom connectors, add and remove pins, and edit connectors for specific applications.
Objectives After completing this lesson, you will be able to: ■ ■
Define and insert connectors. Edit existing connector components.
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Inserting Connectors Modern control panels are beginning to use connectors instead of individual connections more frequently as the preferred assembly practice. To efficiently insert these symbols, you need to learn about the different types of connectors, how to define their appearance, and how to inserted them in your drawings.
Connectors Defined Connectors are typically used to connect a wire or group of wires at a single junction. Unlike splices, connectors are designed to enable easy separation of the wires. Examples of each style are shown in the following illustrations. There are two different ways to insert connectors. You can insert the individual pins with parent and child symbols, or you can insert a single parametric connector that is built, spontaneously, based on information you enter or select.
Connector using parent and child symbols
Connector using single parametric symbol
Parent-Child Connectors The parent-child style of connector is inserted and has the same functionality as any other style of parent-child symbol. You must use the Insert Component icon menu to insert this style of connector. The individual symbols are inserted and associated together, thereby creating the parent-child relationship. The associated symbols act as a single component in reports and other functions.
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Parametric Connectors The parametric style of connector has functions similarly to PLC parametric component insertion. With this style you can build the connector shape during the insertion process, changing pin spacing, breaking the component into separated pieces, and so on. The individual portions of the parametric connector are associated to the parent in a parent-child relationship.
Command Access Insert Connector
Ribbon: Schematic tab > Insert Components panel > Insert Connector flyout > Insert Connector
Menu Bar: Components > Insert Connector > Insert Connector Toolbar: ACE: Main Electrical > Insert Connector > Insert Connector Icon Menu: Insert Component > Terminals/Connectors > Connectors > Parametric Build
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Insert Connector Dialog Box and Options You use the Insert Connector dialog box to define the insertion of the connectors.
Defines the default spacing between pins for the new connector. Defines the quantity of pins to be included in the connector. You can edit the connector later and add more pins. Forces the connector to be created with the default pin spacing, or pins are automatically placed where the connector crosses a wire. If wire crossings are not found, the default pin spacing is used. Specifies the size of the connector. You select two points in the drawing for the size of the connector. The number of pins in the connector is determined by the selected size and the specified Pin Spacing value. Specifies that all pins are inserted without pausing for user input, or prompts you with the Custom Pin Spaces/Breaks dialog box after inserting each pin. Options in the dialog box include Insert Next Connection, Add Spacer, Break Symbol Now, and Cancel Custom. Inserts the connector as a child component. After insertion, you need to associate the connector with a parent component. Defines the starting pin number or letter. By default, the pin value increments by one character. You can enter a specific pin list order. Enter the pin values separated by a comma as in A,B,C,D, and so forth. If you insert a connector with six pins and enter 6,1,2 for the pin list, the connector starts at the top of the connector with pins 6, 1, 2, and then increments by one on the last number for the remainder of the required pins. Sets the orientation of the connector during insertion.
You can toggle the At Wire Crossing and Fixed Spacing options during the insertion process. Enter X and press ENTER to change the status.
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Orientation Options The Orientation area contains controls for editing the connector direction. The Rotate and Flip buttons are used together to change the orientation of the connector. Using the Rotate (upper) and Flip (lower) buttons provides the following results.
Default only, no Rotate or Flip Connector Vertical, Plug Left
Default with Rotate only Connector Horizontal, Plug Down
Default with Flip only Connector Vertical, Plug Right
Flip with Rotate Connector Horizontal, Plug Top
You can change the orientation of the connector and the pin number order during the insertion process. Press TAB to cycle through the various options.
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Insert Connector Details Click Details to expand the Insert Connector dialog box and display more connector definition options.
Type Options The following options are available in the Type area.
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Option
Description
Plug/Receptacle Combination
Inserts both the plug and receptacle sides of the connector. ■ Wire Number Changes Forces the wire number to change when going through the connector. ■ Add Divider Line Adds a line halfway through the connector to separate the plug and receptacle.
Plug Only
Inserts only the plug side of the connector.
Receptacle Only
Inserts only the receptacle side of the connector.
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Display Options The following options are available in the Display area. Option
Description
Connector From the list, select between Vertical and Horizontal display orientations (similar to the Rotate option in Orientation). Plug
Sets the Plug display position. From the list, select between Top and Bottom, or Left and Right, depending on the Connector option setting (similar to the Flip option in Orientation).
Pins
Determines the Pin display position. From the list, select among Both Sides, Plug Side, Receptacle Side, and Hide Both.
Size Options The following options are available in the Size area. Option
Description
Receptacle Width of the receptacle. Plug
Width of the plug.
Top
Distance from the top of the connector to the first pin.
Bottom
Distance from the bottom of the connector to the last pin.
Radius
Radius of the connector, shown only on the plug side.
Procedure: Inserting a Parametric Connector The following steps describe how to insert a parametric style connector. 1.
Start the Insert Connector command.
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2.
Define the layout settings for the connector.
3.
Define the orientation for the connector insertion.
4.
Click Details to expand the dialog box for more options.
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5.
Change the type, display, and size options for the connector as necessary.
Editing Connectors You can edit inserted connectors, change their orientation and breaking, and add or remove pins.
Command Access The connector editing tools are grouped together in the same menu areas as the Insert Connector tool. Connectors - Editing Tools
Ribbon: Schematic tab > Edit Components panel > Reverse Connector flyout
Menu Bar: Components > Insert Connector Toolbar: ACE: Main Electrical > Insert Connector Icon Menu: Insert Component > Terminals/Connectors > Connectors
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Add Connector Pins Use this command to add additional pins to an existing connector. Each pin is added in line with the rest of the pins at the point you select. The selected connector is searched and the next sequential pin number is displayed. You have the option to use the default pin number or to reset the search count at a new number.
Connector before adding pins
Connector after adding pins
Delete Connector Pins Select this command to delete pins from any connector. Start the command and select the pin to be deleted. The command remains active until you press ENTER or start another command.
Move Connector Pins Use this command to move pins in a connector. Start the command, select the pin, and select the new location point.
Connector pins before moving
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Swap Connector Pins You use this command to swap pin numbers without changing pin locations. Start the command and select the two pin numbers to be swapped.
Pins 2 and 5 before swap
Pins 2 and 5 after swap
Reverse Connector Use this command to flip the connector direction. This operation is similar to the AutoCAD Mirror command. The connector is flipped about the centerline of the connector.
Connector before reversing
Connector after reversing
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Stretch Connector Use this command to stretch the connector when you need to add length to the connector. You are prompted to select the end of the connector to stretch it, and to select the new location point. Stretching the connector does not relocate any of the pins. It changes the length of the connector. Use the Move Connectors Pins command to change the pin locations.
Connector before stretching
Connector after stretching
Split Connector You use this command when you need to locate a portion of the connector in a different location than the original. The split portions are automatically linked together in a parent-child relationship. After selecting the command, you are asked to select the block (connector) to split. After you select the split point, you enter the split options in the Split Block dialog box.
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Split Block Options The following are options available when splitting connectors: Option
Description
Child Base Point
Establishes the base point for placement of the child symbol that is created when splitting the connector.
Break Type
Determines the display of the connector break with the following options. No Lines: Does not create lines for the breakpoint.
Straight Lines: Draws a straight line at the end of the break.
Jagged Lines: Draws jagged lines at the end of the break.
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Option
Description Draw it: Enables you to manually draw a breakline to meet specific needs. The drawn line is used for both parent and child components.
Layer List: Sets the layer property for the breaklines. Reposition Child Block
Moves the child block to a new location. With this option cleared, the connector is split and the breaklines are created, but the connector pieces remain in their original location.
Rotate Connector Select this command when you want to rotate a connector. A connector is rotated in 90-degree increments, rotating counter-clockwise. There is a command line option to hold the attributes to their original orientation, that is, the attributes remain in the same orientation, but their location changes as the connector is rotated. This option is activated by entering H during command execution. You are prompted for a Yes or No response to hold the orientation. The setting is maintained until you change it. Start
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Hold = No
Exercise: Add Connectors and Wiring In this exercise, you add connectors and wiring.
The completed exercise
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 4: Schematic Components. Click Exercise: Add Connectors and Wiring.
3.
not active, in the Project Manager, do the following: ■ Right-click Schematic_Components_IEC. ■ Click Activate. ■ Skip to step 6. In the Project Manager, right-click in an empty area. Click Open Project.
Insert Connector at Wire Crossing 1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
2.
If Schematic_Components_IEC is the active project, skip to step 6. If it is open but
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4.
5.
6.
7.
8.
Browse to where you installed the exercise files. Select Schematic_Components_IEC.wdp. Click Open. In the Projects list, double-click Schematic_Components_IEC to expand the drawing list. Right-click Schematic_Components_IEC_15.dwg Click Open. Zoom in to rungs 2-8.
On the Schematic tab, Insert Components panel, Insert Connector flyout, click Insert Connector.
9.
In the Insert Connector dialog box, do the following: ■ For Pin Spacing, enter 10. ■ For Pin Count, enter 10. ■ For Pin List, enter 1. ■ Select At Wire Crossing. ■ Click Insert All. ■ Clear the Start Connector as Child check box. ■ Use the Rotate and Flip buttons as necessary to change the orientation to a horizontal connector with the plug on the top. ■ Click Insert.
10. Select the insertion point for the connector on rung 2 just below the =MACHINE-X1-1 terminal.
Notice how the pin spacing adjusts for the wire crossings and stays at the fixed value for the other pins.
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4.
In the Insert Connector dialog box, do the following: ■ For Pin Spacing, enter 10. ■ For Pin Count, enter 10. ■ Click Fixed Spacing. ■ Click Insert All. ■ Use the Rotate and Flip buttons as necessary to change the orientation to a vertical connector with the plug on the left. ■ Click Insert.
5.
Before selecting the insertion point, press TAB. This flips the connector insertion. Press TAB again. This reverses the pin numbering on the connector.
Change the Orientation on Insert 1.
On the Quick Access toolbar, click Next Drawing.
2.
Zoom in to rungs 4-9.
3.
On the Schematic tab, Insert Components panel, Insert Connector flyout, click Insert Connector.
6.
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7.
Select the insertion point for the connector at 390,150.
8.
On the Schematic tab, Insert Wires/Wire Numbers panel, click Multiple Bus.
9.
In the Multiple Wire Bus dialog box, click Component (Multiple Wires). Click OK. 10. In the drawing, select the pin connection points 1-6 on the plug side of connector -16X1. Press ENTER.
11. Drag the cursor to the left and down, displaying the wire crossovers. 12. Before selecting an insertion point, enter F. Press ENTER. This flips the wire crossovers and attachment order.
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13. Click the upper wire-connection point on input 17 to attach the wires to the PLC. Notice how the spacing of the wires changes to match the component.
This completes the exercise.
Lesson: Terminals, Multiple Level Lesson: Terminals, and Jumpers In this lesson you learn how to insert terminals and convert individual terminals into multiple level terminals. You also learn how to create jumper assignments, linking terminals together into a single wire network.
Terminals with associations and jumper assignments displayed
Objectives After completing this lesson, you will be able to: ■ ■ ■
Describe the various types of terminals and jumpers. Describe multiple level terminals and jumpers, and how they are created. Insert terminals, establish associations creating multiple level terminals, and create jumpers.
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About Terminals and Jumpers Terminals are one of the more frequently used and versatile types of components used in a schematic. They can be used to join multiple wires together at a single connection point, or they can act the same as a component, forcing a wire number change as the wire passes through it. Jumpers are used to join several of the same terminal numbers together instead of using wires, and can greatly simplify the wiring process. To effectively use terminals and jumpers in your schematics, you need to know what they are and the types or styles that are available.
Terminals Defined Terminals are one of several different kinds of components that you can use. Similar to a wire connection point on a standard type symbol, terminals are independent wire connection points that can be placed anywhere on wires. Depending on the style of terminal selected, they join several wires into one wire network or break a wire into two separate wire networks.
Example of a round terminal with wire connections
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If you assign a Tag Strip value to the terminal, it becomes linked to a terminal strip along with all other terminals with the same Tag Strip value. The terminal strip displays the linked terminals in reports and panel layouts. You can think of each individual terminal as a subassembly component of the terminal strip.
Example of terminals assigned to the same terminal strip
Terminal Types You can choose from four different types of terminals. Each type is supplied in the following five different graphic styles or shapes: ■ Square ■ Round ■ Hexagon ■ Diamond ■ Triangle Terminal Type
Description This is a nonintelligent type. Only wire connection attributes are associated with it, and it does not appear in any reports. When you insert a terminal of this type, no Insert/Edit Terminal dialog box appears.
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Terminal Type
Description This terminal takes on the wire number of the wire that is connected to, or passes through the terminal.
This terminal carries a user-defined terminal number assigned during insertion or editing of the terminal.
This terminal type forces a new wire number to generate as the wire passes through the terminal, in effect, creating a new wire network.
As with any other symbol, you can also create your own custom terminal symbols.
Terminal Jumpers Defined Terminal jumpers link two terminals together electronically into a single wire network. External jumpers link two physically different terminals together. No terminal levels or other block properties need to be set to create external jumpers between terminals. External jumpers are displayed in the Terminal Strip Editor grid as an empty circle. You can assign catalog number information to an external jumper, just like any other component. Internal jumpers link different levels of a multilevel terminal together. Internal jumpers are established during editing of the terminal block properties, or by setting internal jumpers in the terminal block properties table of the catalog database. Internal jumpers are displayed in the Terminal Strip Editor grid as a solid or filled square. In the schematic and panel drawings the physical representation of a jumper is not physically displayed by the software, that is, no block symbol is inserted in the drawings. Using the Terminal Strip Editor, jumper assignments can be displayed on the drawing in either a tabular terminal strip table or in a jumper chart.
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Example of Using Terminals Within Schematic Drawings Terminals are frequently used when wiring enters or leaves a control panel. In this instance, a wire from a component in one panel is connected to a component in another panel. The wire runs from the first component to a terminal strip in the first cabinet. From there, another wire connects to the opposite side of the terminal and runs through a wire conduit to the second panel where it connects to a terminal strip. From the opposite side of the terminal the wire runs to the second component. On the schematic, the two components appear on a single line with the two terminals inserted between them. See the following image for an example. The relay contacts on the left are located in MCAB5 and have wires running to the terminal strip located in MCAB5. The terminals on the right are located on a terminal strip in OPSTA3 and have wires running to the lights, which are also located in OPSTA3.
About Multiple Level Terminals The density of terminals within panels is increasing with each passing year. To accommodate this, multiple level terminals are becoming more popular. To efficiently use this style of terminal, you need to know what they are and how to manage them.
Multiple Level Terminals Defined You create a terminal association between terminals to link individual terminal symbols into one multiple level terminal. In reports and on panel layouts the individual schematic terminals appear as a single item.
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Example of multiple level terminals By default a terminal has the number of levels set to zero (0). To create associations between terminals or to set other block properties, a terminal must have at least one level assigned to it.
Terminal Block Properties Each terminal block can be assigned block properties that include the following: ■ Number of levels ■ Level Description ■ Wires Per Connection ■ Left Pin number ■ Right Pin number ■ Internal Jumpers Terminal block properties drive the behavior of the terminal in the multiple-level environment. For example, a terminal has the Wires Per Connection property set to two wires, but has three wires connected to one side. Automatically an additional terminal, with the same properties, will be created and inserted in the terminal strip to accommodate the extra wire. Block properties can be assigned to the terminal catalog number and referenced automatically when the catalog number is assigned to a symbol. You can edit the terminal block properties database table using the Terminal Properties Database Editor, which is found on the Components > Terminals menu. The tables are sorted by manufacturer.
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You use Block Properties in the Insert/Edit Terminal Symbol dialog box to manually edit the terminal block properties of an individual terminal. Manual settings you make override settings from the terminal properties database table.
Internal jumpers are manually added by selecting two or more different levels and clicking the Assign Jumper button. Once an association is created between two terminals, you can also break it apart into two separate terminals. Both of the terminals are created with the same block properties as the original.
Use the Copy Block Properties command to copy block property settings between terminals on the same drawing. You start the command, select the Master block to copy the settings from, and select the terminals to copy the settings to.
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Example of Using Multiple Level Terminals You are building a large panel that requires several hundred terminals, but space is becoming a problem for all of the panel components and the terminal strips. To help alleviate crowding, you replace all single level terminals with three level terminals. You create associations between terminals, thereby reducing the space requirements for the terminal strips by almost one-third.
Terminal strip with single-level terminals Same terminal strip with 3-level terminals
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Inserting Terminals, Multiple Level Terminals, and Jumpers Before inserting terminals, and creating associations and jumpers in your drawing, you need to know the procedures that are available.
Command Access Insert Component > Terminals/Connectors
The terminal components are located on the Insert Component icon menu. Access them by using the Insert Component command and selecting Terminals/Connectors in the preview window. Associate Terminals
Ribbon: Schematic tab > Edit Components expansion panel > Associate Terminals
Menu Bar: Components > Terminals > Associate Terminals Toolbar: ACE: Main Electrical 2 > Miscellaneous > Associate Terminals
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Break Apart Terminal Associations
Ribbon: Schematic tab > Edit Components expansion panel > Break Apart Terminal Associations
Menu Bar: Components > Terminals > Break Apart Terminal Associations Toolbar: ACE: Main Electrical 2 > Miscellaneous > Break Apart Terminal Associations Edit Jumper (External)
Ribbon: Schematic tab > Edit Components expansion panel > Edit Jumper
Menu Bar: Components > Terminals > Edit Jumper
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Assign Jumper (Internal)
The Assign Jumper function for internal jumpers is only available from the Block Properties dialog box. The Block Properties function is only available from the Edit Component dialog box, or within the Terminal Strip Editor. Menu Bar: Components > Components Miscellaneous > Add/Edit Internal Jumper Insert/Edit Terminal Symbol dialog box: Block Properties > Assign Jumper Delete Jumper (Internal)
The Delete Jumper function for internal jumpers is only available from the Block Properties dialog box. The Block Properties function is only available from the Edit Component dialog box, or within the Terminal Strip Editor. Menu Bar: Components > Components Miscellaneous > Add/Edit Internal Jumper Insert/Edit Terminal Symbol dialog box: Block Properties > Delete Jumper The Internal Jumper command is located at Schematic tab > Edit Components panel > Edit flyout > Internal Jumper.
This command is NOT used for terminals. It is used to add internal jumpers to components containing multiple terminals, such as a motor drive or PLC component.
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Procedure: Inserting and Editing Terminals The following steps describe how to perform the basic insertion and editing of terminals.
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If you are inserting one or more terminals, do the following: ■ Start the Insert Component command. ■ Select Terminals/Connectors to display the available terminal types. ■ Select the desired terminal type. ■ Select the insertion point.
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If you are editing a terminal, do the following: ■ Start the Edit Component command. ■ Select the terminal for editing.
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In the Insert/Edit Terminal Symbol dialog box, enter the required information.
4.
For the Terminal Number and Wire Change types, enter a terminal number. Note: If you are using the Multiple Insert command, this is the starting number. The remaining terminal numbers will be incremented automatically.
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To add catalog data, descriptions, ratings, and other miscellaneous data, click Details.
5.
Procedure: Manually Editing Terminal Block Properties The following steps describe how to manually edit the block properties of a terminal. Start the Edit Component command and select a terminal to edit, or right-click a terminal and select Edit Component.
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In the Insert/Edit Terminal Symbol dialog box, click Block Properties.
3.
In the Terminal Block Properties dialog box, enter the number of desired levels.
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Enter other block properties as desired.
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Adding or Modifying Terminal Associations You can create terminal associations in two different workflows. If the terminals are on the same drawing, you can start the Associate Terminals command and simply select all terminals that are to be associated, up to the number of levels set on the master terminal. If the terminals are on different drawings, you must use the Add/Modify option in the Edit Component command. You can also use this method if the terminals are on the same drawing, but you can only create one association at a time, regardless. You must repeat the association procedure for each level.
Procedure: Adding or Editing Terminal Associations on the Same Drawing The following steps describe how to add or edit a terminal association with the terminals on the same drawing.
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Start the Associate Terminal command.
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Select the master terminal.
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3.
Select the terminals that will be associated with the master. Press ENTER.
Procedure: Adding or Editing Terminal Associations on Different Drawings The following steps describe how to add or edit a terminal association with the terminals on different drawings. 1.
In the drawing, select the terminal that you want to associate with another terminal. Start the Edit Component command.
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In the Insert/Edit Terminal Symbol dialog box, under Modify Properties/Associations, click Add/Modify.
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In the Add/Modify Association dialog box, under Select Association, select the terminal that you want to associate the active terminal with.
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In the Select Association grid, select the level to push the active terminal into. Click Associate.
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5.
In the Active Association grid, reorder the terminal positions as desired.
Creating External Terminal Jumpers You can create external terminal jumpers in two different workflows. If the terminals to be jumpered are on the same drawing, you can start the Edit Jumper command and simply select all terminals that are to be jumpered together. If the terminals are on different drawings, you start the Edit Jumper command, select the first terminal, and use the Browse option to select from a terminal list of all terminals in your project. You can also use this method if the terminals are on the same drawing. In either case, you can link multiple terminals together with jumpers in a single operation.
Procedure: Creating Terminal Jumpers on the Same Drawing The following steps describe how to add or edit terminal jumpers on the same drawing. 1.
Start the Edit Jumper command.
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In the drawing, select the first terminal to be jumpered.
3.
Select other terminals to be jumpered together. You must use the Pick method; window and crossing selections are not supported. Note: You must use the Pick method; window and crossing selections are not supported.
4.
Add catalog data for the jumper.
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Procedure: Creating Terminal Jumpers on Different Drawings The following steps describe how to add or edit terminal jumpers on different drawings. 1.
Start the Edit Jumper command.
2.
In the drawing, select the first terminal to be jumpered.
3.
At the Command prompt, enter B to browse for terminals in the project.
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In the Select Terminals to Jumper dialog box, expand the desired terminal strip. Select the terminal to be jumpered to the first terminal.
5.
Add the terminal to the Jumper Terminals list. Press ENTER to end the Browse option.
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Add catalog data for the jumper.
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Managing Internal Terminal Jumpers You can manage internal terminal jumpers in two different workflows. You can manually modify internal jumpers by editing the block properties of a terminal. When the Terminal Block Properties dialog box is displayed, you select two or more levels of a multilevel terminal and select Assign Jumper or Delete Jumper. Internal jumpers can also be assigned automatically based on the catalog number selected for the terminal. Internal jumper assignments are added in the catalog database _TERMPROPS table. This functionality is similar to the pin list assignments for other types of components. For each jumper to be created, enter the levels, separated by commas, that will be jumpered together. For example 1,2 assigns a jumper between levels one and two of the terminal.
Procedure: Manually Assigning or Deleting Internal Jumpers The following steps describe how to manually assign or delete internal jumpers in a multilevel terminal. 1.
Start the Edit Component command.
2.
In the drawing, select a terminal to be edited.
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In the Insert/Edit Terminal Symbol dialog box, click Block Properties.
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In the Terminal Block Properties dialog box, to add an internal jumper assignment, select two or more levels of the terminal to be jumpered together. Click Assign Jumper.
5.
To delete an internal jumper assignment, select any level that has the existing jumper assignment you want to delete. Click Delete Jumper.
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Exercise: Create Terminal Jumpers and Associations In this exercise, you insert terminals with wire number assignments. Then you add jumpers between terminals on the same wire networks. Finally, you associate terminals together by creating multiple level terminals.
The completed exercise
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 4: Schematic Components. Click Exercise: Create Terminal Jumpers and Associations.
2.
If Schematic_Components_IEC is the active project, skip to step 6. If it is open but not active in the Project Manager, do the following: ■ Right-click Schematic_Components_IEC. ■ Click Activate. ■ Skip to step 6.
Insert Terminals 1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
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3.
In the Project Manager, right-click in an empty area. Click Open Project.
4.
Browse to where you installed the exercise files. Select Schematic_Components_IEC.wdp. Click Open. From the Projects list, double-click Schematic_Components_IEC to expand the drawing list. Right-click Schematic_Components_IEC_11.dwg. Click Open. Zoom in to rungs 1-6.
5.
6.
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On the Schematic tab, Insert Components panel, Multiple Insert (Icon Menu) flyout, click Multiple Insert (Icon Menu). 9. In the Insert Component dialog box, in the IEC: Schematic Symbols preview area, click Terminals/Connectors. 10. In the IEC: Terminals and Connectors preview area, click Round with Terminal Number.
11. Draw a fence line as shown, starting right of rung 4, and then moving left, down, and to the right across rungs 1-6, nearer to PLC. Press ENTER.
12. In the Keep? dialog box, select Keep This One. Click OK. 13. In the Insert/Edit Terminal Symbol dialog box, under Terminal, for Location, click Browse. 14. In the Location Codes dialog box, from the Drawing list, select =MCAB5. Click OK. 15. In the Insert/Edit Terminal Symbol dialog box, under Terminal, do the following: ■ For Tag Strip, enter X1-3. ■ For Number, enter 10.
8.
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16. If necessary, click Details to expand the dialog box and display the Catalog Data area. 17. Under Catalog Data, Click Catalog Lookup.
18. In the Parts Catalog dialog box, do the following: ■ For Manufacturer, select Entrelec. ■ For Type, select Multi-Level. ■ For Rating, select 20AMPS. ■ Select Show List Sorted by Catalog Part Number. ■ Select 0115 126.01. ■ Click OK.
Create External Terminal Jumpers
19. In the Insert/Edit Terminal Symbol dialog box, click OK. 20. In the Keep? dialog box, do the following: ■ Click Keep All, Don’t Ask. ■ Clear Show Edit Dialog After Each. ■ Click OK.
In this exercise you first use the Browse option to select two terminals to be jumpered together. Then you create a second jumper between two terminals by selecting them in the drawing. 1.
On the Schematic tab, Edit Components expansion panel, Edit Components flyout, click Edit Jumper.
2.
In the drawing, select terminal 13 on rung 1.
3.
On the command line, enter B. Press ENTER.
Notice that terminals are inserted on all crossing locations.
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4.
5.
6.
In the Select Terminals to Jumper dialog box, under Schematic Terminals, expand MCAB5X1-3. Select 12(11,2/B) 01.
Click the > button to create the jumper. Click OK to close the Select Terminals to Jumper dialog box.
At the Command prompt, press ENTER. In Edit Terminal Jumpers dialog box, click OK. On the Schematic tab, Edit Components tab, Edit Components flyout, click Edit Jumper. 10. In the drawing, select terminal 11 on rung 3.
11. Select terminal 10 on rung 4. Press ENTER.
12. In the Edit Terminal Jumpers dialog box, notice that a new jumper is created between the terminals 10 and 11. Click OK.
7. 8. 9.
Create and Delete Internal Terminal Jumpers In this exercise, you edit the block properties of a terminal to add an internal jumper between two levels of a multilevel terminal. Then you edit the block properties to delete an internal jumper. 1. 2.
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In the drawing, right-click terminal 18 on rung 5. Select Edit Component. In the Insert/Edit Terminal Symbol dialog box, click Block Properties.
3.
In the Terminal Block Properties dialog box, resize the dialog box to display all columns, including the Internal Jumper column.
4.
Select the upper and lower levels. Tip: Use the CTRL selection option. Click Assign Jumper. Click OK.
5.
6. 7. 8.
In the Insert/Edit Terminal Symbol dialog box, click OK. Repeat steps 1 through 6 on terminal 19 on rung 6. Zoom in to terminal 20 on rung 7.
9.
Right-click terminal 20. Select Edit Component.
10. In the Insert/Edit Terminal Symbol dialog box, click Block Properties. 11. In the Terminal Block Properties dialog box, select either one of the levels. 12. Click Delete Jumper. Click OK.
13. In the Insert/Edit Terminal Symbol dialog box, click OK.
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4.
Repeat steps 1 through 3 using terminals 12 and 15 on rung 2.
5.
On the Schematic tab, Edit Components panel, click Edit. In the drawing, select terminal 11 on rung 3.
Create Terminal Associations In this exercise, you create terminal associations using the following three different workflows: ■ You simply pick terminals in the drawing to be associated. This provides no visual feedback. ■ You use the Insert/Edit Terminal Symbol dialog box to select the first terminal and pick the terminals to be associated. ■ You use the Add/Modify dialog box to select a terminal to be associated from a list of all terminals in the project. 1.
Right-click terminal 13 on rung 1. Click Terminals > Associate Terminals.
6.
2. 3.
Reselect terminal 13 as the master component. Select terminal 14 on rung 1. Press ENTER. 7.
The terminal association is created.
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In the Insert/Edit Terminal Symbol dialog box, under Modify Properties/Associations, click Pick.
8.
In the drawing, select terminal 16 on rung 3.
9.
In the Insert/Edit Terminal Symbol dialog box, under Modify Properties/Associations, click Add/Modify. 10. Under Active Association, in the grid, select LOWER, 11. Click Move Up. Click OK.
11. In the Insert/Edit Terminal Symbol dialog box, click OK. 12. In the Update Related Components dialog box, click Yes-Update. 13. On the Schematic tab, Edit Components panel, click Edit.
14. In the drawing, select terminal 10 on rung 4.
15. In the Insert/Edit Terminal Symbol dialog box, under Modify Properties/Associations, click Add/Modify. 16. Under Select Association, from the Terminal Strips list, select terminal 17.
17. In the terminal strips grid, select the LOWER row. Click Associate.
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18. Under Active Association, in the grid, select LOWER, 10. 19. Click Move Up. Click OK.
20. In the Insert/Edit Terminal Symbol dialog box, click OK. 21. In the Update Related Components? dialog box, click Yes-Update. 22. Use any of the three workflows and associate terminals 18 and 19 on rungs 5 and 6, respectively.
This completes the exercise.
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Lesson: Circuits This lesson describes how to save assemblies or groupings of components, wires, ladders, and so on as circuits. Similar to blocks, saved circuits are inserted as a single object. Saved circuits save time when your projects require common arrangements of components, such as motor starters or control circuits.
Sample of 3 Phase circuit
Objectives After completing this lesson, you will be able to: ■
■ ■ ■ ■
Describe what comprises a circuit and how to create, insert, and manage circuits in an electrical schematic. Move and copy circuits to different locations, automatically retagging components. Insert predrawn circuits not included on the Saved User Circuits icon menu. Save a circuit to the Saved User Circuits icon menu. Insert a saved circuit from the Saved User Circuits icon menu.
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About Circuits To better create your own custom circuits, it is helpful to understand what circuits are and how they are processed.
Definition of Circuits After a circuit is moved, copied, or inserted, the circuit is processed and the component tags and other information is updated where possible. To prevent duplication errors some data may be erased. A circuit is any collection of electrical objects that you manage as one group. A circuit may contain ladders, wires, components, or entire sections of your schematic drawing.
Example Circuits Your company uses several standard circuits in its machine schematics. Rather than re-creating the circuits each time they are required, you save the circuits as blocks, and insert them when needed. The following illustration shows a motor control circuit.
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The following illustration shows a system reset circuit.
The following illustration shows a power circuit with power supplies, ladder, and circuit breakers.
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Moving and Copying Circuits The Move Circuit and Copy Circuit commands are similar to the AutoCAD Move and Copy commands but have added functionality with electrical automation intelligence.
Command Access Move Circuit
Ribbon: Schematic tab > Edit Components panel > Copy Circuit flyout > Move Circuit
Menu Bar: Components > Move Circuit Toolbar: ACE: Main Electrical > Circuit Builder > Move Circuit Copy Circuit
Ribbon: Schematic tab > Edit Components panel > Copy Circuit flyout > Copy Circuit
Menu Bar: Components > Copy Circuit Toolbar: ACE: Main Electrical > Circuit Builder > Copy Circuit
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Procedure: Moving Circuits The following steps describe how to move a circuit. 1.
Start the Move Circuit command.
2.
Select the objects to be moved using any of the Select Object options.
3.
Select a base point or displacement.
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Select a new circuit location point.
4.
Procedure: Copying Circuits The following steps describe how to copy a circuit.
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Start the Copy Circuit command.
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Select the objects to be copied using the standard Select Object options.
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Select a base point or displacement.
4.
Select a new circuit location point.
5.
Select the wire number and component retag options.
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Select the signal arrow options.
6.
After you move or copy a circuit, AutoCAD Electrical attempts to update components and cross-references based on the drawing properties reference settings.
Be sure to use a Snap or Object Snap option to select the base and destination points.
Inserting Wblocked Circuits Depending on the frequency of use, or your company's standards, you may want to store and insert circuits without using the icon menu interface. To insert circuits in this manner, you need to learn how to insert circuits saved with the AutoCAD Wblock command.
Command Access Insert Wblocked Circuit
Ribbon: Schematic tab > Insert Components panel > Insert Wblocked Circuit flyout > Insert Wblocked Circuit
Menu Bar: Components > Insert Wblocked Circuit Toolbar: ACE: Main Electrical > Circuit Builder > Insert Wblocked Circuit
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Saving Circuits Using the Wblock Command Use the AutoCAD Wblock command to save circuits without using the icon menu system. ■ You can save the circuit to any file location. ■ Any external drawing file containing AutoCAD Electrical components can be inserted as a circuit.
Procedure: Inserting a WBlocked Circuit The following steps describe how to insert a circuit saved using the Wblock command. 1.
Start the Insert WBlocked Circuit command.
2.
Browse to and select the circuit drawing.
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3.
Select the desired options and settings in the Circuit Scale dialog box.
4.
Select an insertion point for the circuit in the drawing.
When you use any of the AutoCAD Electrical Insert Circuit commands to insert a circuit, the circuit (block) is exploded. Wire numbers and component tags are updated according to the current drawing property settings. Fixed tags are not updated.
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Saving Circuits to an Icon Menu Many times during a design process you require quick and easy methods of storing circuits for temporary use. The use of these circuits may only be for your own short-term design needs. Saving Circuits to an icon menu is one method of providing this functionality and speeding up your design process.
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Command Access Save Circuit to Icon Menu
Ribbon: Schematics tab > Edit Components panel > Copy Circuit flyout > Save Circuit to Icon Menu
Menu Bar: Components > Save Circuit to Icon Menu Circuit Toolbar: ACE: Main Electrical > Insert Circuit > Save Circuit to Icon Menu
Procedure: Saving Circuits to an Icon Menu The following steps describe how to save a circuit to the User Circuits icon menu.
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Start the Save Circuit to Icon Menu command.
2.
In the Save Circuit to Icon Menu dialog box, Add menu, select New Circuit.
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In the Create New Circuit dialog box, enter the name.
4.
To select an existing image file or create a new one, use one of the following options: ■ Option 1: Click Browse to select an existing image file.
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Option 2: Click Pick to select an existing block. The name of the block will be entered into the Name box.
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Option 3: Click Active to enter the name of the current drawing into the Name box.
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Option 4: Manually enter an image name.
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Option 5a: Create an image from the current screen image. Click Create PNG from Current Screen Image.
Option 5b: Click Zoom to return to the drawing, and zoom and pan the image to make it as large as possible.
Enter a file name. By default, the file is saved in the current user directory.
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Select a base point for your circuit. Be sure to use a Snap mode.
7.
Select all of the objects to be included in the circuit. The new circuit is added to the User Circuit icon menu.
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Guidelines Follow these guidelines when saving circuits to an icon menu. ■ The Save Circuit to Icon Menu and Insert Saved Circuit commands provide shortcuts to the User Circuits submenu in the icon menu system. You can also use the Insert Component command to achieve the same results. Select Insert Component > ...Schematic Symbols > Miscellaneous > User Circuits for circuit selection. ■ The Name field is displayed as the text in the icon with text and list views. Be very detailed when naming your circuit. This is an important step that enables you to identify your circuit when you want to insert it. The circuits are often too large and complicated to identify them clearly by using the icon alone. ■ When creating the icon from the current screen image, you must zoom in to the circuit you want to save. Try to make the view as large and as clean as possible, showing only graphics necessary to identify the circuit. ■ The advantage of the Save Circuit to Icon Menu command is that it provides a shortcut to the User Circuits menu. The disadvantage is that, because the circuits are automatically saved in the local User directory, they are not available to other users. To share a circuit saved in the User directory, you must copy or move the circuit to a shared folder.
Inserting Saved Circuits There are several ways to access the user circuits saved in the icon menu. To be most efficient, you can use shortcuts such as the Insert Saved Circuit command.
Command Access Insert Saved Circuit
Ribbon: Schematic tab > Edit Components panel > Insert WBlocked Circuit flyout > Insert Saved Circuit
Menu Bar: Components > Insert Saved Circuit Toolbar: ACE: Main Electrical > Circuit Builder > Insert Saved Circuit
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Procedure: Inserting Saved Circuits The following steps describe how to insert circuits from the icon menu.
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Start the Insert Saved Circuit command.
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Select a circuit from the User Circuits icon menu.
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In the Circuit Scale dialog box, select options for circuit insertion and updating.
4.
Select the insertion point for the circuit.
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Circuit Scale Options
Circuit Scale Options
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Setting
Description
Custom Scale
Specifies the insertion scale.
Move All Lines to Wire Layers
When selected, all nonlayer "0" line objects are moved to a valid wire layer.
Keep All Fixed Wire Numbers
When selected, all fixed wire numbers are retained, and not erased or updated.
Keep All Source Arrows
When selected, the circuit's source arrows are retained.
Update Circuit's Text Layers as Required
When selected, the circuit's layers are updated per AutoCAD Electrical drawing configuration settings.
Don't Blank Out Orphan Contacts
When selected, does not change the tag ID alone if the parent is not found.
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Exercise: Copy, Save, and Insert a Circuit In this exercise, you use AutoCAD Electrical commands to manipulate circuits. You copy an existing circuit, save a circuit to the Saved User Circuits icon menu, and insert the saved circuit you created.
The completed exercise
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 4: Schematic Components. Click Exercise: Copy, Save, and Insert a Circuit.
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7.
Zoom in on the left side of the drawing.
8.
On the Schematic tab, Edit Components panel, Copy Circuit flyout, click Copy Circuit.
9.
Select all objects that make up the circuit on rung 1. Press ENTER when selection is complete.
Copy Circuit 1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
2.
If Schematic_Components_IEC is the active project, skip to step 6. If it is open but not active, in the Project Manager, do the following: ■ Right-click Schematic_Components_IEC. ■ Click Activate. ■ Skip to step 6. In the Project Manager, right-click in an empty area. Click Open Project.
3.
4.
5.
6.
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Browse to where you installed the exercise files. Select Schematic_Components_IEC.wdp. Click Open. In the Projects list, double-click Schematic_Components_IEC to expand the drawing list. Right-click Schematic_Components_IEC_03.dwg. Click Open.
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12. In the Copy Circuit Options dialog box, click OK. Notice how AutoCAD Electrical updates the component tags to match the inserted locations.
Save Circuit to Menu 1.
On the Quick Access toolbar, click Previous Project Drawing to move to Schematic_Components_IEC_02.dwg.
2.
Zoom in to rungs 2-4.
3.
On the Schematic tab, Edit Components panel, Copy Circuit flyout, click Save Circuit to Icon Menu.
10. For the Base point, click the endpoint of the leftmost rung of the circuit on the top horizontal bus. Note: Use a Snap command to be sure that you click the endpoint. 11. Click the second point of displacement at rung 2 on the top horizontal bus.
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4.
In the Save Circuit to Icon Menu dialog box, click Add > New Circuit.
11. Select all objects that make up the circuit on rungs 2-4. Press ENTER.
An icon for the saved circuit is added to the menu. 12. Click OK to close the menu.
Insert Circuit from Menu 5. 6. 7.
For Name, enter Schematic Wiring Circuit. For Image File, enter Schematic Wiring Circuit. Select Create PNG from Current Screen Image.
8.
Click Zoom. In the drawing, make the image of the circuit as large as possible. Exit the Real-time Zoom command to return to the Create New Circuit dialog box. For File Name, enter Schematic Wiring Circuit. Click OK.
9.
10. For the Base point, click the endpoint of the leftmost circuit rung at the intersection the top horizontal bus. Note: Use the Snap or an Osnap command to ensure that you click the endpoint.
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1.
On the Quick Access toolbar, click Next Project Drawing.
2.
This opens Schematic_Wiring_JIC_03.dwg. On the Schematic_Components_IEC_03.dwg drawing, zoom in to rungs 3-6.
3.
On the Schematic tab, Insert Components panel, Insert WBlocked Circuit flyout, click Insert Saved Circuit.
4.
In the IEC: Saved User Circuits dialog box, click Schematic Wiring Circuit. In the Circuit Scale dialog box, click OK. Click to select the insertion point at rung 4 on the top horizontal bus.
5. 6.
The circuit is inserted and component tags are updated. This completes the exercise.
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Lesson: Multiple Phase Circuits In this lesson you learn what three-phase circuits are and how to insert three-phase wires and components in your schematic drawings. The main power supply, especially for machine control designs, is usually in the form of a higher voltage three-phase power supply such as 460V.
Objectives After completing this lesson, you will be able to: ■ ■
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Add multiple-phase ladders and wires to your schematic drawings. Add three-phase components to a multiple-phase circuit.
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Adding Multiple-Phase Wires Three-phase circuits are typically represented in drawings as three parallel wires grouped together. Using the Add Wire command to insert three separate wires to represent the circuit is highly repetitive. To increase your efficiency, you need to learn how to use the Multiple Wire Bus tool.
Multiple Wire Bus Tool The Multiple Wire Bus tool creates wires that are AutoCAD line objects with wire layer assignments, just as the Insert Wire command does. You can use the Multiple Wire Bus tool to draw any number of bus wires at one time. Defaults of two, three, and four wires are provided for you. All of the wires are managed as a group during the insertion process. Wires are drawn parallel to one another, and even corners and connections are completed in a single operation. After the command is completed, the group of wires are separated into individual entities and edited and managed as separate wires.
Three-phase wiring with corners and wire crossing loops
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Multiple Wire Bus
Ribbon: Schematic tab > Insert Wires/Wire Numbers panel > Multiple Bus
Menu Bar: Wires > Multiple Wire Bus Toolbar: ACE: Main Electrical > Insert Wire > Multiple Wire Bus
Procedure: Adding Multiple-Phase Wires The following steps describe how to add multiple-phase wires to your drawings.
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1.
Start the Multiple Wire Bus command.
2.
In the Multiple Wire Bus dialog box, select your desired options, including the spacing, type of insertion, and number of wires.
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3.
4.
5.
Draw unattached multiple-phase wires by selecting the start points and endpoints, similar to the Add Wire command.
Note: Selecting an endpoint ends the Wiring command. To connect to an existing bus, click the Another Bus (Multiple Wires) option.
To use the default phase sequence, select the start point on the bus farthest from the desired direction. For example, if you are drawing a vertical circuit from top to bottom, select the topmost horizontal bus.
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6.
Slowly drag your cursor down over the other bus wires, connecting the new multiple-phase wires to the existing bus wires.
7.
To use the reverse the phase sequence, select the start point on the bus closest to the desired direction. For example, if you are drawing a vertical circuit from top to bottom, select the bottommost horizontal bus.
8.
Drag the cursor slowly across the other bus wires away from the desired direction, connecting new multiple wires to the buses.
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9.
When all the wires are connected to the existing buses, drag your cursor back to the correct side of the bus for placement of the wires.
10. To lock or fix an endpoint but continue with the bus wiring, enter C at the Command prompt.
11. To reverse or flip the phase sequence of the wires when turning a corner, enter F at the Command prompt. The phase sequences are shown normal and flipped.
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Adding Three-Phase Components Typically, components inserted on three-phase wires come in groups of three, one for each phase. To efficiently create this type of drawing, you need to learn what three-phase components are and how to insert them.
Three-phase circuit with multiple examples of three-phase components
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Definition of Three-Phase Components Just like single-phase components, three-phase components are AutoCAD blocks with attributes. You insert three-phase components as a parent with two children. AutoCAD Electrical automatically inserts all of these components in a single operation, establishes the parent and child relationships, and creates the dashed link lines between the components.
Example of three-phase fuse
Procedure: Inserting Three-Phase Components The following steps describe how to insert a three-phase component. 1.
Select a three-phase component for insertion.
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2.
You select one of the outermost buses for insertion of the parent symbol.
3.
You are prompted for the build direction. Click Up or Down for horizontal symbols, and Left or Right for vertical symbols.
4.
Select a build direction. The symbols are inserted and connected with dashed link lines.
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5.
Enter the component information in the Insert/Edit Component dialog box, as you would for a singlephase component.
When inserting a three-phase motor, select an insertion point on the middle rung of the three-phase power. Be sure to slightly overlap the rung endpoint. The threephase motor symbol automatically connects to all three rungs. If the three-phase motor insertion and wire connection does not work properly, make sure your drawing does not already have an older three-phase motor block definition. If it does, you can use the Swap/Update block command to redefine the existing block definition.
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Exercise: Create a Three-Phase Circuit In this exercise, you create a complete three-phase circuit. You will be able to do the following: ■ Insert a three-phase ladder. ■ Insert three-phase wiring and fuses. ■ Insert motor starter, overloads, and motor.
Insert a Three-Phase Ladder 1.
If the Project Manager is not displayed, on the Project tab, Project Tools panel, click Manager.
2.
If Schematic_Components_IEC is the active project, skip to step 6. If it is open but not active, in the Project Manager, do the following: ■ Right-click Schematic_Components_IEC. ■ Click Activate. ■ Skip to step 6. In the Project Manager, right-click in an empty area. Click Open Project.
3.
4.
Completing the Exercise To complete the exercise, follow the steps in this book or in the onscreen exercise. In the onscreen list of chapters and exercises, click Chapter 4: Schematic Components. Click Exercise: Create a Three-Phase Circuit.
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5.
6.
Browse to where you installed the exercise files and select Schematic_Components_IEC.wdp. Click Open. In the Projects list, double-click Schematic_Components_IEC to expand the drawing list. Right-click Schematic_Components_IEC_23.dwg. Click Open.
7.
On the Schematic tab, Insert Wires/Wire Numbers panel, Insert Ladder flyout, click Insert Ladder.
9.
Select an insertion point at approximately 40,260.
Insert Three-Phase Wiring and Fuses
8.
In the Insert Ladder dialog box, do the following: ■ Click 3 Phase. ■ For Phase Spacing, enter 10. ■ For Length, enter 300. (Notice that the number of rungs is calculated automatically, and the length is adjusted to the next half-spacing increment.) ■ Click OK.
1.
Zoom in to area 1-2.
2.
On the Schematic tab, Insert Wires/Wire Numbers panel, click Multiple Bus.
3.
In the Multiple Wire Bus dialog box, do the following: ■ For Vertical Spacing, enter 10. ■ Under Starting At, click Another Bus (Multiple Wires). ■ Click OK.
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4.
Select a start point on the first (top) horizontal bus at reference 1. Drag the cursor down and select the endpoint at approximately 70,140.
5.
On the Schematic tab, Insert Components panel, click Icon Menu.
6.
In the Insert Component: IEC Schematic Symbols dialog box, select Fuses/ Transformers/Reactors.
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7.
In the IEC: Fuses/Transforms/Reactors dialog box, select Fuses.
8.
In the IEC: Fuses dialog box, click Fuse, 3 pole.
9.
Select the insertion point for the fuses on the left rung, just below the three-phase bus.
10. In the Build to Left or Right? dialog box, click Right.
11. In the Insert/Edit Component dialog box, click OK.
3.
In the IEC: Motor Control dialog box, select Motor Starter.
4.
In the IEC: Motor Starter dialog box, click Motor Starter 3 Pole NO (Power).
5.
Select the insertion point for the motor starters on the left rung, just below the threepole fuses. In the Build to Left or Right? dialog box, click Right. In the Insert/Edit Child Component dialog box, click OK. This completes the insertion.
6. 7.
This completes the insertion.
Insert the Motor Starter, Overloads, and Motor 1.
On the Schematic tab, Insert Components panel, click Icon Menu.
2.
In the Insert Component: IEC Schematic Symbols dialog box, select Motor Control.
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8.
On the Schematic tab, Insert Components panel, click Icon Menu.
14. On the Schematic tab, Insert Components panel, click Icon Menu.
9.
In the Insert Component: IEC Schematic Symbols dialog box, select Motor Control.
15. In the Insert Component: IEC Schematic Symbols dialog box, select Motor Control.
10. In the IEC: Motor Control dialog box, select Overload, 3 Pole.
16. In the IEC: Motor Control dialog box, select 3 Phase Motor.
11. Select the insertion point on the left rung just below the motor starter contacts. 12. In the Build to Left or Right? dialog box, click Right. 13. In the Insert/Edit Component dialog box, click OK. This completed the overload insertion.
17. In the IEC: 3 Phase Motors dialog box, select 3 Phase Motor.
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18. Select the insertion point on the middle threephase wire. Be sure to overlap the end of the wire slightly.
19. In the Insert/Edit Component dialog box, click OK. This completes the three-phase motor insertion.
This completes the exercise.
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Chapter Summary In this chapter you learned how to use schematic components in your drawings. Several methods are available to insert schematic components. When starting with an empty project, you use the Icon Menu system to select and insert the component symbols. When panel or schematic drawings exist, you can extract component lists to aid the insertion process. You can also use an external component list as an insertion tool. Some tools, such as the Circuit tools and the Multiple Wire Bus tool, provide intelligence and automation to otherwise repetitive tasks.
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