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DATA
N.º 1.2.060-PG-005-RL-2011 1.2.060-PG-005-RL-2011
KKS GUIDELINE FOR POWER PLANT EQUIPMENT
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INDEX
1
MAIN GOAL
1
2
REFERENCE DOCUMENTATION DOCUMENTATIO N
1
3
CLASSIFICATION
2
3.1
2 2 2 3
Structure 3.1.1 Process identification 3.1.2 Point of installation identification 3.1.3 Location identification
4
PROCESS IDENTIFICATION IDENTIFICATIO N
4
5
ELECTRICAL AND C&I IDENTIFICATION IDENTIFICATI ON
17
5.1
Process related identification
18
5.2
Point of installation Identification
19
5.3
Connection Identification 5.3.1 Connection to components 5.3.2 Connection to Junction Boxes and penetrations: 5.3.3 Connection to installation spaces 5.3.4 Connection to installation units
22 22 22 22 24
5.4
Cable Identification
25
5.5
Cable Conduit Identification
27
6
LOCATION IDENTIFICATION IDENTIFICATIO N
30
7
EXAMPLES IN POWER TRANSMISSION
37
8
EXAMPLES IN IDENTIFICATION IDENTIFICATI ON OF C&I EQUIPMENT
45
9
EXAMPLES IN IDENTIFICATION IDENTIFICATI ON OF COMMUNICATIONS SYSTEMS
49
10
APPENDIXES
51
10.1
52 52 66 68
APPENDIX I – Process Identification 10.1.1 Level 1 – System Code 10.1.2 Level 2 – Equipment Unit Code 10.1.3 Level 3 – Component Code
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KKS Guidelines Guidelines for fo r applied to equipment quipm ent 1
Main Goal This document was made to clarify the application of KKS to equipments for Itaqui and Pecem Projects according to the classification of the international KKS system up-to-date applied to power plants.
2
Reference Reference Documentation Documentati on 1
We will go use the following VGB KKS documents : th
•
Guidelines Guidelines KKS- Identification System for Power Stations, ref VGB-B 105E, 6 edition 08/2007
•
KKS-Application KKS-Applicat ion Explanations E xplanations Part A - General , ref VGB-B 106A E, edition 2004
•
KKS-Application KKS-Applic ation Explanations Part B1-Identification B1-Identif ication in Mechanical Engineering, ref VGB-B 106 B1 E, edition 2004
•
KKS-Application KKS-Applica tion Explanations Part B2 – Identification Identifi cation in Civil Engineering, ref VGB-B 106 B2 E, edition 2004.
•
KKS-Application KKS-Applica tion Explanations Part B2 – Identification Identifi cation in Civil Engineering, ref VGB-B 106 B2 E, edition 2004
•
KKS-Application KKS-Application
Explanations Part B3 – Identification in Electrical and Control and
Instrumentation Engineering, ref VGB-B 106 B3 E, edition 2004 •
KKS-Application KKS-Application
Explanations Explanations Part B4 – Identification of Instrumentation Instrumentation and control
tasks/Functions tasks/Functions in Process Systems and identification of Functions in instrumentation and control systems, ref VGB-B 106 B4 E, edition 2004. and EDP documents: •
Livro de Código de Referenciação Referenciaç ão KKS da Central do Pego, EDP, ref 100.ES.870975.C 100.ES.870975. C
•
Especificação Especific ação Técnica Geral relativa à referenciação dos caminhos de cabos, EDP, ref 305.ES.000802Z.D
•
Especificação Especific ação Técnica Geral de Instalação Instalaçã o e Ligação de Cabos, EDP, ref 305.ES.861455C
•
Especificações Especific ações Técnicas Gerais, Referenciação KKS do equipamento mecânico, EDP, 305.ES.850126.Z
MABE documents: •
KKS Equipment Identification Identific ation Criteria, UTE ITAQUI, ref M004-YZ-PC-0_000_00 M004-YZ-PC-0_000_007, 7, issue 1
•
KKS Equipment Equipment Identification Criteria, UTE PECEM, PECEM, ref ref M006-YZ-PCM006-YZ-PC-0_000_0 0_000_007, 07, issue 1
1
contact :
[email protected] [email protected],, Phone : 49 2018128200 Fax: 49 2018128329
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3
CLASSIFICATION
3.1 Structure The KKS have three types of code that use the same identification scheme, which is subdivided into four breakdown levels. The title of the breakdown levels of the three types of code will be as follows:
3.1.1
Process identification This identification cover the systems and items of equipment according to their functions in mechanical, civil, electrical, control and instrumentation engineering. Plant Unit
System Code
Equipment Code
Component Code
(0)
(1)
(2)
(3)
B
C0 C1 C2 C3 C4 C5 D1 D2 D3 D4 D5 D6 E1
E2
E3
E4
E5
Examples:
Engineering:
(0)
(1)
(2)
(3)
Mechanical
Unit
System
Pump unit
Pump
Civil
Unit
Structure, floor
Rolling door
Motor
C&I for M+C
Unit
System Structure,
Measuring circuit,
Transducer,
floor
Measuring circuit
Temp sensor
System,
Open loop control,
Controller,
Switchgear,
Switchgear assembly,
Fuse,
Electronic cabinet
Measuring circuit
Smoke detector
Electrical and C&I
Unit
Process identification
3.1.2
Point of installation identification Identification of points of installation of electrical, control and instrumentation devices in installation units (cabinets, panels, consoles) Plant Unit
Installation unit code
Installation space Code
(0)
(1)
(2)
B
C0 C1 C2 C3 C4 C5 D1 D2 D3 D4 D5 D6
Examples:
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3.1.3
Engineering:
(0)
(1)
(2)
Electrical and C&I
Unit
Switchgear,
Tier/space,
Electronic cabinet,
Tier/space,
Control console
Coordinate
Location identification Identification of locations in structures, on floors, in the rooms and also of fire areas and topographical stipulations (surface area grid) Plant Unit
StructureCode
Room Code
(0)
(1)
(2)
B
C0 C1 C2 C3 C4 C5 D1 D2 D3 D4 D5 D6
Examples: Engineering:
(0)
(1)
(2)
Civil
Unit
Structure, floor
Room/Coordinates
Outdoor area
Coordinates
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4
PROCESS IDENTIFICATION The structure of the code is : Plant Unit
System Code
Equipment Code
Component Code
(0)
(1)
(2)
(3)
B
C0 C1 C2 C3 C4 C5 D1 D2 D3 D4 D5 D6 E1
E2
E3
E4
E5
In Appendix I they are detailed description of the levels (1, 2, and 3) .
Description of the levels:
B
Level 0 (Plant Unit number ) Examples : 1 = Plant Unit 1, 2 = Plant Unit 2, 3 = Plant Unit 3 A = Common to unit 1 and 2 B = Common to unit 3 and 4 9 = Common to the Power Plant
C0
Level 0 (Special number to identify System code with the same function – reserved field – assume the value 0) Examples: 10
= unit 1 plant
A0
= common equipment to 1-2 units (for example, demineralised water)
90
=common equipment to the plant (for examples, effluent treatment plant, coal
transportation) C1 C2 C3 Level 1 ( System Code) - See the Level 1 KKS codes (Attached 1). Examples: MAA = HP Turbine module HAC = Economizer system PAD = Recirculating cooling system, outfall cooling system MKA = Generator, incl. stator, rotor and all integral cooling equipment
C4 C5
Level 1 (Sub-system). Examples: LAB10 = Feedwater piping system nr. 1 LAC10 = Feedwater pumping system nr. 1
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10MAA10 = unit 1 HP Turbine 10MAC20 = unit 1 LP Turbine nr 2 D1D2
Level 2 (Equipment unit code ) – See the Level 2 KKS codes (Attached 1). Example: LAC10AP = Feedwater pump of system nr. 1 10LAC20AP = unit 1 feedwater pump of system nr 2
D3D4 D5 Sequential number of 000 up to 999 Example: LAC20AP001 = Feedwater pump nr. 1 of system nr. 2 = Feedwater pump nr 2 10LAC10AP001 = unit 1 feedwater pump nr 1 D6
Additional code for subdivision of Level 2. This code is used for discriminate multiple power supplies on the same cabinets, multiple drives, pilot valves of main valves and measuring circuits which share one sensor. Example 1- Multiple power supplies on the same cabinets
Example 2- Multiple drives (equipment unit with 2 drives and with 2 power supplies):
Example 3- Pilot valves of main valves: LAB81AA001A = pilot valve (A) of the feedwater valve nr 1 (LAB81AA001) of the system nr 81
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Example 4- measuring circuits which share one sensor (example Double thermometer):
E1E2
Level 3 (Component Code) – See Level 3 KKS codes (Attached 1)
E1E2
--
Electrical component (to DIN 40719, Part 2)
K
Mechanical equipment KP
M
-M
Pumps
Mechanical equipment MG
Gearboxes
MK
Couplings
Motors
Q
Instrumentation and control component (non-electrical).
X
Signal origin
Y
Signal application
Z
Gated signal
Example 1: Components of a measuring circuit
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E3E4 E5 Numbering, from 000 to 999 There are no generally valid rules for numbering. The numbering must follow the process and not the point of installation. For example, where a number of alarm lamps for a power supply of a pump unit are needed in different installation units (on console, electronic module, switchgear truck), each is to be numbered under the process related code of the pump unit. Example 2: Identification of components within components LAC10AP100-M01 = Feed water pump nr 1 motor
Example 3: Identification of components within C&I
Plug for power cable of actuator : LAB01AA001-Y01-X01
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Example 4 – Water Steam Cycle extraction – PEGO POWER PLANT
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Example 5 – C&I with Mechanical – Feedwater System Process with measuring circuits
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Example 6 – Electrical – Electrical Diagram extraction – SINES POWER PLANT:
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Example 7 – C&I – SINES POWER PLANT
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5
ELECTRICAL AND C&I IDENTIFICATION
Two types of code are necessary for identification of electrical and C&I and functions, as follows: •
Process related code : Identification of electrical and C&I equipment and functions, for example, power transmission, switchgear, transformers, unit protection, functional group control.
•
Point of installation code: For the unique addressing of the points of installation of electrical and C&I components, for example, in control consoles, panels, cubicles and cabinets. In addition to these two types of identification for which the KKS establishes rules, the following codes are necessary :
•
Connection Code When the KKS rules be inadequate it can be used the DIN 40719 Part 2 for connections to identification of installation units, installation spaces and components. The DIN mask is as follow: Installation Unit Code
Installation space Code
N A A A N N A N1 … … ... N8 Max 8 data characters This code should start with an alpha character. •
Cable Code For the identification of cables and wires.
•
Cable Conduit Code For the identification of cable conduits.
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5.1 Process related identification The format is as follows: Plant Unit
System Code
Equipment Code
Component Code
(0)
(1)
(2)
(3)
B
C0 C1 C2 C3 C4 C5 D1 D2 D3 D4 D5 D6 E1
E2
E3
E4
E5
B C0 C1 C2 C3 - according to 3.1.1 C4 C5
This is a numeric code number that is agree during the project. The principles are the following: •
Starts anew when the preceding classifying code element changes;
•
Numbering may be consecutive or grouping;
•
Numbering need to be continuous;
•
Numbering convections, once established, may not be altered;
•
The possibility of later addition to the system should be considered.
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5.2 Point of installation Identific ation The format is as follows:
B
Plant Unit
Installation unit code
Installation space code
(0)
(1)
(2)
B
C0 C1 C2 C3 C4 C5
•
D1 D2 D3 D4 D5 D6
Level 0 (Plant Unit number ) Examples : 1 = Plant Unit 1, 2 = Plant Unit 2, 3 = Plant Unit 3 A = Common to unit 1 and 2 B = Common to unit 3 and 4 9 = Common to the Power Plant
C0
Level 0 (Special number to identify System code with the same function – reserved field – take the value 0) Examples: 10
= unit 1 equipment
A0
= common equipment to 1-2 units (for example, demineralised water)
90
= common equipment to the plant (for examples, demineralised plant , coal
transport) C1 C2 C3 Level 1 ( Installation uni t Code) Example – LV switchgear
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C4 C5
Level 1 (Installation unit number)
D1D2
Level 2 (Installation space code) There are possible methods of installation space identification: •
No subdivision into installation spaces, e.g. 10 kV cubicles. In this case don’t use the Level 2.
•
Subdivision into installation spaces. This correspond to the layout that it was assumed. In this case, D1D2 gives the vertical subdivision (rows) and D 3D4 D5 gives the horizontal subdivision (columns).
The rules that must be applied are: •
Direction and sequence of numbered – The left to the right and the Top to the bottom.
•
Additional data may be necessary and in this case we can use coordinate grids to provide unique identification.
In case of miniature hardware systems we can fix subdivision with coordinate grids. The top left hand corner is used to give the reference of the component.
If it is necessary to create additional fittings
referenced to the grid , numbering starts from the coordinate system origin of the prescribed grid, proceeding in descending order from 1000, against the direction of numbering.
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If it is necessary to create additional fittings not
referenced to the grid, installation zones are identified with first letter of breakdown Level 2.
Subdivision without fixed coordinates. The rules described above are applied. This can be identified by the near row letter or by a sequential numbering.
D3D4 D5 Installation space code (Horizontal subdivision-columns of installation spaces in installation units) D6
Additional code for subdivision of Level 2. Sometimes, in electrical cabinets it is necessary to identify components in depth. In this case we can use the letter E with combination with numbering and letters.
In C&I, the rules for identifying cabinets are the same as switchboards. For control stations and control room desks we can use the following procedure: •
Create a horizontal and vertical grid starting at AA000 (left hand corner).
The area cover different orientations, e.g. from vertical to angled as with the transition from
•
vertical panel to inclined board.
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5.3 Connection Identification 5.3.1
Connection to components The KKS format is according to DIN 40719 Part 2 and is as follows: Plant Unit
Plant
System Code
Equipment Unit Code
(1)
(2)
(0) A1
A2
A3
B
C0
C1
C2
C3
C4
C5
D1
D2
D3
Component
Connection
Code
n
(3)
D4
D5
D6
E1
E2
EN
:
FN
Example – Connection of a circuit breaker for a pump unit: 10LAC20AP001-Q02:03 means 10 = Unit 1 of power plant LAC20 = feedwater pump system no 2 of unit 1 AP001 = feedwater pump unit no 1 -Q02 = electrical component (-), circuit breaker (Q) no 2 03 = terminal 3
5.3.2
Connection to Junction Boxes and penetrations: The format is as follows: Plant Unit
System Code
Equipment Unit Code
(0)
(1)
(2)
B
C0
C1
C2
C3
C4
C5
D1
D2
D3
D4
D5
Connection
D6
:
FN
Example – Connection to a junction box: A0UMA03GP001:03 means A0 = common power plant UMA03 = 3 rd floor of turbine housing GP001 = electrical equipment (G), junction box for lighting (P), junction box no 1 03 = terminal 3 of the junction box
5.3.3
Connection to inst allation spaces The format is as follows: Plant Unit
Installation Unit Code
Installation space Code
(0)
(1)
(2)
B
C0
C1
C2
C3
C4
C5
D1
D2
D3
D4
D5
D6
Connection
:
FN
Example – connection of drawer in LV switchgear 10BBA05.B2:27 means
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10 = Unit 1 of power plant BBA05 = Cubicle no 5 of 6,3 kV switchboard of unit 1 B2 = Tier B, space 2 Example – connection code for cabinet terminal block
Example – connection code for electronic module
Example – Connection code for junction box
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5.3.4
Connection to installation units The format is as follows: Plant Unit
Installation Unit Code
(0)
(1)
B
C0
C1
C2
C3
C4
C5
Connection
:
FN
Example – Connection of terminal block in medium voltage switchgear 10BBA14:27 means: 10 = Unit 1 of power plant BBA14 = Cubicle nº 14 of the 6,3 kV switchboard of unit 1 27 = terminal block no 27
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5.4 Cable Identification The cable identification includes a classifying and a numbered code element. The process-
related or point of installation code is used in part or in full for a classifying element, with the code of the two cable ends which come first in the alphabet generally being adopted for the classifying element of the cable code. The numbering element of the cable nº consists of 4 or 3 numeric and 1 alphabetic data character. The mask is as follows: Classifying Element
Numbering Element
Process-related Code (see 3.1.1)
Number
Plant Unit
System Code
Equipment Unit Code
(0)
(1)
(2)
B
C0 C1 C2 C3 C4 C5 D1 D2 D3 D4 D5 D6 N N N
A/N
Or
Point of installation Code
Number
Plant Unit
Installation location code
Installation space Code
(0)
(1)
(2)
B
C0 C1 C2 C3 C4 C5 D1 D2 D3 D4 D5 D6 N N N
A/N
In general the cables are identified with the code of the cable destination which is first in alphabetic order. The numbering element of the cable no comprises four numeric data characters or three numeric and one alfa data character. The numeric data characters may be used four grouping within the cable no; when it is necessary
the alfa data character may serve to
distinguish parallel cables or application areas for example. Grouping of the cable no is recommended in order to keep agreements on the allocation of cable nos during planning to a minimum and to prevent multiple allocation of cable nos, e.g. group by technical application areas, suppliers, etc. The first digit of the four numeric data characters serves to identify the application area, the three other numeric data characters to number cables within that area. NNNN
Application area
0---
Power cables > 1 kV
1---
Power cables ≤ 1 kV
2--- till 3---
C&I cables > 60 V
4--- till 9---
C&I cables ≤ 60 V
Examples – cable no
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Cable Start
End
+BBA02
+BBT01GT002
(6kV incoming feeder)
(LV aux transformer)
+BBA08
+LAC10AP001
(6 kV switchgear)
(feedwater pump)
+BFT01GT002
+BCD03.A01
(LV aux transformer)
(LV switchgear)
+BFE00.G01
+HFC01AP002
(LV switchgear)
(Mill no 1)
+CHA12.BA112 (Generator
protection
cabinet)
+BBA03CE002 (Generator loads)
+CDA14.AA096
+BBA06.B02
(Control interface cabinet)
(LV switchgear)
+COA14.AA096
+CWA12.CA016
(Control interface cabinet)
(Main Control room)
+UMA07GB0C1
+CDA14.HA130
(Junction box)
(Control interface cabinet)
+LAC01AA024
+UMA07GB002
(feedwater valve)
(junction box)
+DAC07.CB112
+CWC04.AE020
(hybrid cabinet for conveyor)
(Coal Control room)
+XJA20AA005
+UBN01GE006
(Diesel engine valve)
(junction box)
Application area
Cable no
Voltage > 1kV
+BBA0027
Voltage > 1kV
+BBA0050
Voltage
≤
1kV
+BCD1034
Voltage
≤
1kV
+BFE1096
Voltage > 60V
+BBA2121
Voltage
≤
60V
+BBA4120
Voltage
≤
60V
+COA4099
Voltage
≤
60V
+CDA5260
Voltage
≤
60V
+LAC4026
Voltage
≤
60V
+CWC7001
Voltage
≤
60V
+UBN9009
If for example, the above examples are applied to Unit 1 of power plant then we must include on the beginning the text “10” to the Cable no.
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5.5 Cable Conduit Identification To identify the cable conduit we will go use the EDP specification based on the KKS installation code with the following mask: Plant Unit
Installation unit code
Conduit type code
(0)
(1)
(2)
B
B
C0 C1 C2 C3 C4 C5 D1 D2 D3 D4 D5 D6
Level 0 (Plant Unit number ) Examples : 1 = Plant Unit 1, 2 = Plant Unit 2, 3 = Plant Unit 3 A = Common to unit 1 and 2 B = Common to unit 3 and 4 9 = Common to the Power Plant
C0
Level 0
(Special number to identify System code with the same function –
reserved field – take the value 0) Example: 10 C1 C2 C3
= unit 1 equipment
Level 1 (Installation unit Code) Example: UMA= turbine housing
C4 C5
Level 1 subdivision Example: UMA01 = zone 1 of turbine housing
D1 D2
Level 2 (Conduit type) We have the following conduits type: EH = Horizontal conduit – conduit in horizontal or non-vertical position EV = Vertical Conduit – conduit in vertical position CI = Individual conduit – conduit for one consumer derived of one general conduit. It can be in a pipe, cable support or clamp iron. CE = Exterior conduit – conduit inside a concrete channel CV = Burried conduit – conduit in trench cable T* = Tunnel conduit – conduit inside concrete tunnel. The * can be the letters A, B, C, … and is used to do the subdivision of the tunnel in sections. TE = crossing road – when the conduit cross one road. Example:
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UBZ02TC = tunnel no 2, section C D3 D4 D5
Level 2 Subdivision (Shelf) It is a numeric field and have the following rules: D3 - define the level/position of the shelf and increase from top to bottom (0
•
till 9); D4 – define the channel. The electrical philosophy concept is made in dual
•
channel (A, B). This means that any dual equipment must have assigned one dual conduit cable. In this way we increase the availability of the plant because half of the plant is put out of service in case of a cable firing. For example, each feedpump motor must be supplied by different conduit cable. Then we will go use odd numbers for channel A and even numbers for channel B. It assume the numbers : o
A = 1,3,5,7 and 9
o
B = 2, 4, 6 and 8
When the equipment is not dual, for example, diesel engine, we will go use for the cable the conduit that have less cables. D5 – sequential number of the main conduit or derivation. Assume the values
•
0 till 9. The number remains unchanged when there is path changing except when
•
occurs changing on the dimension, cross road or mounting type.
Example: If the conduit UBA01EH110/B changes to vertical position the reference changes to UBA01EV110/B. The reference gives the exactly path that conduit do. There will be different numbers according to the voltage levels, e.g. power
•
cables for medium and low voltage, cables for C&I and other cables (telephone lines, intercom, etc). Example: UBZ02TC006 = tunnel no 2, section C, shelf no 6 D6
This character is to identify the conduit design voltage level. It takes the following letters:
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A = Voltage level ≤ 60 V
•
B = Voltage level > 60 V
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•
C = Voltage level ≤ 1 kV AC (LV voltage including illumination)
•
D = Voltage level > 1 kV AC
•
E = Voltage level ≤ 1 kV AC (Batteries, rectifiers, emergency pumps)
•
F = Telecommunication cables (telephones, intercom, etc)
When one conduit serves more then one voltage levels it must indicate all levels. Examples: UMA01EH110/B UMA01EH210/B/E
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6
LOCATION IDENTIFICATION See DIN 40719 Part 2 for all detailed description Description of the levels:
B
Level 0 (Plant Unit number ) Examples : 1 = Plant Unit 1, 2 = Plant Unit 2, 3 = Plant Unit 3 A = Common to unit 1 and 2 B = Common to unit 3 and 4 9= Common to the Power Plant
C0
Level 0 (Special number to identify System code with the same function – reserved field- now take 0)
C1 C2 C3
Level 1 (Structure code) - See the Level 1 KKS codes (Attached I). Examples: UBA = Electrical Building UBB = Building for general electrical services UHA = Boiler House UMA = Steam turbine building URA = Cooling tower UST = workshop building UZT = Outside area UYE = Gate house
C4 C5
Level 1 (Sub-system). Examples:
Variant 1 : each structure is considered individually. This means that the numbers don’t correspond to the same level in all structures.
UHA07 = Boiler house level 7 (+17.60 m in the example) UMA03 = Steam turbine level 3 (+3.00 m in the example)
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Variant 2 : each structure is considered global and there is the floor numbering. The lower level can start with the number 02 to introduce after during the planning the 01 for pump pits. The floors, platforms receive even numbers and the intermediate floors and platforms receive the odd numbers. UHA14 = Boiler house level 14 (+17.60 m in the example) UMA06 = Steam turbine level 6 (+3.00 m in the example)
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Variant 3 : each structure is considered global and the objective is identifying floors at comparable elevations with the same floors numbers. The numbering start with 02 for the lowermost floor of the power station. Further the floors number are determined by the ground floors at station grade level, the control room, burner levels, etc. The structure having the smallest spacing between levels governs the sequence of numbering. UHA24 = Boiler house level 24 (+17.60 m in the example) UMA12 = Steam turbine level 6 (+3.00 m in the example)
Variant 4 : each structure is considered global and the correlation between floor numbers and ranges of elevations are agree before start the identification.
UHA27 = Boiler house level 27 (+17.60 m in the example) UMA13 = Steam turbine level 13 (+3.00 m in the example)
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D1D2
Level 2 (Room code) D1 = R
Room (may be omitted if code remains unique)
S
Fire area (must always be written)
D2 = is not used in numbered room codes but we can use to number the outside areas. In this case it take the letters A, B, …. Example : UZT 00 RA 615 = Outside area UZT nr 00, nr A, abscissa 6 and ordinate 15. D3D4 D5 Sequential number of 000 up to 999 or 100s or 10s grouping. The numbering can be governed by: o
First from West East, then from South North
o
Cartesian coordinates coordinates (first (first from from XX and then in YY direction)
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o
Polar coordinates coordinates (clockwise (clockwise in a building). building). Starting Starting a) at ground ground level to the left left of the main entrance b) on the other floors to the left of the main stairway.
o
Identification the rooms by Coordinates Coordinates
Exemplo: UYP00RF161 = Room nr 161 with 1 of abscissa and 61of ordinate of the Fire Fighting System on floor zero In case of Outdoor area (code UZT) we can use this kind of reference and we can use :
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Example (Variant 1):
Example (Variant 2):
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Example (Variant 3):
D6
Additional code for subdivision of room number Level 2.
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7
EXAMPLES IN POWER TRANSMISSION For power transmission is recommended to follow the rules: •
Numbering in groups of ten
•
Starting from generator neutral
•
90s numbering for generator leads ventilation system
Example 1 - Single Line diagram Use the following rules for transformers: •
BA for generator transformers, BC for start-up transformers, direction of energy flow.
•
Cooling for transformers under group B, water cooling under P, Fire fighting under S, stationary fire protection under SG.
•
The windings of transformers are identified in the equipment unit code with GT for transformer equipment and numbered in D 3D4D5 starting from high voltage side.
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Example 2 – Identification of generator leads with generator breaker, auxiliary equipment for earthing and ventilation of generator leads.
Example 3 – Equipment units of generator transformer BAT10 are classified with pertinent coding letters. Pump units
BAT10AP….
Fan units
BAT10AN….
Temp measuring circuits
BAT10CT….
Junction boxes/terminal boxes
BAT10GA…..
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Example 4 – Windings identification
Example 5 – Auxiliary power supply (switchgear, batteries, battery chargers, inverters) These units are classified, depending on their locations, in the alpha element of breakdown level 1 and numbered in the numeric element as units (cubicles, rows,etc). normally the C 1C2C3 of Point of installation Identification are sufficient.
The batteries for equal voltage levels and for the same tasks may be numbered in C1C2C3 of Point of installation Identification . The method of numbering must be agree during the project (C 4C5). Example 6 – Emergency generating sets (Diesel) This is classified under BRV group. Because this group is limited we must use the X group that gives more definition.
The Cubicle 4 = XKA01GS001+BDC04
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Example 7 – Incoming Feeders and Tie Feeders for auxiliary power supply The classification is based on the destination principle, i.e. outgoing, incoming and tie feeders receive the process related code of the recipient. Cubicle 3 of unit1 plant: Process related code = 10BHT30GT001 Point of installation <> +BBC03
Cubicle 2 of unit 1 plant: Process related code = 10BHT30GT002 Point of installation <> +BHC02
Note: Transformer code: High Voltage = GT001 Low Voltage = GT002
Example 8 – Cubicles for auxiliary buses The cubicles receive the code of the transformer. Cubicle 2: Process code=+BBT10GT001 Point of installation= BBA02 Cubicle 3: Process code=+BBT10GT001 Point of installation= BBA03
Example 9 –Incoming feeder of a battery system and DC distribution board
BHA Cubicle 2: BTL11GU100+BHA02
BUA Cubicle 4: BTL12GU100+BUA04
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Example 10 – Incoming/tie feeders of distribution boards
This example demonstrates the problem of process related codes. The BBA switchboard supplies BBE and BCA. Both receive BBA code. Two variants are possible: Variant 1 – Use the C 4C5 to discriminate (00 till 99) and GS for switchgear equipment Cubicle 2 of BBE = BBA00GS001+BBE02 Cubicle 1 of BCA = BBA00GS002+BCA01 Disadvantage : Destination not immediately apparent (cubicle not indicated) Variant 2 – Addition of actual cubicle no of destination in C 1C2C3. Cubicle 2 of BBE = BBA04+BBE02 Cubicle 1 of BCA = BBA07+BCA01 Disadvantage : Dependence in planning on destination and therefore susceptible to change.
Example 11 – Outgoing feeders for loads (one Supply) The feeders receive the KKS process code of the load.
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Example 12 – Multiple Supplies When the supply is multiple use D 6 –Point of Installation Code to discriminate:
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Plant System
System Code
Equipment Code
Component Code
(1)
(2)
(3)
Unit (0)
B
C0 C1 C2 C3 C4 C5 D1 D2 D3 D4 D5 D6 E1 E2 E3 E4 E5
Ash conveyor
9
0
E
T
K
0
1
A
F
0
0
1
Motor 1
9
0
E
T
K
0
1
A
F
0
0
1
Supply for Motor 1
9
0
E
T
K
0
1
A
F
0
0
1
Coupling 1
9
0
E
T
K
0
1
A
F
0
0
Eldro clutch
9
0
E
T
K
0
1
A
F
0
Supply for Eldro
9
0
E
T
K
0
1
A
F
9
0
E
T
K
0
1
A
Eldro clutch
9
0
E
T
K
0
1
Supply for Eldro
9
0
E
T
K
0
Gearbox 1
9
0
E
T
K
Motor 2
9
0
E
T
Supply for Motor 2
9
0
E
Coupling 2
9
0
Eldro clutch
9
Supply for Eldro
-M
0
1
1
M K
0
1
0
1
-Y
0
1
0
0
1
F
0
0
1
M B
0
1
A
F
0
0
1
-Y
0
3
1
A
F
0
0
1
0
1
A
F
0
0
1
M G
0
1
K
0
1
A
F
0
0
1
-M
0
2
T
K
0
1
A
F
0
0
1
E
T
K
0
1
A
F
0
0
1
M K
0
2
0
E
T
K
0
1
A
F
0
0
1
-Y
0
2
9
0
E
T
K
0
1
A
F
0
0
1
9
0
E
T
K
0
1
A
F
0
0
1
M B
0
2
Eldro clutch
9
0
E
T
K
0
1
A
F
0
0
1
-Y
0
4
Supply for Eldro
9
0
E
T
K
0
1
A
F
0
0
1
9
0
E
T
K
0
1
A
F
0
0
1
M G
0
2
Shoe brake 1
Shoe brake 2
Gearbox 2
A
C
E
B
D
F
Example 13 – Instrument Cubicles in Switchgear The KKS is derived of the point of installation code.
Example 14 – Variable speed mill air fan
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The converter is subdivided into: Converter transformer and reactors •
Transformer
+BPA01
•
Reactor 1
+BPA02
•
Reactor 2
+BPA03
•
Cabinets for converter set 1
+BPA1
•
Cabinets for converter set 2
+BPA2
•
Cabinets for converter set 3
+BPA3
•
Cabinets for converter set 4
+BPA4
Converter sets
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8
EXAMPLES IN IDENTIFICATION OF C&I EQUIPMENT The C&I equipment is identified in the Function key in main groups C and D. The group D is reserved and can be used if C and D is not sufficient. The identification of C 1C2C3 is made with the following principles: •
According to subordinate control and instrumentation task, e.g. instrumentation, open loop control, closed loop control in separate cabinets. o
The majority of C2 coding letters of the main group C is allocated in accordance with this principle.
•
Cabinets containing a variety of equipment (hardwired instrumentation, open loop control, closed loop control together with the power unit in one cabinet). o
•
In this case identification is according to main C&I task on a priority basis.
Structure according to overall C&I task for the process, e.g. functional complexes, unit coordination level, process computer systems, reactor protection, programmable hardware systems. o
Certain groups within the main groups such as CJ for unit coordination level, CK for process computer systems, CL for reactor protection have been specified for this purpose;
groups
CM-CT
are
freely
available
for
system
combination
(e.g.
programmable hardware systems) and also main group D if groups CM-CT are insufficient. The data character C 3 is unreserved for almost the entire group C for C&I equipment. Subdivision is possible as required within the terms of stated definition. Example 1 – Available for subdivision Local control station are assigned to CX. We can discriminate the Coal Power Plant control stations as follow: Coal supply system
CXA
Ash removal system
CXB
•
•
•
Cooling Water system
CXC
•
Diesel system
CXD
Example 2 – Power Supply, Ventilation and Monitoring cabinets Every cabinet is identified on Level 1 and the Level 2 is used to increase the subdivision. For example: •
Power Supply
GW
•
Temp measurement circuit
CT
•
Cabinet fan
AN
•
Heat exchanger
AC
Electrical monitors, measuring circuits
•
•
Position measurement
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The Level 3 is used for lamps, pushbuttons, limit switches, etc according appendix 1.
Note 1) – Multiple incoming feeders are numbered according 3.2 - example 12, e.g. GW001A and GW001B. For this example we used the CCA03 cabinet.
Example 3 – Peripheral equipment for information display and process control Here is included information display and manual control equipment such as video display units, multipoint selection switches, multiple recorders and release pushbuttons which cannot be positively assigned to an equipment unit or a system. We use Level 2 to identify these equipments and the following codes: Multiple recorders, multipoint selection switches (for physically
•
CU
dissimilar variables) •
Release pushbuttons
QS
•
Peripherals for information display
GK
The following rules apply to multiple recorders/multipoint selection switches:
•
Recording/measurement of identical physical variables from one system with one device.
In this case the indicator/recorder use the KKS level 2 of the measurement and level 3 starts with 9.
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•
Recording/measurement of dissimilar physical variables from one system with one device.
In this case the indicator/recorder use the KKS level 2 of the measurement and level 3 starts with CU.
•
Recording/measurement of dissimilar physical variables from different systems with one device. When is used shared control and protection equipment, we use for level 1 the letter Y. The C&I which serves more then one main group is identified under C group, e.g. control room CWA.
•
Peripheral devices for information display This is the case of the process computer that is identified by CKA and the level 3 by GK.
Example 4 – Junction Boxes On Level 1 the junction box receive the code of the structure and floor on which they are installed. Exceptions are junction boxes for main machine sets/heavy machinery/electrical and C&I cubicles and cabinets which receive the Level 1 of the associated main machine/heavy machinery/cabinet. On Level 2 we use the letter G in C 1 and A-F in C 2. It is possible to subdivide junction box systems in C2 as appropriate to the plant configuration, e.g. separate junction box systems for analog and binary transmitters. For example we use GA for binary signals connected to the field, GB for binary not connected to the field and GP for lighting (see Attached 1). The numbering is made separately on each floor.
A0UMA03GB004 – Junction box for binary signals common to units 1+2 not connected to rd
the field nr 4 on 3 floor of turbine housing rd
A0UMA02GP001 - Junction box for lightning nr 1 on 2 floor of turbine housing common to units 1+2 10MAC01GA001 – Junction box for binary signals connected to the field nr 1 of LP turbine 1 of unit 1.
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Example 5 – Component identification for circuits connected to electrical junction box To identify the circuits of one junction box we use on Level 2 the letter –E followed by the codes of the individual components in the circuit.
Example 6 – Cable penetration Cable penetrations into and inside structures do not receive separate code. For electrical equipment such as transformers and generators they receive Level 2 equal to GG. Example 7 – Transducer racks, supports and frames This auxiliary equipment is identified like junction boxes on Level 1 and use GZ on Level 2. rd
A0UMA03GZ002 = transducer rack nr 2 on 3 floor of turbine housing common to units 1+2.
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9
EXAMPLES IN IDENTIFICATION OF COMMUNICATIONS SYSTEMS The Identification will be according to task - process-related identification The identification uses the KKS normal principles. We use AY for Grid and Distribution Systems and CY for Power Plants into Level 1 (attached 1). Example 1 – Fire Alarm System 10CYE41CP320-B15 means: Level 0:
10 = power plant unit 1
Level 1:
CYE41 = Fire alarm system, cabinet 1 of control centre 4
Level 2:
CP320 = Measuring circuit type (pressure), instrument loop nº 320
Level 3:
B15 = Fire alarm nº 15 in the loop no 320
Example 2 – Alarm System 10CYN12315-H12 means Level 0:
10 = power plant unit 1
Level 1:
CYN12 = Alarm system, cabinet 2 of control centre 1
Level 2:
315 = serial number of alarm 15 of Alarm group no 3
Level 3:
H12 = Acoustic signalling equipment (loudspeaker) no 12 in loop 15
The Level 2 can also be written as: 10CYN12EK315-H12. Example 3 – Control console telephone system (two way intercom system) A0CYB13204 means Level 0:
A0 = power plant unit 1+2
Level 1:
CYN13 = Control console telephone system, cabinet 3 of the control centre 1
Level 2:
204 = serial number of alarm 15 of Control centre no 2
Level 3:
H12 = Acoustic signalling equipment (loudspeaker) no 12 in loop 15
The Level 2 can also be written as: A0CYB13GK204 Example 4 – Telephone system (PABX) A0CYA01259 Level 0:
A0 = power plant unit 1+2
Level 1:
CYA01 = Telephone system, control centre 1
Level 2:
204 = serial number of alarm 15 of Control centre no 2
Level 3:
H12 = telephone no 259
The Level 2 can also be written as: A0CYA01GK259
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Example 5 – Clock system A0CYF13-P71 Level 0:
A0 = power plant unit 1+2
Level 1:
CYF13 = Clock system, output no 3 of master clock no 1
Level 3:
P71 = Clock no 71 of output 3
We can introduce the Level 2 and it can also be written as: A0CYF13GK001-P71 Example 6 – Optical monitoring (plant CCTV system only) A0CYP14GK002-H12 Level 0:
A0 = power plant unit 1+2
Level 1:
CYP14 = Optical monitoring system, CCTV system (1), system 4
Level 2:
GK002 = Television facility (GK), crossbar distribution no 2
Level 3:
H12 = monitor, serial no 12
Example 7 – Radio System (radiotelephone system) A0CYS01-W02 Level 0:
A0 = power plant unit 1+2
Level 1:
CYS01 = radio system, system 1
Level 3:
W02 = Antenna (W), antenna no 2
We can introduce the Level 2 and it can also be written as: A0CYS01GK001W02 Example 8 – Junction boxes for communications systems The rules are the same as used on junction boxes of C&I (3.3). The Level 1 assume the place where is installed. The letters for Level 2 are GM for junction boxes for national telecommunications service and GY for the others. A0UMA03GY001 means: A0 = power plant unit 1+2 UMA03 = 3 rd floor of turbine housing GY001 =Junction box no 1 of 3 rd floor
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10 APPENDIXES
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10.1 APPENDIX I – Process Identification
10.1.1
Level 1 – System Code
This level 1 have 3 identification letters that are defined on the KKS code. Examples:
A = Grid and distribution systems AD = > 220 (245) kV systems ADA = Voltage transformers ACB = line traps ACC = Coupling capacitors ACE = Disconnectors ACF = Circuit breakers ACG = Current Transformers ACH = Lightning arresters AF = 60 kV switchgear AR = Equipment for protection ARA = Line protection cubicles ARA01=Disturbance recorder ARA02=Main line protection cubicle ARA03=Reserve line protection cubicle AS = Decentralized panels and cabinets ASJ = Automated controls, closed loop control ASM= Measuring equipment ASP = Recording ASQ = Metering ASR = Protection ASS = Synchronization AST = Transformation ASV = Group, intermediate and general terminal blocks ASW = Indication, manual operation, monitoring ASX = Alarm annunciation B = Power transmission and auxiliary power supply BA = Power transmission BAA = Isolated phase bus ducts
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BAB = Generator neutral cubicle BAC = Generator load breaker BAT = Main Transformer BAW = Earthing and lightning protection BAY = control and protection equipment BB = 6 kV unit switchgear and unit transformer BBA = 6kV unit switchgear 1 BBB = 6kV unit switchgear 2 BBT = Unit auxiliary transformer BC = 6 kV general services switchgear BCD = 6 kV Overland conveyor switchgear BCF = 6 kV Coal yard switchgear BF = Unit System, 660 V Load centers and load center transformers BFA = 660 V Turbine Load Center 1 BFC =660 V Boiler Load Center 1 BFG =660 V Pulverizer Load Center 1 BFT = Load center transformers 6/0.6 kV BM = Emergency power system BR = Uninterruptible power supply BT = DC generation BU = DC distribution C = Instrumentation and control equipment CB = Functional group control, partial control (Drive and Group Control) CBA = MCC for Sootblower CBB = Control cubicles for hoppers of boiler CBC = Cubicles for Turbine/Generator CC = Binary system conditioning CCA = Cubicles for Boiler CCB = Cubicles for Turbine/Generator CE = Annunciation CEA = Cubicles for fault annunciation systems CEJ =Cubicle for disturbance signal recording for Boiler CEK =Cubicle for disturbance signal recording for Turbine/Generator CF = Analog signal conditioning (and Binary if both in the same cubicle) CFA = Cubicles for Boiler CFB = Cubicles for Turbine/Generator CFD = Metering cubicles CG = Analog Control (not including actuators)
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CGA = Cubicles for Boiler CGB = Cubicles for Turbine/Generator CH = Protection (not drive level) CHA = Cubicles for unit protection CHB = Cubicles for protection of Station Auxiliary Power, Diesel plant, etc (Generator, transformers, motors) CHC = Cubicles for Generator Protection and Transformer Protection CHE = Cubicle for Boiler protection CHF = Cubicle for Turbine protection CJ = Unit Control level (not drive and group control cubicles and analog control cubicles) CJA = Unit control system (mimic and panels control room) CJD = Start-up control, unit reference value control CJF = Boiler control system CJJ = Plant Start-up program CJK = Turbine Control System CJL = Binary and analog control CJM = Reclosing device CJU = Instrumentation and control for other main machine sets CJW = Binary control cubicles for electrical systems CK = Process computer system CKA = Computer panels CKB = Computer Printers CKV = computer interface cubicles for boiler CKW = computer interface cubicles for Turbine/Generator CT = Auxiliary cubicles CTA = Auxiliary cubicles for Generator and Transformer Protection (intermediate current and voltage transformers, etc) CTB = Interposing cubicles for Turbine/Generator CTE = Local cubicles for Boiler auxiliary equipment CTF = Local cubicles for Turbine auxiliary equipment CU = Analog Control (actuators, if not included in the switchgear) CUA = Cubicles for excitation CV = Marshalling racks (signal distribution cubicles) CVA = signal distribution cubicles general CVC = Marshalling cubicles CVP = Measurements distribution CVR = Marshalling cubicles for Boiler CVS = Marshalling cubicles for Turbine/Generator
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CVT = Marshalling cubicles for Control Room CVW = Marshalling cubicles for Process computer CW = Control Room CWA = Primary Desk control of the Main Control Room CWB = Secondary Desk control of the Main Control Room CWF = Vertical panels of the Main Control Room CWG = Voltage Signal distribution cubicles CX = Local control panels or consoles CXB = Local panels for minimum flow of the feedwater pumps CXC = Main Condenser cleaning system CXD = Water cooling system for air compressors CXE = Air ventilation system and air conditioning system CXK = Chemical injection cubicles CXL = Sampling and chemical continuous monitoring system CXM = Auxiliary steam cubicles CXN = Lube oil Purification system CXP = Diesel generator control cubicles CXR = Coal handling system cubicles CXS = Effluent treatment control panels CXT = Generator breaker control cubicle and earthing system CXW = H2/CO2 local signalling box CY = Communication equipment CYA = Telephone installation (PABX) CYB = Intercom system CYC = Staff alarm and location system CYE = Fire alarm system CYF = Master clock system CYG = Telecontrol system CYJ = Telecounter system CYK = High frequency system CYP = optical supervision system CYN = Alarm System CYS = Radiotelephone system D= Instrumentation and control equipment (for use only when the function keys CM to CT are insufficient for the identification) E = Conventional fuel supply and residues disposal EA = Coal transport and storage system EAB = Conveyor harbour area
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EAC = Transport system EAD = Coal stacking equipment EAE = Coal site storage EAG = Coal reclaiming equipment EAT = coal weighing equipment EAU = Coal sampling equipment EC = Coal distribution system ECA = Conveyors from site storage to bunkers ECB = Shuttle conveyors ECD = Coal mobile equipment ECT = Coal weighing equipment before bunkers input ECU = Coal sampling equipment before bunkers input EG = Fuel oil supply EGA = fuel oil reception EGB = Fuel oil and slop tanks EGC = fuel pumps EGD = fuel oil piping system EGT = fuel oil heating system ER = Lightning fuel supply (Propane gas supply unit) ET = Ash removal, storage and disposal plant ETC = Bottom ash hopper and drag link ETE = Bottom ash silo ETG = Conveyor plant for fly ash ETH = Fly ash silo ETJ = Conveyor plant for fly ash ETK = ash disposal plant ETL = ash disposal area ETN = bottom ash water recover system F = Handling of nuclear equipment G = Water supply and disposal GA = Raw water supply GAA = Raw water intake and filtration GAC = raw water piping GAE = Raw water chemical treatment system GAF = Pumping system GB = Raw water Treatment plant GBB = Sand filtration system GBK = piping
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GBN = Equipments for chemical injection GBP = Equipment for regeneration and sand filter cleaning GBS = Decanter GBY = Equipment for control GC = Treatment system (demineralization plant) GCF = Ion change, reverse osmosis system GCH = Degasifier GCK = piping GCL = Water Demineralization tank GCN = Chemical storage tank GH = Raw and demineralised water distribution GHA = Raw water distribution GHC = Demineralised water distribution GHH = Service water distribution 1 GHK = Service water distribution 2 GK = Drinking water production and distribution GKA = Production GKB = Storage GKC = Distribution GN = Industrial waste water Treatment Plant GNA = waste water tanks equipments GNB = oil separation equipments GNK = Piping GNM = clarifier/decanter equipments GNN = storage and chemical dosing equipments GNS = sludge thickening equipments GNY = plant control equipments GR = Domestic waste water treatment plant GRC = Mechanical purification equipment GRK = internal piping GRY = plant control equipments GU = Rain water collecting and drain system GV = Rain Water treatment GVB = Mechanical purification system GVK = internal piping GVY = plant control equipments H = Conventional heat generation HA = Pressure system, feedwater and steam sections (steam water cycle)
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HAC = Economizer system HAD = Evaporator system HAH = HP superheater system HAJ = Reheater system HAN = Drains and vents of pressure system HB = Support structure, sheathing HBA = framework including foundations HBB = enclosures, insulations HBC = brick linings including insulating brickwork HBD = platforms, stairways HC = Flue gas side heating surface cleaning equipment HCB = Steam blowing system HCC = Water blowing system HF = Bunker, feeder and pulverizing equipment HFA = Coal bunkers HFB = Pulveriser feeding system HFC = Pulveriser HFE = Pulveriser primary air HFH = pyrite mill reject system HFV = Pulveriser lubricating lube oil system HFW = Pulveriser sealing air system HH = Main Firing HHA = Main Coal burner equipment HHE = Pulverised coal, conveyance and distribution from pulveriser outlet to burner. HHL = Combustion air supply (secondary air) HJ = Ignition firing HJA = Ignition burner (fuel oil) equipment HJF = Heated fuel oil conveyance and distribution HJG = Atomizing medium supply (steam) HJQ = Cooling medium supply (air) HJT = Heating medium supply (steam) HL = Combustion Air System HLA = Ducting system HLB = Forced Draught fan, sealing air and penthouse pressurization fans HLC = Steam air heater HLD = Regenerative air heater HLV = Lubrication oil system for F.D. fan, P.A. fan and I.D.F. fan HN = Flue gas exhaust (without flue gas treatment)
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HNA = Ducting system HNC = Induced Draught Fan system HNE = Chimney HQ = Electrostatic precipitator HY = Instrumentation and control equipment for boiler J = Nuclear heat generation K = Reactor auxiliary systems L = Steam, feedwater and condensate circuits (water-steam cycle) LA = Feedwater system LAA = Feedwater tank and dearator LAB = feed water piping (from feedwater tank outlet to to boiler inlet) LAC = Feedwater pump system LAD = Feedwater preheating LAE = HP water injection system LAF = IP injection water system LB = Steam System LBA = Live Steam piping system LBB = Hot Reheat Steam piping system LBC = Cold Reheat Steam piping system LBF = HP bypass LBG = Auxiliary steam piping system LBQ = Extraction steam piping system for feedwater preheating LBR = Auxiliary turbine piping system LBS = Extraction steam piping system for main condensate heating and heat exchangers. LC = Condensate System LCA = Main condensate piping system LCB = Main condensate pumping station LCC = Main condensate preheating LCE = Condensate injection water system LCF = Auxiliary turbine condensate piping system LCG = Auxiliary turbine condensate pumping system LCH = feedwater heating condensate system LCJ = Main condensate feedheating and heat exchanger condensate system LCM= Drains and vents of condensate system LCN = Auxiliary steam condensate system LCP = Stand-by condensate system including storage and conveyance LCQ = Steam generator blowdown LCR = Sans-by condensate distribution piping
N.º 1.2.060-PG-005-RL-2010
REV.: 1
FL.: 59 / 74
LCN = Condensate seal water system M= Main machine sets MA = Steam turbine plant MAA = HP Turbine MAB = IP turbine MAC = LP turbine MAD = Bearings MAG = Condenser MAJ = Evacuation MAK = Couplings between driving and driven machines (turbine-generator, shaft barring gear,..) MAL = Draining and venting systems MAM= Steam extraction system (flanges) MAN = LP Bypass including injection MAP = Turbine start-up system MAV = Lubrication oil system MAW = Sealing, exhaust, heating and cooling steam system MAX = Non-electric control, regulation and protection equipment including medium supply MAY = Electric control, regulation and protection equipment MK = Generator plant MKA = Generator Stator and rotor MKB = Exciter set including diodes or brush assembly MKC = Generator exciter set MKD = Bearings MKF = Water cooling system MKG = Hydrogen cooling system and air cooler MKK = Power transmission coupling MKW = Sealing oil system MP = Common equipment for Turbine Generator Plant MPA = Foundation MPB = Sheating MPG = Frame, supports MPR = Forced Cooling System MPS = Heating and Conservation equipment for maintenance purposes MV = Lubricating oil supply and storage MVA = Oil storage and reticulation system MVX = Non electric control, regulation and protection equipment including medium supply N = Process energy/fluid supply for external users
N.º 1.2.060-PG-005-RL-2010
REV.: 1
FL.: 60 / 74
P = Cooling water systems PA = Circulating water system PAA = Mechanical cleaning system (racks and screens) PAB = Piping PAC = Circulating water pumping system PAD = Mechanical equipment of Cooling Tower PAH = Condenser cleaning system PAV = Circulating Water pump Lube oil system PAY = Instrumentation and control PB = Chemical conditioning of Circulating water system PBX = Piping PBY = Control Equipment for conditioning system PC = Secondary Cooling Water System PCB = Piping PG = Closed Cooling water system PGA = Inlet Piping PGB = Return piping PGC = Pumping station PGD = Intermediate cooler PGK = Pressurizing system Q = Auxiliary systems QC = Central Chemical Supply including storage QCA = Hydrazine supply and distribution QCC = Phosphate supply and distribution QCD = Ammonia – hydrazine supply and distribution QCH = Chlorine supply and distribution QCK = Piping and accessories~ QE = General compressed air and conveying air supply QEA = Service air generation QEB = Service air distribution (not for boiler, not for turbine house) QEH = Service air distribution for boiler house QEM = Service air distribution for turbine house QF = General Control Air QFA = Central control air generation QFB = Central control air distribution QFH = Control air distribution for boiler house QFM = Control air distribution for turbine house QG = Central gas supply for closed gas circuits
N.º 1.2.060-PG-005-RL-2010
REV.: 1
FL.: 61 / 74
QGA = Nitrogen supply and distribution QGB = Hydrogen supply and distribution QGC = Carbon dioxide Supply and distribution QH = Auxiliary steam generation QL = Feedwater, steam and condensate circuits for auxiliary steam generation QU = Sampling systems and chemical continuous monitoring of the unit QUA = sampling points of feedwater system QUB = sampling points of steam system QUC = sampling points of condensate system QUE = sampling points of auxiliary steam system QUG = sampling points of water supply system QUH = sampling points of main boiler drum system QUK = sampling interconnection piping QUQ = sampling points of auxiliary systems excluding QUE QUY = Equipment for control and regulation of the sampling systems and chemical continuous monitoring. S = Common systems SA = HVAC system SAA = HVAC for main buildings SAB = HVAC for Secondary buildings (fuel oil, compressed air, diesel, …) SAC = HVAC for Auxiliary buildings (Administrative, Labs, Workshop, social, gate) SAD = HVAC for coal and ash plant SAE = HVAC for Cooling water systems and chlorination plant SG = Stationary fire fighting system SGA = Stationary fire fighting water storage, pumping and distribution system SGK = Fire fighting halon system SM = Cranes, lifting gears and handling equipment SMG = Lifting gear for secondary buildings (Demineralization) SMM = Crane for Turbine Building SMQ = Crane for Circulating water pumping house SMS = Crane for workshop and stores SN = Elevators SNB = Elevator for electrical building SNH = Elevator for boiler house SNM = Elevator for Turbine building SNY = Elevator for Administrative building U = Structures UA = Structures of grid and distribution system
N.º 1.2.060-PG-005-RL-2010
REV.: 1
FL.: 62 / 74
UAA = Structure of Outdoor switchgear (220 kV) UAB = Structure of Outdoor switchgear (60 kV) UAE = Ambient Monitoring building UAG = Oil retention pits for unit transformers UAY = Electrical Tower Foundations of high voltage lines UAZ = Cables galleries UB = Structures for power distribution and auxiliary power supply UBA = Electrical Building UBB = Building for general electrical services UBE = Auxiliary transformers 20/6,6 kV UBF = Main Transformer 20/220 kV UBH = oil retention pits for transformers UBJ = Structures for main transformer tracks UBN = diesel building UBQ = structure for diesel fuel supply UBZ = structures for cable and channel UE = Structures for fuel oil, coal and ash handling UEA = Emergency storage (harbour) UEB = Coal site storage UEF = Coal transfer tower UEH = Fuel-oil installation UEJ = Fuel-oil tanks and retention basin UG = Structures for water supply and disposal UGA = Raw Water tank UGD = Water treatment plant incl. Demineralization plant UGE = Neutralization basin UGF = Fire fighting system UGG = Potable water UGK = Pre-treatment plant UGN = Demineralization tanks UGP = Basins for Domestic wastes treatment UGR = Waste water tanks UGU = Networks collecting for waste water UGV = Supports for air conduits UGZ = Galleries and channels UH = Structures for Boiler, intermediate building, precipitators and FGD UHA = Boiler house UHF = Intermediate building including bunker bay
N.º 1.2.060-PG-005-RL-2010
REV.: 1
FL.: 63 / 74
UHL = Fans and air/flue gas heaters UHN = Chimney UHQ = Precipitators UHT = FGD UHY = Conduits supports UHZ = Galleries and channels UM = Structures of Turbine generator plant UMA = Turbine building UMZ = Galleries and channels UP = Structures for cooling water system UPA = Marine intake structures UPC = Water intake and pumping station UPD = Structures for main inlet piping UPN = Structures for piping distribution UPZ = Galleries and channels UQ = Structures for cooling water system UQA = Circulating water pumps house UQB = intake pressure conduits UQY = structures for cooling water conduits UQZ = Galleries and channel UR = Cooling Towers system URA = Cooling tower URG = Water compensation conduits URH = Main inlet piping URK = Main outlet piping URM = Cooling tower equipment supports URN = Cooling tower by-pass URP = Cooling tower overflow and drainage US = Auxiliary buildings USG = waste Pumping station UST = Workshop USU = storage USV = Laboratory UT = Structures for auxiliary plants UTF = Air compressor building UTG = Gases (CO2, H2, ..) UTH = Auxiliary boiler UTJ = Auxiliary boiler chimney
N.º 1.2.060-PG-005-RL-2010
REV.: 1
FL.: 64 / 74
UTS = Chemical products storage UX = General Structures (Power plant Outside) UXX = Train and road connection UXY = Bridges UY = General Service Structures UYB = Social building UYC = Administrative building, laboratories UYD = Canteen UYE = Gate house UYG = Public relations Point UYJ = First aid and medical services UYP = Fire fighting station UYQ = Garage UZ = Structures for transport, traffic, fencing, garden, other purposes UZA = Site roads UZC = Yards UZD = parking lots UZE = Railways UZJ = Fencing and eventual inlets UZK = Environmental layout incl. trees UZY = bridges UZZ = underground and channel conduits X = Heavy machinery (not main machine sets) XJ = Diesel engine plant XJG = Cooling water system XJN = Fuel oil system XJP = compressed air starting system XJV = Lubricating oil system XK = Generator plant for emergency diesel XKA = Diesel Generator set (incl. stator, rotor and all integral cooling equipment) XLA = Electrical feed pump
N.º 1.2.060-PG-005-RL-2010
REV.: 1
FL.: 65 / 74
10.1.2
Level 2 – Equipment Unit Code Examples
A
Mechanical equipment AA = Valves, dampers, etc., incl. Actuators, also manual AC = Heat exchangers AN = Compressor, fan units AP = Pump units AU = Braking, gearbox, coupling equipment, non-electrical converters AS = Adjusting and tensioning equipment for non-electrical variables AT = Cleaning, drying, filtering, separation equipment
B
Mechanical equipment BB = Vessels BF = Foundations BR = Piping BN = Jet pumps, injectors BQ = Supports
C
Direct measuring circuits (following DIN 19227 part 1, 1973 edition) CD = Density CF = Flow rate CP = Pressure CR = radiation
D
Closed loop control circuits (following DIN 19227 part 1, 1973 edition) DD = Density DF = Flow, rate DP = Pressure
E
Analogue and binary signal conditioning EA = open loop control – control of the functional group EE = open loop control – software of the functional group EG = Alarm, annunciation – priority alarms
G
Electrical, instrumentation and control equipment GA = Junction boxes and cable/bus bar penetrations - binary signals of the marshling cubicle connected to the field GB = Junction boxes and cable/bus bar penetrations - binary signals of the marshling cubicle not connected to the field GM = junction boxes for light current system of national telecommunications service GP = Sub-distribution/junction boxes for lighting
N.º 1.2.060-PG-005-RL-2010
REV.: 1
FL.: 66 / 74
GZ = transducer racks, supports and frames GY = junction boxes for other telecommunications systems H
Subassemblies of main and heavy machinery (used in conjunction *M* = main machine and *X* = heavy machinery) HA = Machine stationary assembly HB = Machine rotating assembly HD = Bearing assembly
R
Blocked - Compartments (only when C1=U)
S
Blocked - Section of Fire Protection System (only when C 1=U)
N.º 1.2.060-PG-005-RL-2010
REV.: 1
FL.: 67 / 74
10.1.3
Level 3 – Component Code
E1 E2: __
Electrical component (to DIN 40719, Part 2)
-A
Assemblies and subassemblies
-B
Transducers for non electrical variables and vice versa -B01 Two wires analogue transmitter -B10 Four wires analogue transmitter (supply+signal) -B40 Current to pressure converter (I/P) -B50 Single thermocouple (generic identification) -B51 Single thermocouple type E -B52 Single thermocouple type J -B53 Single thermocouple type K -B60 Double thermocouple (generic identification) -B61 Double thermocouple type E -B62 Double thermocouple type J -B63 Double thermocouple type K -B70 Single resistance thermometer -B71 Double resistance thermometer
-C
Capacitors
-D
Binary elements, delay devices, memory devices -D01 Process switch element with 1 SPDT contact -D02 Process switch element with 2 SPDT contacts -D03 Process switch element with 3 SPDT contacts
-E
Special components
-F
Protective devices
-G
Generators, power supply
-H
Signalling devices
-K
Relays, Contactors
-L
Inductors
-M
Motors
-N
Amplifiers, controllers
-O -P
Measuring instruments, testing equipment CCR
LCR
-P01<>-P41
N.º 1.2.060-PG-005-RL-2010
Indicator tile (current motor or valve position)
REV.: 1
FL.: 68 / 74
-Q
-P02<>-P42
Single indicator
-P03 <> -P43
Digital indicator
-P10 <> -P50
Syncronoscop
-P11 <> -P44
Multiple indication station
-P21 <> -P45
Two or three pen recorder
-P22 <> -P46
Multipoints recorder
-P30 <> -P40
Totalizers
Power switchgear QB01
Flow gauge
QB02
Flow element
QP01
Pressure gauge
QP02
Pressure test point
QT01
Temperature gauge
QT02
Thermowell
-R
Resistors
-S
Switches, selectors CCR
LCR
-S01 <> -S41
Signalling and command tile for motor
-S02 <> -S42
Signalling and command tile for pneumatic valve/solenoid
-S15 <> -S45
Signalling and command tile for valve with intermediate stop.
-S20 <> -S40
Signalling and command tile for remote LOCAL/REMOTE selection.
-S21 <> -S43
Signalling and command tile for selection of stand-by users.
N.º 1.2.060-PG-005-RL-2010
-S22 <> -S46
Signalling and command tile for STOP/RELEASE selection
-S24 <> -S44
Signalling and command tile for sequence
-S32 <> -S48
Signalling tile with 2 LEDS
-S33 <> -S47
Signalling tile with 3 LEDS
-S34 <>
Signalling tile with 4 LEDS
-S36 <>
Signalling tile with 6 LEDS
-S51 <>
A/M station (closed loop control)
-S61 <>
Digital logic station
-S82 <>
Selector switch
-S90 <>
key switch
<> -S70
Local control station
<> -S71
Local emergency push buttons
REV.: 1
FL.: 69 / 74
-T
Transformers
-U
Modulators, converters from electrical to other electrical variables -U01 Temperature transmitter
-V
Tubes, semiconductors
-W
Transmission paths, waveguides, aerials
-X
Terminals, plugs, sockets
-Y
Electrical positioners, e.g. solenoids (not motors) -Y01 Pilot valve/solenoid normally de-energised -Y11 Pilot valve/solenoid normally energised -Y50 Power switch (positioner for control motor valve)
-Z
Terminations, balancing equipment, filters, limiters, cable terminations, equalizers, hybrid transformers
K
M
N.º 1.2.060-PG-005-RL-2010
Mechanical equipment KA
Gate valves, globe valves, dampers, cocks, rupture disks, orifices
KB
Gates, doors, dam boards
KC
Heat exchangers, coolers
KD
Vessels, tanks, pools, surge tanks (fluid systems)
KE
Turning, driving, lifting and slewing gear
KF
Continuous conveyors, feeders
KJ
Size reduction machines
KK
Compacting, packaging machines
KM
Mixers, agitators
KN
Compressors, blowers, fans
KP
Pumps
KT
Cleaning machine, dryers, separators, filters
KV
burners, grates
KW
Stationary tooling and treatment machines for maintenance
Mechanical equipment MB
Brakes
MF
Foundations
MG
Gearboxes
MK
Clutches, couplings
MM
Engines, not electrical
MP
Piping supports
MR
Piping components, ductwork components
REV.: 1
FL.: 70 / 74
MS
Positioners, not electrical
MT
Turbines
MU
Transmission gear, non electrical, converter and boosters other than coupling and gearboxes
Q
X
Instrumentation and control component (non-electrical) QA
Enclosures (for I&C component protection only)
QB
Sensors if not structurally integral with “QP” metering orifice
QH
Signalling devices
QN
Controllers, flybolt governor
QP
Measuring instruments, testing equipment
QR
Instrument piping
QS
Condensation chambers (datum reservoir) in measuring circuits
QT
Thermowells and pockets for protection of sensors
Signal origin XA
Functional group control/subloop control
XB
Control interface
XC
Hardwired control
XD
open
XE
open
XF
open
XG
Binary process signals processed by binary signal conditioning modules
XH
Binary limits signals derived from analog process signals
XI
open
XJ
Non-floating signals from unspecified plant areas (e.g. black box, dedicated controls)
XK
Equipment unit protection
XL
Control room and stations, signals not assigned to specific control systems (e.g. control interface tiles)
N.º 1.2.060-PG-005-RL-2010
XM
Non-floating static alarm signals
XN
Status display computer (criterion display)
XO
open
XP
Supervisory computer (process computer)
XQ
Analog signals
XR
Priority controls and limitation functions
XS
Sequencing signals from functional group control
XT
Turbine I&C, binary signals
XU
Non-floating dynamic alarm signals
REV.: 1
FL.: 71 / 74
