2017 Gps Product Catalog

GE Power

POWE POW E RING THE FUTURE

with GAS POWE POWER R SYSTEMS S YSTEMS 2017 OFFERINGS

gepower.com

GAS POWER SYSTEMS CATALOG I TABLE OF CONTENTS

CONTENTS Powe Po weri ring ng th the e Fut Futur ure e wit with h Gas Gas Po Powe werr Sys Syste tems ms . . . . . . .. . . . . . . .. . . . . . .. . . . . . .5 Industry Over view . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 About Ga Gas Po Power Sy Systems . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12 Indus tr tr yy- Le Leading Ca Capabilities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14 Technology Le Leadership . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16 The Power of Digital. Digital . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . 18 Power Plants Over view . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 24 9HA . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 34 7HA . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 36 9F . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . . 38 38 7F . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . . 40 40 9E & GT13E2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 42 7E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . . 44 44 LMS100 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 46 6F . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . . 48 48 LM600 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 50 6B . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . 52 52 LM2500 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54 TM2500 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 56 Topping Cycle . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 58 Over vi view and Scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60 Gas Turbine Portfolio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62 H-Class Milestones . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64 Mobile Fast Power . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66 Fuel Flexibility . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 68 Bottoming Cy Cycle . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 72 Over vi view and Scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .74 HRSG Port folio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 76 Steam Turbine Portfolio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 78 Heat Rejection Systems. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 80 Electrical Co Conversion . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 82 Over vi view and Scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 84 Generator Portfolio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86 Electrical Balance of Plant . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8 8 Plant Controls . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 90 Power Generation Validation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9 6 Appendix . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 104

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GAS POWER SYSTEMS CATALOG I POWERING THE FUTURE WITH GAS POWER SYSTEMS

POWERING THE FUTURE with Gas Power Systems

GAS POWER SYSTEMS HIGHLIGHTS SYSTEMS HIGHLIGHTS

Power is—quite simply—a powerful thing. It is the foundation of the modern world, and with nearly

• Set world record with HA combined cycle technology • An Annou nounc nced ed firs firstt 6F. 6F.03 03 pow power er isl islan and d in in Asia Asia • Ad Added ded 70 700 0 MW MW “fast “fast pow power” er” in In Indon dones esia ia Acqui quired red Doo Doosa san n Eng Engine ineeri ering ng & Cons Constru tructi ction on’s ’s HRS HRSG G busi busine ness ss • Ac • Opened Advanced Manufacturing Works in Greenville, SC, USA

1.2 billion people still without access to electricity, the global demand for power is expected to grow exponentially over the next few decades. Given this reality, our industry must continue working to strike a balance between power plant performance and environmental sustainability. At GE’s Gas Power Systems, we continue to push the boundaries of what’s possible in pursuit of this goal. Today our world-class portfolio utilizes the 210+ years of combined experience of GE and Alstom, and it has

been expanded across the entire plant. It includes industry-leading gas and steam turbines, generators, heat recovery steam generators, condensers and other balance of plant equipment—making GE the largest OEM supplier in the gas turbine space.

We have also combined decades of technology leadership at GE with digitally-driven solutions so that our customers can take advantage of valuable insights and data to deliver innovative business outcomes. GE’s Digital Power Plant solutions are estimated to provide $230 million in value for a new 500 MW power plant . And in 2016, GE unveiled a game changer at EDF’s 605 megawatt plant in Bouchain, France. Powered by our HA gas turbine, the plant achieved an unprecedented combined cycle efficiency of up to 62.22 percent and GE set a record for powering the world’s most efficient combined cycle power plant. Our HA power plant technology is also faster—capable of reaching full power in less than 30 minutes—and more flexible than ever before, helping our customers to meet increasingly dynamic grid demands.

I am pleased to share our 2017 offerings with you. And I am confident that today GE’s Gas Power Systems is positioned better than anyone in the industry to customize a solution to fit your power needs and deliver it with the highest standards of safety, quality, and compliance. We look forward to working with you.

Joe Mastrangelo President and CEO GE Gas Power Systems

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GAS POWER SYSTEMS CATALOG I TABLE OF CONTENTS

CONTENTS Powe Po weri ring ng th the e Fut Futur ure e wit with h Gas Gas Po Powe werr Sys Syste tems ms . . . . . . .. . . . . . . .. . . . . . .. . . . . . .5 Industry Over view . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 About Ga Gas Po Power Sy Systems . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12 Indus tr tr yy- Le Leading Ca Capabilities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14 Technology Le Leadership . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16 The Power of Digital. Digital . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . 18 Power Plants Over view . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 24 9HA . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 34 7HA . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 36 9F . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . . 38 38 7F . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . . 40 40 9E & GT13E2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 42 7E . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . . 44 44 LMS100 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 46 6F . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . . 48 48 LM600 0 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 50 6B . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. . . . . . . . . . . . . . . . . . . . . . . . . . . 52 52 LM2500 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54 TM2500 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 56 Topping Cycle . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 58 Over vi view and Scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 60 Gas Turbine Portfolio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 62 H-Class Milestones . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 64 Mobile Fast Power . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 66 Fuel Flexibility . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 68 Bottoming Cy Cycle . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 72 Over vi view and Scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .74 HRSG Port folio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 76 Steam Turbine Portfolio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 78 Heat Rejection Systems. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 80 Electrical Co Conversion . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 82 Over vi view and Scope . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 84 Generator Portfolio . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 86 Electrical Balance of Plant . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8 8 Plant Controls . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 90 Power Generation Validation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 9 6 Appendix . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 104

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GAS POWER SYSTEMS CATALOG I INDUSTRY OVERVIEW

POWERING THE FUTURE with GAS POWER SYSTEMS

INDUSTRY OVERVIEW Growth in Energy Demand Today, one out of every six people in the world is without access to electricity. Power demand is growing globally and access to reliable, affordable electricity is a critical enabler for economic growth and quality of life. According to the International Energy Agency (IEA), by 2020, the global economy’s GDP is expected to grow by 3.5 percent annually and the population will increase by about one billion. In line with these economic and demographic forecasts, the IEA projects that total energy demand will rise by one-third through 2040. This corresponds to a 1 percent compound annual growth rate in Organisation for Economic Co-operation and Development (OECD) countries and a 3 percent growth rate across the rest of the world. Between new installed capacity and retired plants, an additional 6,700 gigawatts (GW) of power is expected to b e added in the next 25 years.

ENERGY DRIVERS

CAPACITY DRIVERS

• Economic growth (GDP)

• Environmental policy

• Population growth

• Economic displacement

• Industrial vs. service sector growth

• Peak demand growth

• Demand-side management/energy efficiency

• Fuel availability and price

POWER GENERATION TRENDS Gas is the fastest growing of the fossil fuels and, within the next 18 years, is forecasted to become the single largest source of installed capacity. By 2040, the OECD/IEA expects gas to emerge as a power player in the global energy mix, rivaling the popularity of the industry’s traditional choices: coal and oil.

PEOPLE WITHOUT ELECTRICITY TODAY

Renewable power capacity additions will be twice that of gas additions in the next decade; however larger load factors will allow gas and other fossil f uels to maintain their dominance in power generation. Gas turbine power plants serve as a complement to intermittent renewables generation, offering such valuable features as rapid start, output flexibility, and turndown capability.

Dev. Asia (Excluding India): 290 M

MENA: 17 M

India: 240 M Latin America: 22 M

THE FUTURE OF GAS

~31,000 TWh 1 Solar

0.000

OtherRenewables

~24,000 TWh

% AccessRate 1.000

Africa: 635 M

Solar

OtherRenewables

0.5 1 1 0.2

Hydro

Nuclear

Wind

1.2 BILLION PEOPLE

LACK ACCESS TO RELIABLE POWER

SOURCE OF ELECTRICITY

25%

GENERATION IN THE US

NEXT DECADE WILL BE

LARGEST IN 2015 WAS FUELED BY

GAS

GAS POWER

2

Solar

Hydro

5

Nuclear

3

22%

4

Oil

Hydro

12%

Oil

1,400 GW

OF POWER ADDED IN THE

12%

3

Wind

1%

OtherRenewables Wind Source: IEA, World Bank, GE Marketing

1 2

Nuclear

Steam

0%

OF ADDITIONAL GAS POWER GENERATED IN 2017–2040

Steam

9

11

Oil

0% Gas

LEADING ALL OTHER FORMS OF GENERATION

Gas

Source: IEA, IHS, EIA, EPRI, GE Marketing

5

Generation 2015

Steam

24%

Capacity Additions

24% Gas

7

Generation 2025

Sources: IEA, IHS,EIA, EPRI, GE Marketing

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INDUSTRY OVERVIEW Growth in Energy Demand Today, one out of every six people in the world is without access to electricity. Power demand is growing globally and access to reliable, affordable electricity is a critical enabler for economic growth and quality of life. According to the International Energy Agency (IEA), by 2020, the global economy’s GDP is expected to grow by 3.5 percent annually and the population will increase by about one billion. In line with these economic and demographic forecasts, the IEA projects that total energy demand will rise by one-third through 2040. This corresponds to a 1 percent compound annual growth rate in Organisation for Economic Co-operation and Development (OECD) countries and a 3 percent growth rate across the rest of the world. Between new installed capacity and retired plants, an additional 6,700 gigawatts (GW) of power is expected to b e added in the next 25 years.

ENERGY DRIVERS

CAPACITY DRIVERS

• Economic growth (GDP)

• Environmental policy

• Population growth

• Economic displacement

• Industrial vs. service sector growth

• Peak demand growth

• Demand-side management/energy efficiency

• Fuel availability and price

POWER GENERATION TRENDS Gas is the fastest growing of the fossil fuels and, within the next 18 years, is forecasted to become the single largest source of installed capacity. By 2040, the OECD/IEA expects gas to emerge as a power player in the global energy mix, rivaling the popularity of the industry’s traditional choices: coal and oil.

PEOPLE WITHOUT ELECTRICITY TODAY

Renewable power capacity additions will be twice that of gas additions in the next decade; however larger load factors will allow gas and other fossil f uels to maintain their dominance in power generation. Gas turbine power plants serve as a complement to intermittent renewables generation, offering such valuable features as rapid start, output flexibility, and turndown capability.

Dev. Asia (Excluding India): 290 M

MENA: 17 M

India: 240 M Latin America: 22 M

THE FUTURE OF GAS

~31,000 TWh 1 Solar OtherRenewables

~24,000 TWh

% AccessRate 0.000

1.000

Africa: 635 M

Solar

Hydro

Nuclear

1.2 BILLION PEOPLE

LACK ACCESS TO RELIABLE POWER

SOURCE OF ELECTRICITY GENERATION IN THE US

NEXT DECADE WILL BE

IN 2015 WAS FUELED BY

GAS

OF POWER ADDED IN THE

GAS POWER

2 5

Nuclear

3

1% Wind

12%

Solar

22%

4

Oil

Hydro

3

12%

Oil

1,400 GW

25%

LARGEST

Wind

Hydro

OtherRenewables

0.5 1 1 0.2

OtherRenewables Wind Source: IEA, World Bank, GE Marketing

1 2

Nuclear

Steam

0%

OF ADDITIONAL GAS POWER GENERATED IN 2017–2040

Steam

9

11

Oil

0% Gas

LEADING ALL OTHER FORMS OF GENERATION

Gas


24%

Steam

5

Gas

24%

Generation 2015

Capacity Additions

7

Generation 2025

Sources: IEA, IHS,EIA, EPRI, GE Marketing

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FORECAST DEMAND FOR GAS POWER OVER THE NEXT DECADE

ADVANTAGES OF GAS GENERATION E ffici ent U se o f L an d:

E fficie nt U se of Ca pi ta l:

E ffici ent U se o f Fu el:

80 MW/ACRE

$500-$1000/kW

1 PT OF EFFICIENCY =

HIGHEST IN THE INDUSTRY

LOWEST IN INDUSTRY-SIZE ECONOMIES

• NUCLEAR. . . . . . . ~30 MW/ACRE • COAL. . . . . . . . . . . . . ~10 MW/ACRE • SOLAR. . . . . . . . . . . <1 MW/ACRE • WIND. . . . . . . . . . . . <1 MW/ACRE

• WIND. . . . . . . . . . . . ~$1300/KW • SOLAR. . . . . . . . . . . ~$1500/KW • COAL. . . . . . . . . . . . . ~$2500/KW • NUCLEAR. . . . . . . ~$5000/KW

Fast Power:

Cleaner:

There when you need it:

ONLINE AS FAST AS

HALF THE CO2 OF COAL

DISPATCHABLE

90 DAYS SIMPLE CYCLE GAS FASTEST IN THE INDUSTRY • NUCLEAR . . . . . . . • COAL . . . . . . . . . . . . . • WIND. . . . . . . . . . . . . • SOLAR . . . . . . . . . . .

~6 YEARS ~3 YEARS ~6 MONTHS ~6 MONTHS

LOWER ENVIRONMENTAL IMPACT

Sub Saharan Africa

5%

North America

India

4% Middle East/ North Africa

21%

8%

$50 M OF FUEL SAVINGS OVER YEARS

10

Europe

11%

FLEXIBLE POWER

Latin America

• WIND .. . 55% CAPACITY FACTOR • SOLAR .. 27% CAPACITY FACTOR

19% Asia

14% China


17% Sources: IEA, IHS,EIA, EPRI, GE Marketing

REGIONAL OUTLOOK

As countries move forward with their large heavy duty gas turbine projects, they are calling for greater efficiency in their gas power systems; H-class technology is answering that call and the presence of these machines continues to increase.

Population growth and economic convergence are shifting the center of energy growth towards emerging markets; China and India will be the main sources of energy demand, though with different dynamics.

HEAVY DUTY GAS TURBINE MARKET SHARE

China is—and will remain—the largest consumer of energy. However, as its economy rebalances toward domestic consumption and services, China will become less energy intensive, and the pace of Chinese energy demand growth will slow. In India, on the other hand, the process of industrialization is about to accelerate, driving a much steeper increase in energy demand. Africa, the Middle East, and Latin America will also see significant increases in demand.

100% 90% H-CLASS

80% 70%

F-CLASS

60% 50%

European energy demand is projected to have the lowest rate of growth at <0.5 percent per year, influenced by slower economic growth, demographic changes, populations shifts, and faster improvements in energy efficiency. Energy demand in the United States is expected to stabilize close to current levels.

40% 30% 20%

INTERMEDIATE 40–200 MW

10% 0% 2000 2001 2002 2003 2004 2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018 2019 2020 Sources: IEA, McCoy Power Reports, IHS, EIA, EPRI, GE Marketing

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FORECAST DEMAND FOR GAS POWER OVER THE NEXT DECADE

ADVANTAGES OF GAS GENERATION E ffici ent U se o f L an d:

E fficie nt U se of Ca pi ta l:

E ffici ent U se o f Fu el:

80 MW/ACRE

$500-$1000/kW

1 PT OF EFFICIENCY =

HIGHEST IN THE INDUSTRY

LOWEST IN INDUSTRY-SIZE ECONOMIES

• NUCLEAR. . . . . . . ~30 MW/ACRE • COAL. . . . . . . . . . . . . ~10 MW/ACRE • SOLAR. . . . . . . . . . . <1 MW/ACRE • WIND. . . . . . . . . . . . <1 MW/ACRE

• WIND. . . . . . . . . . . . ~$1300/KW • SOLAR. . . . . . . . . . . ~$1500/KW • COAL. . . . . . . . . . . . . ~$2500/KW • NUCLEAR. . . . . . . ~$5000/KW

Fast Power:

Cleaner:

There when you need it:

ONLINE AS FAST AS

HALF THE CO2 OF COAL

DISPATCHABLE

90 DAYS SIMPLE CYCLE GAS FASTEST IN THE INDUSTRY • NUCLEAR . . . . . . . • COAL . . . . . . . . . . . . . • WIND. . . . . . . . . . . . . • SOLAR . . . . . . . . . . .

~6 YEARS ~3 YEARS ~6 MONTHS ~6 MONTHS

LOWER ENVIRONMENTAL IMPACT

Sub Saharan Africa

5%

North America

India

4% Middle East/ North Africa

21%

8%

$50 M OF FUEL SAVINGS OVER YEARS

10

Europe

11%

FLEXIBLE POWER

Latin America

• WIND .. . 55% CAPACITY FACTOR • SOLAR .. 27% CAPACITY FACTOR

19% Asia

14% China


17% Sources: IEA, IHS,EIA, EPRI, GE Marketing

REGIONAL OUTLOOK

As countries move forward with their large heavy duty gas turbine projects, they are calling for greater efficiency in their gas power systems; H-class technology is answering that call and the presence of these machines continues to increase.

Population growth and economic convergence are shifting the center of energy growth towards emerging markets; China and India will be the main sources of energy demand, though with different dynamics.

HEAVY DUTY GAS TURBINE MARKET SHARE

China is—and will remain—the largest consumer of energy. However, as its economy rebalances toward domestic consumption and services, China will become less energy intensive, and the pace of Chinese energy demand growth will slow. In India, on the other hand, the process of industrialization is about to accelerate, driving a much steeper increase in energy demand. Africa, the Middle East, and Latin America will also see significant increases in demand.

100% 90% H-CLASS

80% 70%

F-CLASS

60% 50%

European energy demand is projected to have the lowest rate of growth at <0.5 percent per year, influenced by slower economic growth, demographic changes, populations shifts, and faster improvements in energy efficiency. Energy demand in the United States is expected to stabilize close to current levels.

40% 30% 20%

INTERMEDIATE 40–200 MW

10% 0% 2000 2001 2002 2003 2004 2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018 2019 2020 Sources: IEA, McCoy Power Reports, IHS, EIA, EPRI, GE Marketing

TABLE OF

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9

CONTENTS



DIGITAL TR ANSFORMATION It is rare to find a gas-fired power plant that operates the same way it did the day it was commissioned. Gas-fired power plants have the flexibility to operate with different load factors and characteristics to achieve the desired economic outcomes every day. This variability is valuable, but only if customers understand the limitations of their products. GE contemplates these limits when products are first designed and can help customers optimize performance and profitability by predicting and responding to construction, plant, and market dynamics.

Over the next decade, there will be ~$1.3 trillion of value to be captured by plant owners and generators in the digital transformation. Further changing the operational landscape is the convergence of hardware, digital software, and advanced analytics. This digital transformation is disrupting the electricity industry, challenging old models and creating unprecedented opportunities. Power generation is becoming more reliable, affordable, and sustainable with technologies that lower costs, improve efficiency, and reduce carbon output. GE is a strategic partner in this transformation, and can provide masterful guidance and support as the industry evolves to accommodate flexibility and connectivity challenges.

FLEXIBILITY CHALLENGES

10

CONNECTIVITY

• Growth in variable generation • Fluctuating fuel prices • Higher load variability with consumer distributed power

CHALLENGES • <2% of data is captured; lack of automation • Increased cyber risks • Rapid pace of technology evolution • Lack of connectivity among assets

OPPORTUNITIES

OPPORTUNITIES

• Versatile solutions that adapt quickly to changing environments and needs • Fuel flexible gas turbines • Integrated total-plant controls

• Digital platforms that connect plant controls, supervisory optimization applications, and cloud-based business applications • Common operating language that delivers real-time insight • Easy-to-use total-plant controls that monitor cyber threats

ENHANCED FLEXIBILITY BENEFITS

ENHANCED CONNECTIVITY BENEFITS

• Increased reliability • Minimized equipment damage and longer equipment life • Reduced environmental impact

• Predictive analytics drive increased empowerment and productivity • Advanced controls protect against cyber attacks • Connected assets increase system efficiency

TABLE OF CONTENTS

11



DIGITAL TR ANSFORMATION It is rare to find a gas-fired power plant that operates the same way it did the day it was commissioned. Gas-fired power plants have the flexibility to operate with different load factors and characteristics to achieve the desired economic outcomes every day. This variability is valuable, but only if customers understand the limitations of their products. GE contemplates these limits when products are first designed and can help customers optimize performance and profitability by predicting and responding to construction, plant, and market dynamics.

Over the next decade, there will be ~$1.3 trillion of value to be captured by plant owners and generators in the digital transformation. Further changing the operational landscape is the convergence of hardware, digital software, and advanced analytics. This digital transformation is disrupting the electricity industry, challenging old models and creating unprecedented opportunities. Power generation is becoming more reliable, affordable, and sustainable with technologies that lower costs, improve efficiency, and reduce carbon output. GE is a strategic partner in this transformation, and can provide masterful guidance and support as the industry evolves to accommodate flexibility and connectivity challenges.

FLEXIBILITY

CONNECTIVITY

CHALLENGES • Growth in variable generation • Fluctuating fuel prices • Higher load variability with consumer distributed power

CHALLENGES • <2% of data is captured; lack of automation • Increased cyber risks • Rapid pace of technology evolution • Lack of connectivity among assets

OPPORTUNITIES

OPPORTUNITIES

• Versatile solutions that adapt quickly to changing environments and needs • Fuel flexible gas turbines • Integrated total-plant controls

• Digital platforms that connect plant controls, supervisory optimization applications, and cloud-based business applications • Common operating language that delivers real-time insight • Easy-to-use total-plant controls that monitor cyber threats

ENHANCED FLEXIBILITY BENEFITS

ENHANCED CONNECTIVITY BENEFITS

• Increased reliability • Minimized equipment damage and longer equipment life • Reduced environmental impact

• Predictive analytics drive increased empowerment and productivity • Advanced controls protect against cyber attacks • Connected assets increase system efficiency

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10

11

CONTENTS

GAS POWER SYSTEMS CATALOG I A BOUT GAS POWER SYSTEMS

GE’S GAS POWER SYSTEMS

CUSTOMER SUCCESS STORY

Delivering for our Customers

A WORLD RECORD

62.22% EFFICIENCY I FULL POWER IN < 30 MIN I GENERATES > 605 MW

GE’s 9HA.01 gas turbine is powering EDF’s 605 MW combined cycle power plant, the most efficient combined cycle power plant in the world. Generating the equivalent power needed to supply 680,000 homes, the Bouchain plant is the latest achievement in a 45-year partnership between GE and EDF. The flexibility of a fast start allows partners to respond quickly to grid demand fluctuations, integrating renewables as necessary. Bouchain’s CO2 emissions are approximately 55 percent less than a standard thermal power plant. When the turbine burns 3.3 tons of natural gas mixed with air – equivalent to 23 tanker trucks – out comes just 6.3 fluid ounces of pollution, a volume slightly larger than a half-can of soda.

Tough challenges need to be met with smart solutions. For 130+ years, GE has been delivering innovative products and services that create significant value for power generation customers. Advancing an industry is no easy feat; it takes commitment, knowledge, and above all, an intimate understanding of what customers want and need. GE Gas Power Systems has it all and we are excited to put our global team to work for you. Our focus spans three keys areas. First, we give our customers the capability to meet, and even exceed, their project goals with assets that employ the latest cooling, aerodynamic, combustion, and digital technologies. Our claims for performance

12

MORE POWER

are backed by rigorous testing and validation that are completed before our products even leave the manufacturing floor. Next, we provide versatility to give our customers the tools and know-how they need to adapt quickly to changing environments. This includes access to products that feature operational flexibility for startup and turndown, fuel flexibility, and integration with advanced, total-plant controls. Lastly, our commitment to sustainability is unwavering as we seek to provide solutions that benefit not only our customers, but our future generations. That means products that meet or exceed environmental regulations and technical innovations that strive for a cleaner, more prosperous environment. TABLE OF CONTENTS

13

GAS POWER SYSTEMS CATALOG I A BOUT GAS POWER SYSTEMS

GE’S GAS POWER SYSTEMS

CUSTOMER SUCCESS STORY

Delivering for our Customers

A WORLD RECORD

62.22% EFFICIENCY I FULL POWER IN < 30 MIN I GENERATES > 605 MW

GE’s 9HA.01 gas turbine is powering EDF’s 605 MW combined cycle power plant, the most efficient combined cycle power plant in the world. Generating the equivalent power needed to supply 680,000 homes, the Bouchain plant is the latest achievement in a 45-year partnership between GE and EDF. The flexibility of a fast start allows partners to respond quickly to grid demand fluctuations, integrating renewables as necessary. Bouchain’s CO2 emissions are approximately 55 percent less than a standard thermal power plant. When the turbine burns 3.3 tons of natural gas mixed with air – equivalent to 23 tanker trucks – out comes just 6.3 fluid ounces of pollution, a volume slightly larger than a half-can of soda.

Tough challenges need to be met with smart solutions. For 130+ years, GE has been delivering innovative products and services that create significant value for power generation customers. Advancing an industry is no easy feat; it takes commitment, knowledge, and above all, an intimate understanding of what customers want and need. GE Gas Power Systems has it all and we are excited to put our global team to work for you. Our focus spans three keys areas. First, we give our customers the capability to meet, and even exceed, their project goals with assets that employ the latest cooling, aerodynamic, combustion, and digital technologies. Our claims for performance

MORE POWER

are backed by rigorous testing and validation that are completed before our products even leave the manufacturing floor. Next, we provide versatility to give our customers the tools and know-how they need to adapt quickly to changing environments. This includes access to products that feature operational flexibility for startup and turndown, fuel flexibility, and integration with advanced, total-plant controls. Lastly, our commitment to sustainability is unwavering as we seek to provide solutions that benefit not only our customers, but our future generations. That means products that meet or exceed environmental regulations and technical innovations that strive for a cleaner, more prosperous environment. TABLE OF

12

13

CONTENTS

GAS POWER SYSTEMS CATALOG I INDUSTRY-LEADING CAPABILITIES


WHAT YOU NEED, WHERE YOU NEED IT Solutions for Every Application From simple cycle and combined cycle power generation to combined heat and power (CHP), mechanical drive, and waste-to-power, GE has the experience and gas turbines to serve your needs. Individual operating schemes are vast and varied, and GE is committed to providing a flexible portfolio of products to support a full spectrum of operating needs: from fast starts and load following to get peak customers on the grid quickly, to high availability and reliability to keep baseload customers online for the long haul. GE’s portfolio of power generation products provides a sense of certainty in an uncertain world, delivering the operational flexibility and performance needed to adapt to the rapidly evolving energy environment. These solutions are deployable to even the most remote of locations with the harshest of conditions; if you are in need of a localized power source, you can count on GE to deliver.

AT A GLANCE ALUMINIUM BAHRAIN B.S.C. (ALBA) Alba is one of the largest aluminum smelters in the world, and with a new 1,792 MW combined cycle power plant, Alba will be the first smelter to use H-class technology. Three 9HA gas turbines will power the Line 6 smelter, providing highly reliable power that can quickly respond to load fluctuations from the smelter. Aluminum production is very energy intensive, with electricity t ypically accounting for a significant portion of production costs. GE’s HA technology will help Alba add 540,00 0 metric tonnes per annum (mtpa) to its current production, boosting the company’s ability to sustain its competitive position in the global market. PANAMA Panama’s small power grid isn’t conducive to traditional H-class technology, but when a power company in the country needed a dual fuel solution that could accommodate imported liquefied natural gas (LNG), they turned to GE. We are delivering highly efficient, intermediate-sized machines to power a 350 MW combined cycle power plant that will be Panama’s first natural gas-fired generation plant. Dual fuel capability will enable the plant to switch sources and maintain consistent availability should imported LNG fuel become unavailable. This project supports the country’s 2015-2020 National Energy Plan, which aims to generate at least 70 percent of its power from renewable sources and reduce energy sector emissions.

14

TABLE OF CONTENTS

15

GAS POWER SYSTEMS CATALOG I INDUSTRY-LEADING CAPABILITIES


WHAT YOU NEED, WHERE YOU NEED IT Solutions for Every Application From simple cycle and combined cycle power generation to combined heat and power (CHP), mechanical drive, and waste-to-power, GE has the experience and gas turbines to serve your needs. Individual operating schemes are vast and varied, and GE is committed to providing a flexible portfolio of products to support a full spectrum of operating needs: from fast starts and load following to get peak customers on the grid quickly, to high availability and reliability to keep baseload customers online for the long haul. GE’s portfolio of power generation products provides a sense of certainty in an uncertain world, delivering the operational flexibility and performance needed to adapt to the rapidly evolving energy environment. These solutions are deployable to even the most remote of locations with the harshest of conditions; if you are in need of a localized power source, you can count on GE to deliver.

AT A GLANCE ALUMINIUM BAHRAIN B.S.C. (ALBA) Alba is one of the largest aluminum smelters in the world, and with a new 1,792 MW combined cycle power plant, Alba will be the first smelter to use H-class technology. Three 9HA gas turbines will power the Line 6 smelter, providing highly reliable power that can quickly respond to load fluctuations from the smelter. Aluminum production is very energy intensive, with electricity t ypically accounting for a significant portion of production costs. GE’s HA technology will help Alba add 540,00 0 metric tonnes per annum (mtpa) to its current production, boosting the company’s ability to sustain its competitive position in the global market. PANAMA Panama’s small power grid isn’t conducive to traditional H-class technology, but when a power company in the country needed a dual fuel solution that could accommodate imported liquefied natural gas (LNG), they turned to GE. We are delivering highly efficient, intermediate-sized machines to power a 350 MW combined cycle power plant that will be Panama’s first natural gas-fired generation plant. Dual fuel capability will enable the plant to switch sources and maintain consistent availability should imported LNG fuel become unavailable. This project supports the country’s 2015-2020 National Energy Plan, which aims to generate at least 70 percent of its power from renewable sources and reduce energy sector emissions.

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GAS POWER SYSTEMS CATALOG I TECHNOLOGY LEADERSHIP


ENERGIZING OPPORTUNITY

ADVANCED MANUFACTURING IS REVOLUTIONIZING TECHNOLOGY GROWTH

Technology Leadership Enabling More Accessible Power As you read through this catalog and explore GE’s power generation portfolio, think about all the things around you that require power—lighting, heating and air conditioning, your personal devices, a hot cup of coffee or tea. Reliable and affordable power is critical for daily life, yet today, more than one billion people worldwide don’t have access to this vital resource.

GE’s 125,000 square foot Advanced Manufacturing Works facility in Greenville, South Carolina (United States) is leading future growth in manufacturing technology by changing the way we make things, allowing us to launch new technologies and products faster.

At GE, we imagine a future without energy poverty, a future where every home, school, and business can tap into a clean and modern source of electricity. For more than a century, we have been investing in fundamental applied research and development, often with the support of the United States Department of Energy, to make this future today’s reality. We operate seven state-of-the-art Global Research facilities around the globe where the world’s brightest scientists, engineers, and researchers create a path for GE’s future.

CAPABILITIES:

3D PRINTING I COMPOSITE MATERIALS I ADVANCED ROBOTICS I INNOVATIVE MACHINING

GE’s technology heritage is unparalleled in the power generation industry. Technology innovation, coupled with vast fleet experience from our installed base, is expanding our domain expertise in core energy industry disciplines such as materials science, aerodynamics, combustion, and heat transfer. Additive technology is increasingly disrupting how we design, build, and service our products. These advancements translate to more power and more efficient power, which reduces life cycle costs and maximizes profitability for our customers. TECHNOLOGY

CUSTOMER BENEFITS

LATEST ADVANCEMENTS

Heat Transfer

• Advanced cooling and sealing features in the hot gas path deliver up to 0.8% output and 0.1% efficiency improvement to H-class machines • Improved life management in hot and harsh operatingconditions

• Near surface cooling moves gas path temperatures closer to H-class levels, but with F-class cooling flows • Gas turbine last stage blade cooling architecture enables increased annulus area or higher exhaust temperatures for the bottoming cycle

Aerodynamics

• Increased turbine efficiency (gas and steam products) • Reduced cooling flow demand

• Full speed, full load validation of advanced 3D turbine airfoil designs, introduced on the 9HA.02 • Integration of legacy GE and Alstom last stage blade for optimum steam turbine performance

Combustion

• Higher generating efficiency while producing fewer pollutants • Improved turndown and part load capability within emissions limits • Broader fuels usage and dual fuel operation

• 50°F increase in firing temperature on H-class machines, validated in full speed, full load test facility • Robust fuel conditioning for liquid fuel operation on Dry Low Emissions (DLE) combustors

Additive Manufacturing

• Shifts in entitlement performance over conventional manufacturing provide 1%+ output improvement on 9HA plants • Shorter manufacturing cycles for development and production • Geometry optimization to reduce equipment cost

• Application to advanced architectures for turbine shrouds and nozzles • Simplification of system design, less total assembly parts, and reduction in fabricated joints on Dry Low NOx (DLN) combustion systems

A digital transformation is also disrupting the status quo, bridging the gap between data extraction and meaningful utilization. Traditional power plants operate using multiple machines and each machine has its own system to measure and/or monitor performance. GE is working to consolidate and manage data to provide that “single pane of glass” that operations management and staff need to see how operations are performing across the plant and across multiple plants. 16

TABLE OF CONTENTS

17

GAS POWER SYSTEMS CATALOG I TECHNOLOGY LEADERSHIP


ENERGIZING OPPORTUNITY

ADVANCED MANUFACTURING IS REVOLUTIONIZING TECHNOLOGY GROWTH

Technology Leadership Enabling More Accessible Power As you read through this catalog and explore GE’s power generation portfolio, think about all the things around you that require power—lighting, heating and air conditioning, your personal devices, a hot cup of coffee or tea. Reliable and affordable power is critical for daily life, yet today, more than one billion people worldwide don’t have access to this vital resource.

GE’s 125,000 square foot Advanced Manufacturing Works facility in Greenville, South Carolina (United States) is leading future growth in manufacturing technology by changing the way we make things, allowing us to launch new technologies and products faster.

At GE, we imagine a future without energy poverty, a future where every home, school, and business can tap into a clean and modern source of electricity. For more than a century, we have been investing in fundamental applied research and development, often with the support of the United States Department of Energy, to make this future today’s reality. We operate seven state-of-the-art Global Research facilities around the globe where the world’s brightest scientists, engineers, and researchers create a path for GE’s future.

CAPABILITIES:

3D PRINTING I COMPOSITE MATERIALS I ADVANCED ROBOTICS I INNOVATIVE MACHINING

GE’s technology heritage is unparalleled in the power generation industry. Technology innovation, coupled with vast fleet experience from our installed base, is expanding our domain expertise in core energy industry disciplines such as materials science, aerodynamics, combustion, and heat transfer. Additive technology is increasingly disrupting how we design, build, and service our products. These advancements translate to more power and more efficient power, which reduces life cycle costs and maximizes profitability for our customers. TECHNOLOGY

CUSTOMER BENEFITS

LATEST ADVANCEMENTS

Heat Transfer

• Advanced cooling and sealing features in the hot gas path deliver up to 0.8% output and 0.1% efficiency improvement to H-class machines • Improved life management in hot and harsh operatingconditions

• Near surface cooling moves gas path temperatures closer to H-class levels, but with F-class cooling flows • Gas turbine last stage blade cooling architecture enables increased annulus area or higher exhaust temperatures for the bottoming cycle

Aerodynamics

• Increased turbine efficiency (gas and steam products) • Reduced cooling flow demand

• Full speed, full load validation of advanced 3D turbine airfoil designs, introduced on the 9HA.02 • Integration of legacy GE and Alstom last stage blade for optimum steam turbine performance

Combustion

• Higher generating efficiency while producing fewer pollutants • Improved turndown and part load capability within emissions limits • Broader fuels usage and dual fuel operation

• 50°F increase in firing temperature on H-class machines, validated in full speed, full load test facility • Robust fuel conditioning for liquid fuel operation on Dry Low Emissions (DLE) combustors

Additive Manufacturing

• Shifts in entitlement performance over conventional manufacturing provide 1%+ output improvement on 9HA plants • Shorter manufacturing cycles for development and production • Geometry optimization to reduce equipment cost

• Application to advanced architectures for turbine shrouds and nozzles • Simplification of system design, less total assembly parts, and reduction in fabricated joints on Dry Low NOx (DLN) combustion systems

A digital transformation is also disrupting the status quo, bridging the gap between data extraction and meaningful utilization. Traditional power plants operate using multiple machines and each machine has its own system to measure and/or monitor performance. GE is working to consolidate and manage data to provide that “single pane of glass” that operations management and staff need to see how operations are performing across the plant and across multiple plants. TABLE OF

16

17

CONTENTS

GAS POWER SYSTEMS CATALOG I THE POWER OF DIGITAL


THE POWER OF DIGITAL Turning Insight into Business Outcomes A monumental shift is taking place in the power generation industry, challenging old models and creating unprecedented opportunities. Sof tware and data analytics are combining with advanced hardware to create new digitally enhanced power generation that will deliver greater performance, reliability, affordability, and sustainability. These new capabilities are helping to lower costs, improve efficiencies, create growth opportunities, and reduce carbon footprints.

GE’s DIGITAL PRODUCT PLATFORMS CONTROLS

Integrated plant controls built on the Industrial Internet Control System (IICS).

Digital is the secret to a competitive edge in a dynamic market. With GE as your partner, you can custom-tailor a strategy that makes sense for your assets, your needs, and your unique operating profile.

Benefits Delivers a consistent user experience and common tools across the plant; provides the architecture for real-time adaptive control that protects assets; can connect and respond to analytics to enhance operations and improve outcomes.

UNLOCKING POTENTIAL

SOLUTIONS

Advanced software models and analytics that create a virtual version of the power plant and can be paired with controls and sensing to deliver applications for customized operations. Benefits “What if” scenario planning to improve and de-risk plant design and construction from inception to commercial operation; expand plant capability and improve profitability with customized operation and decision support applications.

DIGITAL POWER PLANT CONTROLS

3%

FUEL EFFICIENCY

2%

OUTPUT

5%

UNPLANNEDDOWNTIME

25%

O&M COSTS

20%

At the foundation of the Digital Power Plant is the GE-engineered, integrated, local plant control built on the Industrial Internet Control System (IICS)—a secure, scalable, and distributed control architecture with a user experience that reduces costs and increases operator efficiency. IICS is designed to leverage the power of the Industrial Internet through an ecosystem of connected local plant controls, supervisory optimization applications, and cloud-based business applications.

LESS FUEL ON STARTS

† These representative customeroutco mesd o not guarantee results

DID YOU KNOW? Power plants can lose $10 billion a year due to the inability to identify issues early and abnormal events at tributed to operator error.

The IICS leverages Predix*, a platform created by GE to serve the unique needs of the industry. Machine assets of any vendor and vintage can be connected to the cloud and one another with Predix-based applications. Predix-ready machines all speak the same language. They deliver real-time data and insight, improving operator equipment performance, condition monitoring, and diagnostics capabilities.

DIGITAL FOR THE GAS POWER PLANT Marrying the physical strengths of our best-in-class gas power technology with GE’s industry-leading agile digital technologies, our Digital Power Plant can help you achieve even better performance, greater efficiencies, and improved reliability at the lowest emissions possible.

Other IICS features include: • ActivePoint* Human Machine Interface (HMI): Contemporary user experience with enhanced visualization, alarm rationalization, and server-based thin client deployment.

Customized for individual needs and wants, the Digital Power Plant is built on a control and software platform that expands plant capabilities, delivering enhanced controllability as well as improved project execution through integrated models and simulation. It serves a plant’s full life cycle—from project planning to startup and on through servicing. With the power of digital, power plant owners can optimize performance and profitability by predicting and responding to construction, plant, and market dynamics.

• Control Server: Scalable multi-core supervisory control platform consolidates hardware via virtualized machines, hosts thin client services and Predix apps, and provides Predix cloud connectivity. • FOUNDATION™ Fieldbus and Smart Devices: Digital data bus technology reduces costs and improves diagnostics. • Cyber Security: Comprehensive network security solutions block malicious activity and attacks. • Mark* VIe: Unit controls and distributed control system (DCS). For more details on GE’s control systems and software, see Plant Controls beginning on page 90.

18

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19



THE POWER OF DIGITAL Turning Insight into Business Outcomes A monumental shift is taking place in the power generation industry, challenging old models and creating unprecedented opportunities. Sof tware and data analytics are combining with advanced hardware to create new digitally enhanced power generation that will deliver greater performance, reliability, affordability, and sustainability. These new capabilities are helping to lower costs, improve efficiencies, create growth opportunities, and reduce carbon footprints.

GE’s DIGITAL PRODUCT PLATFORMS CONTROLS

SOLUTIONS

Integrated plant controls built on the Industrial Internet Control System (IICS).

Digital is the secret to a competitive edge in a dynamic market. With GE as your partner, you can custom-tailor a strategy that makes sense for your assets, your needs, and your unique operating profile.

Advanced software models and analytics that create a virtual version of the power plant and can be paired with controls and sensing to deliver applications for customized operations.

Benefits Delivers a consistent user experience and common tools across the plant; provides the architecture for real-time adaptive control that protects assets; can connect and respond to analytics to enhance operations and improve outcomes.

UNLOCKING POTENTIAL

Benefits “What if” scenario planning to improve and de-risk plant design and construction from inception to commercial operation; expand plant capability and improve profitability with customized operation and decision support applications.

DIGITAL POWER PLANT CONTROLS

3%

FUEL EFFICIENCY

2%

OUTPUT

5%

UNPLANNEDDOWNTIME

25%

O&M COSTS

20%

At the foundation of the Digital Power Plant is the GE-engineered, integrated, local plant control built on the Industrial Internet Control System (IICS)—a secure, scalable, and distributed control architecture with a user experience that reduces costs and increases operator efficiency. IICS is designed to leverage the power of the Industrial Internet through an ecosystem of connected local plant controls, supervisory optimization applications, and cloud-based business applications.

LESS FUEL ON STARTS

† These representative customeroutco mesd o not guarantee results

DID YOU KNOW? Power plants can lose $10 billion a year due to the inability to identify issues early and abnormal events at tributed to operator error.

The IICS leverages Predix*, a platform created by GE to serve the unique needs of the industry. Machine assets of any vendor and vintage can be connected to the cloud and one another with Predix-based applications. Predix-ready machines all speak the same language. They deliver real-time data and insight, improving operator equipment performance, condition monitoring, and diagnostics capabilities.

DIGITAL FOR THE GAS POWER PLANT Marrying the physical strengths of our best-in-class gas power technology with GE’s industry-leading agile digital technologies, our Digital Power Plant can help you achieve even better performance, greater efficiencies, and improved reliability at the lowest emissions possible.

Other IICS features include: • ActivePoint* Human Machine Interface (HMI): Contemporary user experience with enhanced visualization, alarm rationalization, and server-based thin client deployment.

Customized for individual needs and wants, the Digital Power Plant is built on a control and software platform that expands plant capabilities, delivering enhanced controllability as well as improved project execution through integrated models and simulation. It serves a plant’s full life cycle—from project planning to startup and on through servicing. With the power of digital, power plant owners can optimize performance and profitability by predicting and responding to construction, plant, and market dynamics.

• Control Server: Scalable multi-core supervisory control platform consolidates hardware via virtualized machines, hosts thin client services and Predix apps, and provides Predix cloud connectivity. • FOUNDATION™ Fieldbus and Smart Devices: Digital data bus technology reduces costs and improves diagnostics. • Cyber Security: Comprehensive network security solutions block malicious activity and attacks. • Mark* VIe: Unit controls and distributed control system (DCS). For more details on GE’s control systems and software, see Plant Controls beginning on page 90. TABLE OF

18

19

CONTENTS



DIGITAL POWER PLANT SOLUTIONS For new plants, the digital journey begins with the creation of an integrated plant system model that incorporates 3D arrangement with its Digital Twin, a collection of physics-based methods and advanced analytics that model the present state of assets in a virtual view of the power plant. These system-level models utilize both physics-based domain knowledge as well as terabytes of operational and test data to simulate asset-level and plant-level performance, cost, emissions, and life. GE is developing machine-learning algorithms to evolve the Digital Twin throughout the plant’s life cycle and to build “what if” scenario plans to help improve plant design and construction. As a new plant transitions from construction to commercial operation, Digital Power Plant applications connect the Digital Twin with advanced controls to achieve improved performance and customized operations. The software applications allow power plant owners to optimize the performance and profitability of their systems with better informed short- and long-term decisions to balance revenue, cost, and risk. Predictive analytics and control simulations consider past and future scenarios and advanced control capabilities act to achieve desired outcomes. Digital Twin is the key to unlocking the next chapter in power plant engineering, procurement, and construction. With Digital Power Plant solutions you can: • Reduce variable operating and maintenance costs by planning outages with odometers & performance recovery advisors. • Reduce operating costs utilizing efficiency optimizer, start agility, fast load following, and turndown. • Increase MWh generation while managing outage intervals utilizing peak fire, cold part load, and dispatch optimizer. • Maintain system flexibility and reliability while riding through extreme grid events or participating in f ast frequency regulation with virtual battery.

DID YOU KNOW? The value of a Digital Power Plant over the life of an average 500 MW plant is estimated at $230 million for new plants and $50 million for existing plants.

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DIGITAL POWER PLANT SOLUTIONS For new plants, the digital journey begins with the creation of an integrated plant system model that incorporates 3D arrangement with its Digital Twin, a collection of physics-based methods and advanced analytics that model the present state of assets in a virtual view of the power plant. These system-level models utilize both physics-based domain knowledge as well as terabytes of operational and test data to simulate asset-level and plant-level performance, cost, emissions, and life. GE is developing machine-learning algorithms to evolve the Digital Twin throughout the plant’s life cycle and to build “what if” scenario plans to help improve plant design and construction. As a new plant transitions from construction to commercial operation, Digital Power Plant applications connect the Digital Twin with advanced controls to achieve improved performance and customized operations. The software applications allow power plant owners to optimize the performance and profitability of their systems with better informed short- and long-term decisions to balance revenue, cost, and risk. Predictive analytics and control simulations consider past and future scenarios and advanced control capabilities act to achieve desired outcomes. Digital Twin is the key to unlocking the next chapter in power plant engineering, procurement, and construction. With Digital Power Plant solutions you can: • Reduce variable operating and maintenance costs by planning outages with odometers & performance recovery advisors. • Reduce operating costs utilizing efficiency optimizer, start agility, fast load following, and turndown. • Increase MWh generation while managing outage intervals utilizing peak fire, cold part load, and dispatch optimizer. • Maintain system flexibility and reliability while riding through extreme grid events or participating in f ast frequency regulation with virtual battery.

DID YOU KNOW? The value of a Digital Power Plant over the life of an average 500 MW plant is estimated at $230 million for new plants and $50 million for existing plants.

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DIGITAL POWER PLANT FLEET SOLUTIONS

Asset Performance

The Digital Power Plant is Predix enabled via the IICS. By providing a standard way to develop,

• Advanced proprietary analytics predict potential equipment failure to effectively plan maintenance. • Accurate diagnosis of equipment issues helps move towards no unplanned downtime. • Customized maintenance strategies through OO suite reduces maintenance activity and costs.

deploy, and operate industrial machine software, GE’s Predix platform turns ordinary machines into smart machines. Predix-ready machines work together and deliver real-time data and insight, improving overall operator efficiency and performance. Today, Digital Power Plants are plug-and-play with fleet-level Asset Performance Management, Operations Optimization, Business Optimization, and Cyber Security solutions.

Operations Optimization

• Asset Performance Management (APM) is designed to increase asset reliability and availability

• Relevant signals and variables provide operators with real-time actionable information on plant operability, safety, and availability margins. • Digital Twin enables asset-level optimization of fuel analysis, asset performance, and plant-level optimization. • Real-time information enables quick decisions with advisable situations regarding transient, low-load, and startup operation.

while reducing maintenance costs. APM connects disparate data sources and uses advanced analytics to turn that data into actionable insights while fostering collaboration and knowledge management across the organization. APM provides organizations the flexibility to develop new analytics and applications. • Operations Optimization (OO) provides key performance indicator (KPI) focused analytics to multiple levels of the customer’s organization. OO enables a consistent view of operations, allowing better and faster decision making. Additionally, designed to help plant managers increase operational flexibility, OO’s continuing evolution of plant optimization edge-to-cloud solutions address plant capacity, efficiency, flexibility, availability, and emissions over its life cycle.

Business Optimization

OO not only shows organizations where they’re performing today, but provides recommendations

• Real-time transparency to power production grants additional MW to sell.

on operational changes that will influence a more positive outcome over the long term.

• Avoid penalties by making offers with confidence to meet delivery commitments. • Accurate and profitable fuel purchasing decisions based on data-driven analytics. • Real-time insights into financial KPIs for executives, traders, and plant managers.

• Business Optimization helps power producers take full advantage of predictive analytics to make improved decisions around power trading, fuel purchases, and portfolio management. • Cyber Security solutions assess risks and implement preventative measures to ensure plant security from initial commercial operation through the entire plant life cycle.

Cyber Security • Reduce the risk of cyber attacks on key assets, SCADA/ICS systems, and network infrastructure. • Proactive identification of critical vulnerabilities and security events. • Improve operational reliability and reduce risk in business continuity. • Regulatory compliance for NERC CIP.

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DIGITAL POWER PLANT FLEET SOLUTIONS

Asset Performance

The Digital Power Plant is Predix enabled via the IICS. By providing a standard way to develop,

• Advanced proprietary analytics predict potential equipment failure to effectively plan maintenance. • Accurate diagnosis of equipment issues helps move towards no unplanned downtime. • Customized maintenance strategies through OO suite reduces maintenance activity and costs.

deploy, and operate industrial machine software, GE’s Predix platform turns ordinary machines into smart machines. Predix-ready machines work together and deliver real-time data and insight, improving overall operator efficiency and performance. Today, Digital Power Plants are plug-and-play with fleet-level Asset Performance Management, Operations Optimization, Business Optimization, and Cyber Security solutions.

Operations Optimization

• Asset Performance Management (APM) is designed to increase asset reliability and availability

• Relevant signals and variables provide operators with real-time actionable information on plant operability, safety, and availability margins. • Digital Twin enables asset-level optimization of fuel analysis, asset performance, and plant-level optimization. • Real-time information enables quick decisions with advisable situations regarding transient, low-load, and startup operation.

while reducing maintenance costs. APM connects disparate data sources and uses advanced analytics to turn that data into actionable insights while fostering collaboration and knowledge management across the organization. APM provides organizations the flexibility to develop new analytics and applications. • Operations Optimization (OO) provides key performance indicator (KPI) focused analytics to multiple levels of the customer’s organization. OO enables a consistent view of operations, allowing better and faster decision making. Additionally, designed to help plant managers increase operational flexibility, OO’s continuing evolution of plant optimization edge-to-cloud solutions address plant capacity, efficiency, flexibility, availability, and emissions over its life cycle.

Business Optimization

OO not only shows organizations where they’re performing today, but provides recommendations

• Real-time transparency to power production grants additional MW to sell.

on operational changes that will influence a more positive outcome over the long term.

• Avoid penalties by making offers with confidence to meet delivery commitments. • Accurate and profitable fuel purchasing decisions based on data-driven analytics. • Real-time insights into financial KPIs for executives, traders, and plant managers.

• Business Optimization helps power producers take full advantage of predictive analytics to make improved decisions around power trading, fuel purchases, and portfolio management. • Cyber Security solutions assess risks and implement preventative measures to ensure plant security from initial commercial operation through the entire plant life cycle.

Cyber Security • Reduce the risk of cyber attacks on key assets, SCADA/ICS systems, and network infrastructure. • Proactive identification of critical vulnerabilities and security events. • Improve operational reliability and reduce risk in business continuity. • Regulatory compliance for NERC CIP.

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CONTENTS

GAS POWER SYSTEMS CATALOG I POWER PLANTS


GE’S PLANT APPROACH

CONTROLS

Meeting Your Needs with Custom Power Genera tion TOPPING CYCLE

Technology, experience, and people—this combination is what allows GE to deliver the highest value simple cycle and combined cycle power plants anywhere in the world. Our technology provides the lowest life cycle cost of converting fuel to electricity; our experience spans 100+ years and includes countless impactful innovations and technology improvements; and our people work every day to create and deliver ground breaking solutions for customers, partners,

ELECTRICAL CONVERSION

and communities around the world.

BOTTOMING CYCLE

Our simple and combined cycle power plants are flexible in their operation and include features such as fast start and load ramping, load turndown, and high full- and part-load efficiencies. This flexibility delivers improved plant economics, including: • Reduced capital costs • Reduced operation and maintenance costs • Shorter installation times, reduced installation costs, and fast revenue production • Improved reliability and availability

SOLUTIONS TAILORED TO YOUR NEEDS

GE’s integrated approach to plant development means that from planning through commissioning, we consider individual components as well as balance of plant systems in each decision we

It is rare to find two plants perfectly alike, which is why you’ll find GE working hand-in-hand with customers to develop and build custom engineered solutions to match unique business and operational needs. Whether the project requires a single gas turbine generator set or a multi-unit turnkey solution, GE has readily available product designs to meet critical power needs quickly.

make with our customers. This holistic view keeps us focused on your wants and needs and in tune with each selection’s impact on the overall product. Each system, and our associated power generation offerings, are discussed in the subsequent sections of this catalog.

GE also has a global team of experienced application engineers around the world to support economic analysis and off-design performance of our products to satisfy any special application, operational, or environmental need. We are committed to defining the best solution with our customers from the foundation of our product performance to other levels of support, whether through customized long-term service agreements, financing solutions, or additional product solutions and services.

• TOPPING CYCLE: The gas turbine and its dedicated systems. • BOTTOMING CYCLE: The steam turbine, heat recovery steam generator (HRSG), and systems that reject heat to the environment. • ELECTRICAL CONVERSION: The systems that produce and export power to the grid or supply power to plant equipment.

Customization starts with product configuration and understanding the right scope of supply that customers and partners need from GE.

• CONTROLS: The systems and software that protect, control, monitor, and improve performance of the entire plant.

When it comes to financing your project, GE’s Energy Financial Services business offers a range of solutions to make your business model and well-defined strategy a reality. A full portfolio of equity investments includes projects with individual companies, partnerships, and both private and public energy companies. For those who require something a little different, GE also offers debt solutions, including options like leasing and limited partnerships.

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GE’S PLANT APPROACH

CONTROLS

Meeting Your Needs with Custom Power Genera tion TOPPING CYCLE

Technology, experience, and people—this combination is what allows GE to deliver the highest value simple cycle and combined cycle power plants anywhere in the world. Our technology provides the lowest life cycle cost of converting fuel to electricity; our experience spans 100+ years and includes countless impactful innovations and technology improvements; and our people work every day to create and deliver ground breaking solutions for customers, partners,


and communities around the world.

BOTTOMING CYCLE

Our simple and combined cycle power plants are flexible in their operation and include features such as fast start and load ramping, load turndown, and high full- and part-load efficiencies. This flexibility delivers improved plant economics, including: • Reduced capital costs • Reduced operation and maintenance costs • Shorter installation times, reduced installation costs, and fast revenue production • Improved reliability and availability

SOLUTIONS TAILORED TO YOUR NEEDS

GE’s integrated approach to plant development means that from planning through commissioning, we consider individual components as well as balance of plant systems in each decision we

It is rare to find two plants perfectly alike, which is why you’ll find GE working hand-in-hand with customers to develop and build custom engineered solutions to match unique business and operational needs. Whether the project requires a single gas turbine generator set or a multi-unit turnkey solution, GE has readily available product designs to meet critical power needs quickly.

make with our customers. This holistic view keeps us focused on your wants and needs and in tune with each selection’s impact on the overall product. Each system, and our associated power generation offerings, are discussed in the subsequent sections of this catalog.

GE also has a global team of experienced application engineers around the world to support economic analysis and off-design performance of our products to satisfy any special application, operational, or environmental need. We are committed to defining the best solution with our customers from the foundation of our product performance to other levels of support, whether through customized long-term service agreements, financing solutions, or additional product solutions and services.

• TOPPING CYCLE: The gas turbine and its dedicated systems. • BOTTOMING CYCLE: The steam turbine, heat recovery steam generator (HRSG), and systems that reject heat to the environment. • ELECTRICAL CONVERSION: The systems that produce and export power to the grid or supply power to plant equipment.

Customization starts with product configuration and understanding the right scope of supply that customers and partners need from GE.

• CONTROLS: The systems and software that protect, control, monitor, and improve performance of the entire plant.

When it comes to financing your project, GE’s Energy Financial Services business offers a range of solutions to make your business model and well-defined strategy a reality. A full portfolio of equity investments includes projects with individual companies, partnerships, and both private and public energy companies. For those who require something a little different, GE also offers debt solutions, including options like leasing and limited partnerships.

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25

CONTENTS



CONFIGURATIONS FOR EVERY APPLICATION The choice of single shaft or multi-shaft combined cycle plant depends on numerous customer-specific requirements such as land availability, grid access constraints, $/kW target, and expected operating profile. In all cases, GE’s high performance gas turbine-based power plants can meet your unique wants and needs. P LANT T YPE Combined Cycle Single Gas Turbine

Combined Cycle Multiple Gas Turbines

S ING LE SH AF T AD VA NTAG ES

M ULT I-S HAF T ADVANTAG ES

• Smaller footprint/highest power density (MW/m2) • Lower CAPEX and lower $/kW than multi-shaft

• Accommodates higher levels of CHP and supplemental firing • Amenable to conversion from simple to combined cycle

• Better single gas turbine efficiency • Improvedredundancy • Phased block construction flexibility

• Highest efficiency entitlement • Lower CAPEX and lower $/kW • Accommodates higher levels of CHP and supplemental firing • Amenable to conversion from simple to combined cycle

EQUIPMENT ONLY TO FULL TURNKEY With decades of experience and component know-how, GE extracts maximum value out of every piece of equipment we deploy. Whether we work directly with you or through an engineering, procurement, and construction (EPC) contractor, our scopes of supply are designed to meet individual procurement strategies and risk profiles. GE supplies as little or as much as you need—from equipment to full turnkey. Moving beyond equipment enables more comprehensive performance and operability guarantees and reduces the risk of gaps in scope between suppliers and contractors. With the latter, customers may be able to obtain more favorable financing and insurance terms.

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CONFIGURATIONS FOR EVERY APPLICATION The choice of single shaft or multi-shaft combined cycle plant depends on numerous customer-specific requirements such as land availability, grid access constraints, $/kW target, and expected operating profile. In all cases, GE’s high performance gas turbine-based power plants can meet your unique wants and needs. P LANT T YPE Combined Cycle Single Gas Turbine

Combined Cycle Multiple Gas Turbines

S ING LE SH AF T AD VA NTAG ES

M ULT I-S HAF T ADVANTAG ES

• Smaller footprint/highest power density (MW/m2) • Lower CAPEX and lower $/kW than multi-shaft

• Accommodates higher levels of CHP and supplemental firing • Amenable to conversion from simple to combined cycle

• Better single gas turbine efficiency • Improvedredundancy • Phased block construction flexibility

• Highest efficiency entitlement • Lower CAPEX and lower $/kW • Accommodates higher levels of CHP and supplemental firing • Amenable to conversion from simple to combined cycle

EQUIPMENT ONLY TO FULL TURNKEY With decades of experience and component know-how, GE extracts maximum value out of every piece of equipment we deploy. Whether we work directly with you or through an engineering, procurement, and construction (EPC) contractor, our scopes of supply are designed to meet individual procurement strategies and risk profiles. GE supplies as little or as much as you need—from equipment to full turnkey. Moving beyond equipment enables more comprehensive performance and operability guarantees and reduces the risk of gaps in scope between suppliers and contractors. With the latter, customers may be able to obtain more favorable financing and insurance terms.

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CONTENTS



EQUIPMENT SCOPE FOR INTEGRATED SOLUTIONS

EXTENDED SCOPE OF SUPPLY

MECHANICAL DRIVE GAS TURBINE

EQUIPMENT ONLY

COMBINED CYCLE

GE Supplies: Any combination of gas turbine, steam turbine, generator, HRSG + accessories + controls GE Guarantees: Equipment performance, equipment delivery

POWER ISLAND ENGINEERED EQUIPMENT PACKAGE (PI-EEP)

SIMPLE CYCLE GAS TURBINE

GE Supplies: Gas turbine + steam turbine generator + HRSG + DCS + emissions monitoring + critical control valves + condenser + emissions monitoring

BOTTOMING CYCLE (COMBINED CYCLE ADD-ON)

GE Guarantees: Combined cycle performance, operability, power island emissions, near-field acoustics, equipment delivery

TURNKEY PLANT (TK PLANT) With partner or self-implement GE Supplies: Various scope from PI-EEP to total plant

SIMPLE CYCLE GAS TURBINE COGEN

28

GE Guarantees (depending on partner scope split): Combined cycle performance, operability, plant emissions, far-field acoustics, commercial operation date

REPOWERING

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EQUIPMENT SCOPE FOR INTEGRATED SOLUTIONS

EXTENDED SCOPE OF SUPPLY

MECHANICAL DRIVE GAS TURBINE

EQUIPMENT ONLY

COMBINED CYCLE

GE Supplies: Any combination of gas turbine, steam turbine, generator, HRSG + accessories + controls GE Guarantees: Equipment performance, equipment delivery

POWER ISLAND ENGINEERED EQUIPMENT PACKAGE (PI-EEP)

SIMPLE CYCLE GAS TURBINE

GE Supplies: Gas turbine + steam turbine generator + HRSG + DCS + emissions monitoring + critical control valves + condenser + emissions monitoring

BOTTOMING CYCLE (COMBINED CYCLE ADD-ON)

GE Guarantees: Combined cycle performance, operability, power island emissions, near-field acoustics, equipment delivery

TURNKEY PLANT (TK PLANT) With partner or self-implement GE Supplies: Various scope from PI-EEP to total plant

SIMPLE CYCLE GAS TURBINE COGEN

GE Guarantees (depending on partner scope split): Combined cycle performance, operability, plant emissions, far-field acoustics, commercial operation date

REPOWERING

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LESS SITE TIME, LESS RISK Time is precious, so meeting plant construction milestones is critical to project success. To help

The main focus is on how we assemble the gas turbine and accessories on site. GE’s HA gas turbine

promote ease of constructability in all our projects, we have infused our offerings with features

enclosure features a modular architecture with valves, piping, and electrical systems packaged into

that support less on site work, driving process efficiency and alleviating associated risk.

stackable modules with segregated work zones. These zones allow for simultaneous installation of electrical, piping, and mechanical systems and reduce safety concerns and delays due to

UPPER ENCLOSURE (Service Platform)


interfering tasks. With significantly more room for maintenance than the historical F-class, this enclosure—called our prime package—reduces installation time and cost while offering simpler and faster serviceability.

AIR EXTRACTION MODULE

THE GE ADVANTAGE — PRIME PACKAGE


FIRSTFIRE READY IN

FUEL CONTROL MODULE

10,000

GAS TURBINE DRAINS MODULE

FEWER MAN HOURS

98%

54%

50%

41%

REDUCTION

REDUCTION

REDUCTION

REDUCTION

IN FIELD-INSTALLEDVALVES

IN TURBINE FIELDWELDS

IN ELECTRICALTERMINATIONS

IN PIPINGSYSTEM INTERFACES

Versus traditional F-class packaging

LOWER AIR EXTRACTION MODULE

30

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LESS SITE TIME, LESS RISK Time is precious, so meeting plant construction milestones is critical to project success. To help

The main focus is on how we assemble the gas turbine and accessories on site. GE’s HA gas turbine

promote ease of constructability in all our projects, we have infused our offerings with features

enclosure features a modular architecture with valves, piping, and electrical systems packaged into

that support less on site work, driving process efficiency and alleviating associated risk.

stackable modules with segregated work zones. These zones allow for simultaneous installation of electrical, piping, and mechanical systems and reduce safety concerns and delays due to



interfering tasks. With significantly more room for maintenance than the historical F-class, this enclosure—called our prime package—reduces installation time and cost while offering simpler and faster serviceability.


THE GE ADVANTAGE — PRIME PACKAGE


FIRSTFIRE READY IN

FUEL CONTROL MODULE

10,000

GAS TURBINE DRAINS MODULE

FEWER MAN HOURS

98%

54%

50%

41%

REDUCTION

REDUCTION

REDUCTION

REDUCTION

IN FIELD-INSTALLEDVALVES

IN TURBINE FIELDWELDS

IN ELECTRICALTERMINATIONS

IN PIPINGSYSTEM INTERFACES

Versus traditional F-class packaging

LOWER AIR EXTRACTION MODULE

30

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THE HEART OF A COMBINED CYCLE POWER PLANT IS THE GAS TURBINE

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THE HEART OF A COMBINED CYCLE POWER PLANT IS THE GAS TURBINE

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9HA POWER PLANTS (50 Hz)

CUSTOMER HIGHLIGHT

The world’s highest power density combined cycle plants are powered by GE 9HA gas turbines.

“By commissioning the first combined cycle plant equipped

These turbines marry sheer power and record-breaking efficiency to deliver the most cost-effective conversion of fuel to electricity. Streamlined maintenance completes the offering, creating an ideal

with GE’s HA turbine, EDF demonstrates its intent to

solution to meet increasingly dynamic power demands across a range of applications.

apply the best available technologies on the market

C APAB IL IT Y

to make its French thermal power plants more energy

VE R S AT I LIT Y

Ramp rates greater than 100 MW/min and +38% turndown enable 400-500 MW of power on the grid in about 4 minutes

Wide gas variability, including high ethane (shale) gas and LNG

S U S TA IN AB ILI T Y

efficient while supporting the energy transition.”

Lowest air emissions (NOx, CO2) across all forms of fossil fuelbased power generation

— Jean-Bernard Lévy, CEO, EDF

9H A .01 e SC N et Outp ut (MW) t c n n a SC N et Heat Ra te (Bt u/kWh, L HV) a l m P r o SC N et Heat Ra te (k J/ kWh , LHV ) f C S r e P SC N et Effi cien c y (% , LHV)

CC Ne t Output (MW) CC Ne t He at Rate (Btu/ kWh, LHV )

t e n c n CC Ne t He at Rate (k J/ k Wh , LHV) a a l P m CC Ne t Efficiency (%, LHV) C r o C f x r e Pla nt Tu rn dow n – Minimum Loa d (%) 1 P

9H A .02

446

544

7,910

7,766

8,346

8,194

43.1%

43.9%

659

804

5,383

5,373

5,679

5,669

63.4%

63.5%

38. 0%

38.0%

Ram p R ate (MW/min)

65

88

Sta r t up T ime (R R Hot , Minute s)

<30

<30

CC Ne t Output (MW)

1, 320

1,613

CC Ne t He at Rate (Btu/ kWh, LHV )

5, 373

5, 356

t e n c CC Ne t He at Rate (k J/ k Wh , LHV) a n a l P m r CC Ne t Effic ien c y (% , LHV) C o C f r Pla nt Tu rn dow n – Minimum Loa d (%) x e 2 P

5,669

5,630

63. 5%

63.7%

18. 0%

18.0%

Ram p R ate (MW/m in)

130

176

St ar t up T ime (R R Hot , Minutes)

<30

<30

NOTE:Allratingsarenetplant,basedon ISOconditionsandnaturalgasfuel.Actualperformancewillvarywithprojectspecificconditionsandfuel.

DID YOU KNOW KNOW??

446-544 MW

The 9HA holds the world record for powering the most efficient combined cycle power plant at 62.22% efficiency.

34

SIMPLE CYCLE OUTPUT

>63% COMBINED CYCLE EFFICIENCY

TABLE OF CONTENTS

35



CUSTOMER HIGHLIGHT

The world’s highest power density combined cycle plants are powered by GE 9HA gas turbines.

“By commissioning the first combined cycle plant equipped

These turbines marry sheer power and record-breaking efficiency to deliver the most cost-effective conversion of fuel to electricity. Streamlined maintenance completes the offering, creating an ideal

with GE’s HA turbine, EDF demonstrates its intent to

solution to meet increasingly dynamic power demands across a range of applications.

apply the best available technologies on the market

C APAB IL IT Y

to make its French thermal power plants more energy

VE R S AT I LIT Y

Ramp rates greater than 100 MW/min and +38% turndown enable 400-500 MW of power on the grid in about 4 minutes


Wide gas variability, including high ethane (shale) gas and LNG

efficient while supporting the energy transition.”

Lowest air emissions (NOx, CO2) across all forms of fossil fuelbased power generation

— Jean-Bernard Lévy, CEO, EDF

9H A .01 e SC N et Outp ut (MW) t c n n a SC N et Heat Ra te (Bt u/kWh, L HV) a l m P r o SC N et Heat Ra te (k J/ kWh , LHV ) f C r S e P SC N et Effi cien c y (% , LHV)


t e n c CC Ne t He at Rate (k J/k Wh, LHV) a n a l P m CC Ne t Efficiency (%, LHV) C r o C f x r e Pla nt Tu rn dow n – Minimum Loa d (%) 1 P

9H A .02

446

544

7,910

7,766

8,346

8,194

43.1%

43.9%

659

804

5,383

5,373

5,679

5,669

63.4%

63.5%

38. 0%

38.0%

Ram p R ate (MW/min)

65

88

Sta r t up T ime (R R Hot , Minute s)

<30

<30

CC Ne t Output (MW)

1, 320

1,613


5, 373

5, 356

t e n c CC Ne t He at Rate (k J/k Wh, LHV) a n a l P m CC Ne t Efficiency (% , LHV) C r o C f x r e Pla nt Tu rn dow n – Minimum Loa d (%) 2 P

5,669

5,630

63. 5%

63.7%

18. 0%

18.0%


130

176


<30

<30


DID YOU KNOW KNOW??

446-544 MW

The 9HA holds the world record for powering the most efficient combined cycle power plant at 62.22% efficiency.

SIMPLE CYCLE OUTPUT


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CUSTOMER HIGHLIGHT

Whether your plant operates at baseload or peaking profiles, you can count on GE’s 7HA gas

“Exelon is pleased to continue our longstanding relationship

turbine to deliver impressive performance. performance. The 7HA operates across a wide range of gases, including high ethane (shale) gas and LNG, and can deliver a rapid startup, ramping up to full

with GE to provide additional natural gas generating capacity

load in less than 30 minutes.

with industry-leading performance. GE’s high output and

C APAB IL IT Y

VE R S AT I LIT Y

55-110 MW/minute ramping capability within emissions compliance

Turndown 2x1 plant load to about 18% of baseload while maintaining emissions compliance

high efficiency H-class technologies enable us to provide


our customers with reliable and low-cost energy.”

Simplified dual fuel system uses less water and eliminates fuel recirculation

— Ken Cornew, President and CEO, Exelon Generation

DID YOU KNOW KNOW??

7HA . 01 e SC N et Outp ut (MW) t c n n a SC N et H eat Ra te (Bt u/kWh, L HV) a l m P r o SC N et H eat Ra te (k J/ kWh , LHV ) f C S r e P SC N et Effi cien c y (% , LHV)

With the 7HA gas turbine’s modular packaging configuration, our 7HA multi-shaft plant solutions can meet an aggressive construction schedule of less than 27 months.

7H A . 02

289

372

8,150

8,020

8, 599

8,462

41.9%

42.5%

CC Ne t Output (MW)

436

560


5,497

5,408

t e n c n CC Ne t He at Rate (k J/ k Wh , LHV) a a l P m C C N e t Effi c i e n c y ( % , L H V ) C r o C f x r e Pla nt Turn do wn – Minimum Lo ad (%) 1 P

5,799

5,706

62.1%

63.1%

33.0%

38.0%


55

50


<30

<30

877

1,122

5,466

5, 398


t e n c CC Ne t He at Rate (k J/ k Wh , LHV) a n a l P m r CC Ne t Effic ien c y (% , LHV) C o C f r Pla nt Tu rn dow n – Minimum Loa d (%) x e 2 P

5,767

5,695

62.4%

63. 2%

15.0%

18.0%


110

100


<30

<30


289-372 MW

SIMPLE CYCLE OUTPUT

>63% COMBINED CYCLE EFFICIENCY 36

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37



CUSTOMER HIGHLIGHT

Whether your plant operates at baseload or peaking profiles, you can count on GE’s 7HA gas

“Exelon is pleased to continue our longstanding relationship

turbine to deliver impressive performance. performance. The 7HA operates across a wide range of gases, including high ethane (shale) gas and LNG, and can deliver a rapid startup, ramping up to full

with GE to provide additional natural gas generating capacity

load in less than 30 minutes.

with industry-leading performance. GE’s high output and

C APAB IL IT Y

VE R S AT I LIT Y

55-110 MW/minute ramping capability within emissions compliance

high efficiency H-class technologies enable us to provide


our customers with reliable and low-cost energy.”

Simplified dual fuel system uses less water and eliminates fuel recirculation

Turndown 2x1 plant load to about 18% of baseload while maintaining emissions compliance

— Ken Cornew, President and CEO, Exelon Generation

DID YOU KNOW KNOW??

7HA . 01 e SC N et Outp ut (MW) t c n n a SC N et H eat Ra te (Bt u/kWh, L HV) a l m P r o SC N et H eat Ra te (k J/ kWh , LHV ) f C r S e P SC N et Effi cien c y (% , LHV)

With the 7HA gas turbine’s modular packaging configuration, our 7HA multi-shaft plant solutions can meet an aggressive construction schedule of less than 27 months.

7H A . 02

289

372

8,150

8,020

8, 599

8,462

41.9%

42.5%

CC Ne t Output (MW)

436

560


5,497

5,408

t e n c CC Ne t He at Rate (k J/k Wh, LHV) a n a l P m C C N e t Effi c i e n c y ( % , L H V ) C r o C f x r e Pla nt Turn do wn – Minimum Lo ad (%) 1 P

5,799

5,706

62.1%

63.1%

33.0%

38.0%


55

50


<30

<30

877

1,122

5,466

5, 398


t e n c CC Ne t He at Rate (k J/k Wh, LHV) a n a l P m CC Ne t Efficiency (% , LHV) C r o C f x r e Pla nt Tu rn dow n – Minimum Loa d (%) 2 P

5,767

5,695

62.4%

63. 2%

15.0%

18.0%


110

100


<30

<30


289-372 MW

SIMPLE CYCLE OUTPUT

>63% COMBINED CYCLE EFFICIENCY TABLE OF

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9F POWER PLANTS (50 Hz)

CUSTOMER HIGHLIGHT

One of the most manufactured gas turbines in the world, GE’s 9F delivers consistent performance and accommodates a diverse range of fuels, making it ideal for a variety of combined cycle and

The 466 MW Tianjin Lingang combined cycle cogeneration power

CHP power applications. 9F power plants provide flexibility and rapid response so operations can

plant, owned and operated by China Huaneng Corporation, features a GE 9F.05 gas turbine, a GE 330H hydrogen-cooled generator, and a district heating solution for winter operation from Harbin Electric Corporation, GE’s business partner and licensing associate. It is one of the most fuel efficient Chinese power plants to date. GE 9F.05 gas turbine’s high efficiency and reliability ensures that the Tianjin Lingang plant serves as a dependable source of heat and power.

be quickly adjusted to compensate for changes in demand or use of renewable generation. CAPABILITY 300+ units operating in the field with 17+ million fired hours & 250,000 fired starts

VERSATILITY Operational flexibility that can be rapidly adjusted to compensate for changes in demand or use of renewable generation

SUSTAINABILITY Delivers water conservation and World Bank emissions standards without water injection while operating on liquid fuel

e SC t c n n a a mSC l P r o SC f C S r e P SC

9F.04

9F.05

Net Output (MW)

287

314

9F.06 359

Net Heat Rate (Btu/kWh, LHV)

8,810

8,930

8,146

Net Heat Rate (kJ/kWh, LHV)

9,295

9,422

8,595

Net Efficiency (%, LHV)

38.7%

38.2%

41.9%

CC Net Output (MW)

432

493

532

CC Net Heat Rate (Btu/kWh, LHV)

5,692

5,619

5,489

t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m CC Net Efficiency (%, LHV) C r o C f x r Plant Turndown – Minimum Load (%) e 1 P

6,006

5,928

5,791

59.9%

60.7%

62.2% 49.0%

45.0%

46.0%

Ramp Rate (MW/min)

22

24

65

Startup Time (RR Hot, Minutes)

30

30

<30 1,067

CC Net Output (MW)

866

989


5,676

5,603

5,476

5,989

5,911

5,777

t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m CC Net Efficiency (%, LHV) C r o C f x r e Plant Turndown – Minimum Load (%) 2 P

60.1%

60.9%

62.3%

22.0%

23.0%

23.0%

Ramp Rate (MW/min)

44

48

130


39

39

<30


THE 9F.06

265-359 MW

The 9F.06 is the largest, most eff icient F-class turbine and a continued evolution of the best of our 9HA and 9F.05 products.

38

SIMPLE CYCLE OUTPUT

>62% COMBINED CYCLE EFFICIENCY TABLE OF CONTENTS

39



CUSTOMER HIGHLIGHT

One of the most manufactured gas turbines in the world, GE’s 9F delivers consistent performance and accommodates a diverse range of fuels, making it ideal for a variety of combined cycle and

The 466 MW Tianjin Lingang combined cycle cogeneration power

CHP power applications. 9F power plants provide flexibility and rapid response so operations can

plant, owned and operated by China Huaneng Corporation, features a GE 9F.05 gas turbine, a GE 330H hydrogen-cooled generator, and a district heating solution for winter operation from Harbin Electric Corporation, GE’s business partner and licensing associate. It is one of the most fuel efficient Chinese power plants to date. GE 9F.05 gas turbine’s high efficiency and reliability ensures that the Tianjin Lingang plant serves as a dependable source of heat and power.

be quickly adjusted to compensate for changes in demand or use of renewable generation. CAPABILITY

VERSATILITY

300+ units operating in the field with 17+ million fired hours & 250,000 fired starts

SUSTAINABILITY

Operational flexibility that can be rapidly adjusted to compensate for changes in demand or use of renewable generation

Delivers water conservation and World Bank emissions standards without water injection while operating on liquid fuel

e SC Net Output (MW) t c n n a a mSC Net Heat Rate (Btu/kWh, LHV) l P r o SC Net Heat Rate (kJ/kWh, LHV) f C r S e P SC Net Efficiency (%, LHV)

9F.04

9F.05

287

314

9F.06 359

8,810

8,930

8,146

9,295

9,422

8,595

38.7%

38.2%

41.9%

CC Net Output (MW)

432

493

532


5,692

5,619

5,489

t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m CC Net Efficiency (%, LHV) C r o C f r Plant Turndown – Minimum Load (%) x e 1 P

6,006

5,928

5,791

59.9%

60.7%

62.2% 49.0%

45.0%

46.0%

Ramp Rate (MW/min)

22

24

65


30

30

<30 1,067

CC Net Output (MW)

866

989


5,676

5,603

5,476

5,989

5,911

5,777

t e n c n CC Net Heat Rate (kJ/kWh, LHV) a a l P m CC Net Efficiency (%, LHV) C r o C f x r e Plant Turndown – Minimum Load (%) 2 P

60.1%

60.9%

62.3%

22.0%

23.0%

23.0%

Ramp Rate (MW/min)

44

48

130


39

39

<30


THE 9F.06

265-359 MW

The 9F.06 is the largest, most eff icient F-class turbine and a continued evolution of the best of our 9HA and 9F.05 products.

SIMPLE CYCLE OUTPUT


38

39

CONTENTS



CUSTOMER HIGHLIGHT

Today, GE powers the globe with more than 1,100 installed 7F units, producing 173 GW of

“Techint Group selected GE’s 7F.05 turbines, a steam

power in 12 countries. With 99 percent reliability, customers receive five to six more days of operation per year than the industry average. Beyond baseload applications, a 10-minute fast

turbine, and associated generators for the Central Electrica

start enables increased revenue and the ability to dispatch during peak demand.

Pesqueria combined cycle power plant in Mexico to provide

CAPABILITY Field replaceable compressor blades reduce downtime and outage costs

VERSATILITY Only F-class that burns Arabian Super Light; also offers 15% C 2, +20%/-10% Modified Wobbe Index, and 5% hydrogen

900 MW of capacity. This advanced technology will help us

SUSTAINABILITY

be more sustainable while providing reliable and efficient

Continually leading the way since being the first F-class to achieve 5 ppm NOx emissions

energy to the region.” — Humberto Fernandez, CEO, Pesqueria Power Plant

e SC t c n n a a mSC l P r o SC f C S r e P SC

Net Output (MW) Net Heat Rate (Btu/kWh, LHV)

7F.04

7F.05

198

241

7F.06 271

8,840

8,570

8,179


9,327

9,042

8,629


38.6%

39.8%

41.7%

CC Net Output (MW)

305

376

396


5,715

5,660

5,574

t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m CC Net Efficiency (%, LHV) C r o C f x r Plant Turndown – Minimum Load (%) e 1 P

6,030

5,972

5,881

59.7%

60.3%

61.2% 35.0%

58.0%

48.0%

Ramp Rate (MW/min)

30

40

55


28

25

<30

CC Net Output (MW)

615

756

797


5,676

5,640

5,548

t e c n n a a CC Net Heat Rate (kJ/kWh, LHV) l P m CC Net Efficiency (%, LHV) C r o C f x r e Plant Turndown – Minimum Load (%) 2 P

5,989

5,972

5,854

60.1%

60.3%

61.5%

27.0%

24.0%

17.0%

Ramp Rate (MW/min)

60

80

110


28

25

<30


THE 7F.06

198-271 MW

Provides the best efficiency and the highest power density package when considering F-class maintenance intervals.

40

SIMPLE CYCLE OUTPUT


TABLE OF CONTENTS

41



CUSTOMER HIGHLIGHT

Today, GE powers the globe with more than 1,100 installed 7F units, producing 173 GW of

“Techint Group selected GE’s 7F.05 turbines, a steam

power in 12 countries. With 99 percent reliability, customers receive five to six more days of operation per year than the industry average. Beyond baseload applications, a 10-minute fast

turbine, and associated generators for the Central Electrica

start enables increased revenue and the ability to dispatch during peak demand.

Pesqueria combined cycle power plant in Mexico to provide

CAPABILITY

VERSATILITY

Field replaceable compressor blades reduce downtime and outage costs

Only F-class that burns Arabian Super Light; also offers 15% C 2, +20%/-10% Modified Wobbe Index, and 5% hydrogen

900 MW of capacity. This advanced technology will help us

SUSTAINABILITY

be more sustainable while providing reliable and efficient

Continually leading the way since being the first F-class to achieve 5 ppm NOx emissions

energy to the region.” — Humberto Fernandez, CEO, Pesqueria Power Plant

e SC Net Output (MW) t c n n a a mSC Net Heat Rate (Btu/kWh, LHV) l P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)

7F.04

7F.05

198

241

7F.06 271

8,840

8,570

8,179

9,327

9,042

8,629

38.6%

39.8%

41.7%

CC Net Output (MW)

305

376

396


5,715

5,660

5,574

t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m CC Net Efficiency (%, LHV) C r o C f r Plant Turndown – Minimum Load (%) x e 1 P

6,030

5,972

5,881

59.7%

60.3%

61.2% 35.0%

58.0%

48.0%

Ramp Rate (MW/min)

30

40

55


28

25

<30

CC Net Output (MW)

615

756

797


5,676

5,640

5,548


5,989

5,972

5,854

60.1%

60.3%

61.5%

27.0%

24.0%

17.0%

Ramp Rate (MW/min)

60

80

110


28

25

<30


THE 7F.06

198-271 MW

Provides the best efficiency and the highest power density package when considering F-class maintenance intervals.

SIMPLE CYCLE OUTPUT


TABLE OF

40

41

CONTENTS


9E & GT13E2 POWER PLANTS (50 Hz)

CUSTOMER HIGHLIGHT

From desert climates, to the tropics, to the arctic cold, GE’s 9E & GT13E2 power plants are equipped to operate in the most rugged conditions across a vast number of duty cycles and applications. The

Samra Electric Power Company selected the fuel flexible

9E & GT13E2 heavy duty gas turbines provide increased power and performance while maintaining

GT13E2 to power its Samra IV fast-track simple cycle power

the simplicity and operational strengths expected of the E-class fleet. These products maintain the

plant in the Kingdom of Jordan. It took just eight months to

largest range of industrial uses, including oil & gas applications, aluminum, steel, and integrated

go from contract to commercial operation, and the plant can

water and power plant (IWPP). CAPABILITY

switch from natural gas and oil (dry) within 90 seconds. VERSATILITY

Operates in extreme environments from -40°F to 120°F

Capable of order to operation in less than six months

SUSTAINABILITY API-compliant, burning over 50 types of fuel, and can switch fuels while running under full load

e SC Net Output (MW) t c n n a a SC Net Heat Rate (Btu/kWh, LHV) l m P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)

9E.04

132

145

GT13E2 203

9,860

9,210

8,980

10,403

9,717

9,474

34.6%

37.0%

38.0%

CC Net Output (MW)

204

215

289


6,399

6,210

6,206

t e c n n a a CC Net Heat Rate (kJ/kWh, LHV) l P m CC Net Efficiency (%, LHV) C r o C f x r e Plant Turndown – Minimum Load (%) 1 P 1

6,751

6,552

6,548

53.3%

54.9%

55.0% 39.0%

45.0%

46.0%

Ramp Rate (MW/min)

50

16

14

Startup Time (RR Hot, Minutes)2

38

38

80

CC Net Output (MW)

410

433

581


6,353

6,169

6,178

t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m r CC Net Efficiency (%, LHV) C o C f r Plant Turndown – Minimum Load (%) x e 2 P

Ramp Rate (MW/min)1


6,703

6,509

6,518

53.7%

55.3%

55.2%

22.0%

22.0%

19.0%

100

25

28

38

38

80

1.)RampratesareFastRampviaAGC 2 . )Start timesare based onrapid response technologiesinhot start conditionswith purge creditrecognized. Simultaneousstartsequence of gasturbine may apply dependingonexact project configurations. NOTE:Allratingsarenetplant, basedonISOconditionsandnaturalgasfuel.Actualperformancewillvarywithprojectspecificconditionsandfuel.

DID YOU KNOW? GE has shipped more than 150 GT13E2 units and has provided more than 10 million hours of utility and industrial service on those machines.

42

9E.03

132-203 MW

SIMPLE CYCLE OUTPUT


TABLE OF CONTENTS

43


9E & GT13E2 POWER PLANTS (50 Hz)

CUSTOMER HIGHLIGHT

From desert climates, to the tropics, to the arctic cold, GE’s 9E & GT13E2 power plants are equipped to operate in the most rugged conditions across a vast number of duty cycles and applications. The

Samra Electric Power Company selected the fuel flexible

9E & GT13E2 heavy duty gas turbines provide increased power and performance while maintaining

GT13E2 to power its Samra IV fast-track simple cycle power

the simplicity and operational strengths expected of the E-class fleet. These products maintain the

plant in the Kingdom of Jordan. It took just eight months to

largest range of industrial uses, including oil & gas applications, aluminum, steel, and integrated

go from contract to commercial operation, and the plant can

water and power plant (IWPP). CAPABILITY

switch from natural gas and oil (dry) within 90 seconds. VERSATILITY

Operates in extreme environments from -40°F to 120°F

SUSTAINABILITY

Capable of order to operation in less than six months

API-compliant, burning over 50 types of fuel, and can switch fuels while running under full load

e SC t c n n a a l mSC P r o SC f C S r e P SC

9E.03

9E.04

132

145

203


9,860

9,210

8,980


10,403

9,717

9,474


34.6%

37.0%

38.0%

Net Output (MW)

GT13E2

CC Net Output (MW)

204

215

289


6,399

6,210

6,206

t e n c n CC Net Heat Rate (kJ/kWh, LHV) a a l P m CC Net Efficiency (%, LHV) C r o C f x r e Plant Turndown – Minimum Load (%) 1 P 1

6,751

6,552

6,548

53.3%

54.9%

55.0% 39.0%

45.0%

46.0%

Ramp Rate (MW/min)

50

16

14


38

38

80

CC Net Output (MW)

410

433

581


6,353

6,169

6,178


Ramp Rate (MW/min)1


6,703

6,509

6,518

53.7%

55.3%

55.2%

22.0%

22.0%

19.0%

100

25

28

38

38

80

1.)RampratesareFastRampviaAGC 2 . )Start timesare based onrapid response technologiesinhot start conditionswith purge creditrecognized. Simultaneousstartsequence of gasturbine may apply dependingonexact project configurations. NOTE:Allratingsarenetplant, basedonISOconditionsandnaturalgasfuel.Actualperformancewillvarywithprojectspecificconditionsandfuel.

DID YOU KNOW? GE has shipped more than 150 GT13E2 units and has provided more than 10 million hours of utility and industrial service on those machines.

132-203 MW

SIMPLE CYCLE OUTPUT


TABLE OF

42

43

CONTENTS


7E POWER PLANTS (60 Hz)

CUSTOMER HIGHLIGHT

When reliability and availability are critical, plants turn to GE’s 7E gas turbine. Whether providing raw horsepower to drive industrial and petrochemical processes, or steady, reliable output for CHP operation,

Air Liquide recently completed the successful redevelopment

the 7E can perform. It is known for its world-leading fuel handling equipment and combustion system

of its world-scale complex in Texas’ Bayport Industrial District

options, including tri-fuel capability, which lets you switch f uels while running under load or shutdown.

(United States). At the center of the project are four GE 7E

CAPABILITY

cogeneration units. Upgrades are increasing production and

VERSATILITY

Delivering better efficiency and NOx/CO compliant turndown to 35% of baseload on a full range of fuels

Robust architecture and operating profiles make it well suited for a variety of peaking, cyclic, and baseload applications

SUSTAINABILITY

positioning Air Liquide to better serve the growing needs of

Sub 3 ppm NO x emissions without selective catalytic reduction (SCR)

their customers in a safe, reliable and efficient way.

7E.03 e SC Net Output (MW) t c n n a SC Net Heat Rate (Btu/kWh, LHV) a l m P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)

91 10,060 10,614 33.9%

CC Net Output (MW)

142


6,505


Ramp Rate (MW/min)

6,863 52.5% 45.0% 40


35

CC Net Output (MW)

287


6,439


6,793 53.0% 22.0%

Ramp Rate (MW/min)1

80


35

1.)RampratesareFastRampviaAGC 2.)Start timesare based onrapid response technologiesinhot start conditionswith purge creditrecognized. Simultaneousstartsequence of gasturbine may apply dependingonexact project configurations. NOTE:Allratingsarenetplant,basedon ISOconditionsandnaturalgasfuel.Actualperformancewillvarywithprojectspecificconditionsandfuel.

DID YOU KNOW? 98.3% reliability—more that 2% higher than the industry average—equates to an additional 1,500 MWh or more per year.

44

91 MW

SIMPLE CYCLE OUTPUT


45


7E POWER PLANTS (60 Hz)

CUSTOMER HIGHLIGHT

When reliability and availability are critical, plants turn to GE’s 7E gas turbine. Whether providing raw horsepower to drive industrial and petrochemical processes, or steady, reliable output for CHP operation,

Air Liquide recently completed the successful redevelopment

the 7E can perform. It is known for its world-leading fuel handling equipment and combustion system

of its world-scale complex in Texas’ Bayport Industrial District

options, including tri-fuel capability, which lets you switch f uels while running under load or shutdown.

(United States). At the center of the project are four GE 7E

CAPABILITY

cogeneration units. Upgrades are increasing production and

VERSATILITY

Delivering better efficiency and NOx/CO compliant turndown to 35% of baseload on a full range of fuels

Robust architecture and operating profiles make it well suited for a variety of peaking, cyclic, and baseload applications

SUSTAINABILITY

positioning Air Liquide to better serve the growing needs of

Sub 3 ppm NO x emissions without selective catalytic reduction (SCR)

their customers in a safe, reliable and efficient way.

7E.03 e SC Net t c n n a SC Net a l m P r o SC Net f C r S e P SC Net

Output (MW)

91

Heat Rate (Btu/kWh, LHV)

10,060

Heat Rate (kJ/kWh, LHV)

10,614

Efficiency (%, LHV)

33.9%

CC Net Output (MW)

142


6,505

t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m CC Net Efficiency (%, LHV) C r o C f x r e Plant Turndown – Minimum Load (%) 1 P 1

6,863 52.5% 45.0%

Ramp Rate (MW/min)

40


35

CC Net Output (MW)

287


6,439


6,793 53.0% 22.0%

Ramp Rate (MW/min)1

80


35


DID YOU KNOW? 98.3% reliability—more that 2% higher than the industry average—equates to an additional 1,500 MWh or more per year.

91 MW

SIMPLE CYCLE OUTPUT


44

45

CONTENTS


LMS100 POWER PLANTS (50/60 Hz)

CUSTOMER HIGHLIGHT

If it’s efficiency you’re looking for, search no more. Our LMS100 aeroderivative gas turbine is the highest simple cycle efficiency gas turbine in the world. Its intercooled gas turbine system

Using eight of GE’s LMS100 gas turbines, an 800 MW

provides rapid startup, with an 8-minute start to full load, ramp from 15 MW to full load in less

simple cycle power plant that supplies power to California’s

than 25 seconds, and emergency ramp speeds of up to 500 MW/minute. In high renewable

Coachella Valley and Los Angeles Basin (United States) is

penetration areas like California, our LMS100 gas turbines are providing 3 GW of generation

helping prevent blackouts during extremely hot weather by

with more than 1,400 MW/minute of ramping capability. CAPABILITY

VERSATILITY

Provides multiple fast starts per day with emissions compliant turndown to 15%

Available dual fuel capability with fuel switching at full power

providing peak power on demand. This quick-starting plant also provides backup to area solar and wind farms.

SUSTAINABILITY Zero water option and lowest CO2 emitting simple cycle gas turbine

LMS100 (50 Hz) LMS100 (60 Hz)

DID YOU KNOW?

e SC Net Output (MW) t c n n a a m SC Net Heat Rate (Btu/kWh, LHV) l P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)

A spinning reserve can be generated by combining an LMS100 and a clutch. The synchronous condensing that it creates requires zero fuel use and enables an 8-minute return from reactive to 100% real power generation.

112

115

8,007

7,887

8,448

8,321

42.6%

43.3%

CC Net Output (MW)

135

137


6,633

6,606


6,998

6,970

51.4%

51.7%

13.0%

13.0%

Ramp Rate (MW/min)

50

50


30

30

271

275

6,614

6,587

CC Net Output (MW) CC Net Heat Rate (Btu/kWh, LHV)


6,978

6,950

51.6%

51.8%

6.0%

6.0%

100

100


30

30

Ramp Rate (MW/min)


112-115 MW

SIMPLE CYCLE OUTPUT

>43% SIMPLE CYCLE EFFICIENCY

46

TABLE OF CONTENTS

47


LMS100 POWER PLANTS (50/60 Hz)

CUSTOMER HIGHLIGHT

If it’s efficiency you’re looking for, search no more. Our LMS100 aeroderivative gas turbine is the highest simple cycle efficiency gas turbine in the world. Its intercooled gas turbine system

Using eight of GE’s LMS100 gas turbines, an 800 MW

provides rapid startup, with an 8-minute start to full load, ramp from 15 MW to full load in less

simple cycle power plant that supplies power to California’s

than 25 seconds, and emergency ramp speeds of up to 500 MW/minute. In high renewable

Coachella Valley and Los Angeles Basin (United States) is

penetration areas like California, our LMS100 gas turbines are providing 3 GW of generation

helping prevent blackouts during extremely hot weather by

with more than 1,400 MW/minute of ramping capability. CAPABILITY

VERSATILITY

Provides multiple fast starts per day with emissions compliant turndown to 15%

providing peak power on demand. This quick-starting plant also provides backup to area solar and wind farms.

SUSTAINABILITY

Available dual fuel capability with fuel switching at full power

Zero water option and lowest CO2 emitting simple cycle gas turbine

LMS100 (50 Hz) LMS100 (60 Hz)

DID YOU KNOW?

e SC Net Output (MW) t c n n a a m SC Net Heat Rate (Btu/kWh, LHV) l P r o SC Net Heat Rate (kJ/kWh, LHV) f C r S e P SC Net Efficiency (%, LHV)

A spinning reserve can be generated by combining an LMS100 and a clutch. The synchronous condensing that it creates requires zero fuel use and enables an 8-minute return from reactive to 100% real power generation.

112

115

8,007

7,887

8,448

8,321

42.6%

43.3%

CC Net Output (MW)

135

137


6,633

6,606


6,998

6,970

51.4%

51.7%

13.0%

13.0%

Ramp Rate (MW/min)

50

50


30

30

271

275

6,614

6,587



6,978

6,950

51.6%

51.8%

6.0%

6.0%

100

100


30

30

Ramp Rate (MW/min)


112-115 MW

SIMPLE CYCLE OUTPUT

>43% SIMPLE CYCLE EFFICIENCY

TABLE OF

46

47

CONTENTS


6F POWER PLANTS (50/60 Hz)

CUSTOMER HIGHLIGHT

With GE’s 6F gas turbine, plant operators can attain the outstanding performance, reliability, and flexibility typically only seen in larger power plants. The 6F packs a lot of power into a small

The Korea Midland Power Company (KOMIPO) has selected

package, and its inherent durability and flexibility make it ideal for harsh and remote environments.

GE’s 6F.03 gas turbine to power a new 250 MW combined

Whether it be for 50 Hz or 60 Hz operation, the 6F maintains optimal efficiency and exhaust

cycle power plant for Jeju Island, Korea. This GE power island

energy for combined cycle and CHP applications. The 6F offers segment-leading 32,000-hour

solution will include two 6F.03 turbines, steam turbines,

combustion and hot gas path inspection intervals.

HRSGs, four generators, controls and maintenance parts.

CAPABILITY

VERSATILITY

Most efficient pair of F-class products capable of operating on traditionalE-classfuels

Plant design enables project commencement to completion in 20 months

SUSTAINABILITY Leading DLN emissions: 15 ppm NOx and 9 ppm CO without water or steam injection system

6F.01 e SC Net Output (MW) t c n n a SC Net Heat Rate (Btu/kWh, LHV) a l m P r o SC Net Heat Rate (kJ/kWh, LHV) f C r S e P SC Net Efficiency (%, LHV)


t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m r CC Net Efficiency (%, LHV) C o C f x r e Plant Turndown – Minimum Load (%) 1 P 1

6F.03

54

82

8,880

9,420

9,369

9,939

38.4%

36.2%

81

125

5,916

6,093

6,242

6,428

57.7%

56.0%

49.0%

60.0%

Ramp Rate (MW/min)

12

7


30

45


t e c n n a a CC Net Heat Rate (kJ/kWh, LHV) l P m CC Net Efficiency (%, LHV) C r o C f x r e Plant Turndown – Minimum Load (%) 2 P 1

163

252

5,865

6,039

6,188

6,372

58.2%

56.5%

24.0%

29.0%

Ramp Rate (MW/min)

24

13


30

35

1.)RampratesareFastRampviaAGC 2.)Start timesare based onrapid response technologiesinhot start conditionswith purge creditrecognized. Simultaneousstart sequence of gasturbine may apply dependingonexact project configurations. NOTE:Allratingsarenetplant,basedon ISOconditionsandnaturalgasfuel.Actualperformancewillvarywithprojectspecificconditionsandfuel.

DID YOU KNOW?

54-82 MW

The 6F.01 has both cold-end and hot-end drive configurations to meet new plant or repower requirements.

48

SIMPLE CYCLE OUTPUT


TABLE OF CONTENTS

49


6F POWER PLANTS (50/60 Hz)

CUSTOMER HIGHLIGHT

With GE’s 6F gas turbine, plant operators can attain the outstanding performance, reliability, and flexibility typically only seen in larger power plants. The 6F packs a lot of power into a small

The Korea Midland Power Company (KOMIPO) has selected

package, and its inherent durability and flexibility make it ideal for harsh and remote environments.

GE’s 6F.03 gas turbine to power a new 250 MW combined

Whether it be for 50 Hz or 60 Hz operation, the 6F maintains optimal efficiency and exhaust

cycle power plant for Jeju Island, Korea. This GE power island

energy for combined cycle and CHP applications. The 6F offers segment-leading 32,000-hour

solution will include two 6F.03 turbines, steam turbines,

combustion and hot gas path inspection intervals.

HRSGs, four generators, controls and maintenance parts.

CAPABILITY

VERSATILITY

Most efficient pair of F-class products capable of operating on traditionalE-classfuels

Plant design enables project commencement to completion in 20 months

SUSTAINABILITY Leading DLN emissions: 15 ppm NOx and 9 ppm CO without water or steam injection system

6F.01 e SC Net Output (MW) c t n n a SC Net Heat Rate (Btu/kWh, LHV) a l m P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)

82

8,880

9,420

9,369

9,939

38.4%

36.2%



6F.03

54

81

125

5,916

6,093

6,242

6,428

57.7%

56.0%

49.0%

60.0%

Ramp Rate (MW/min)1

12

7


30

45



163

252

5,865

6,039

6,188

6,372

58.2%

56.5%

24.0%

29.0%

Ramp Rate (MW/min)

24

13


30

35

1.)RampratesareFastRampviaAGC 2.)Start timesare based onrapid response technologiesinhot start conditionswith purge creditrecognized. Simultaneousstart sequence of gasturbine may apply dependingonexact project configurations. NOTE:Allratingsarenetplant,basedon ISOconditionsandnaturalgasfuel.Actualperformancewillvarywithprojectspecificconditionsandfuel.

DID YOU KNOW?

54-82 MW

The 6F.01 has both cold-end and hot-end drive configurations to meet new plant or repower requirements.

SIMPLE CYCLE OUTPUT


TABLE OF

48

49

CONTENTS


LM6000 POWER PLANTS (50/60 Hz)

CUSTOMER HIGHLIGHT

Engineered to cost effectively cycle multiple times per day, our LM6000 aeroderivative gas turbine is

“The LM6000 turbines have the capacity to produce power

fast and flexible, meeting dispatch profiles with proven reliability. With more than 1,200 units shipped and 33 million combined operating hours, the LM6000 family has more operating experience than any

using natural gas or jet fuel. TANESCO decided to use

other aeroderivative gas turbine greater than 40 MW. It leads the field with greater than 99.8 percent

this type of turbine that use[s] two types of energies to

reliability and 98.4 percent availability.

produce power to ensure there is an alternative source

CAPABILITY

VERSATILITY

Achieves emissions standards while ramping at 50 MW/ minute starting as low as 25% of full load

Meets various dispatch profiles with 5-minute start and can reach max power in less than 10 minutes

even at times when there is no gas from Mtwara.”

SUSTAINABILITY Unique low emissions technology and fuel flexibility (ethane, propane, LPG) with standard combustor

— Felchesmi Mramba, Managing Director, TANESCO

DID YOU KNOW?

L M6000 SAC

L M6000 DLE

Output (MW)

45/501

51/551


8,651

8,346


9,127

8,805

Efficiency (%, LHV)

39.4%

40.9%

CC Net Output (MW)

59/661

70/741


6,573

6,105

e SC Net t c n n a SC Net a l m P r o SC Net f C r S e P SC Net

The LM6000 is a compact and eff icient solution that delivers proven flexibility from order to power in as fast as four months.

t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m r CC Net Efficiency (%, LHV) C o C f x r e Plant Turndown – Minimum Load (%) 1 P

6,935

6,441

51.9%

55.9%

19.0%

37.0%

Ramp Rate (MW/min)

50

50


30

30

118-1331

140-1491

6,555

6,085



6,916

6,420

52.1%

56.1%

19.0%

18.0%

100

100


30

30

Ramp Rate (MW/min)

1.)MW output withSPRINT. NOTE:Allratingsarenetplant,basedon ISOconditionsandnaturalgasfuel.Actualperformancewillvarywithprojectspecificconditionsandfuel.

45-59 MW

SIMPLE CYCLE OUTPUT

>41% SIMPLE CYCLE EFFICIENCY 50

TABLE OF CONTENTS

51



CUSTOMER HIGHLIGHT

Engineered to cost effectively cycle multiple times per day, our LM6000 aeroderivative gas turbine is

“The LM6000 turbines have the capacity to produce power

fast and flexible, meeting dispatch profiles with proven reliability. With more than 1,200 units shipped and 33 million combined operating hours, the LM6000 family has more operating experience than any

using natural gas or jet fuel. TANESCO decided to use

other aeroderivative gas turbine greater than 40 MW. It leads the field with greater than 99.8 percent

this type of turbine that use[s] two types of energies to

reliability and 98.4 percent availability.

produce power to ensure there is an alternative source

CAPABILITY

VERSATILITY

Achieves emissions standards while ramping at 50 MW/ minute starting as low as 25% of full load

even at times when there is no gas from Mtwara.”

SUSTAINABILITY

Meets various dispatch profiles with 5-minute start and can reach max power in less than 10 minutes

Unique low emissions technology and fuel flexibility (ethane, propane, LPG) with standard combustor

— Felchesmi Mramba, Managing Director, TANESCO

DID YOU KNOW?

e SC Net Output (MW) c t n n a SC Net Heat Rate (Btu/kWh, LHV) a l m P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)

The LM6000 is a compact and eff icient solution that delivers proven flexibility from order to power in as fast as four months.

L M6000 SAC

L M6000 DLE

45/501

51/551

8,651

8,346

9,127

8,805

39.4%

40.9%

CC Net Output (MW)

59/661

70/741


6,573

6,105


6,935

6,441

51.9%

55.9%

19.0%

37.0%

Ramp Rate (MW/min)

50

50


30

30

118-1331

140-1491

6,555

6,085



6,916

6,420

52.1%

56.1%

19.0%

18.0%

100

100


30

30

Ramp Rate (MW/min)

1.)MW output withSPRINT. NOTE:Allratingsarenetplant,basedon ISOconditionsandnaturalgasfuel.Actualperformancewillvarywithprojectspecificconditionsandfuel.

45-59 MW

SIMPLE CYCLE OUTPUT

>41% SIMPLE CYCLE EFFICIENCY TABLE OF

50

51

CONTENTS


6B POWER PLANTS (50/60 Hz)

CUSTOMER HIGHLIGHT

Rugged reliability is the best way to describe plants utilizing GE’s 6B.03 gas turbine. Capable of black starts on volatile grid environments, the 6B.03 remains a preferred solution for remote

After 20 years of reliable service with a GE 6B gas turbine,

installations and extreme operating conditions. It can ramp to 20 MW in less than five seconds and

Compañía Española de Petróleos (Cepsa) needed to enhance

accommodates non-standard fuels in cogeneration and industrial power generation operations.

operations and reduce the San Roque (Spain) refinery’s

CAPABILITY

environmental impact. Cepsa selected two GE 6B.03 gas

VERSATILITY

High quantity of steam with pressure up to 110 bar for industrial steam without supplementaryfiring

Operates on broad range of fuels: process/low-calorie gases; 95% hydrogen; heavy fuel oil (HFO) up to 200 ppm vanadium

SUSTAINABILITY

turbines with enhanced performance and DLN combustion

Latest combustion system introduces ultra low NOx technology, allowing operation on a blend of gases

systems to improve efficiency and reduce emissions.

6B.03 e SC Net Output (MW) t c n n a SC Net Heat Rate (Btu/kWh, LHV) a l m P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)



Ramp Rate (MW/min)

44 10,180 10,741 33.5% 68 6,619 6,984 51.5% 59.0% 20


30

CC Net Output (MW)

137


6,557


6,918 52.0% 28.0%

Ramp Rate (MW/min)1

40


30


DID YOU KNOW? A pre-assembled gas turbine package means easier transport and faster site installation—as quick as six months from order to operation.

52

44 MW

SIMPLE CYCLE OUTPUT


53


6B POWER PLANTS (50/60 Hz)

CUSTOMER HIGHLIGHT

Rugged reliability is the best way to describe plants utilizing GE’s 6B.03 gas turbine. Capable of black starts on volatile grid environments, the 6B.03 remains a preferred solution for remote

After 20 years of reliable service with a GE 6B gas turbine,

installations and extreme operating conditions. It can ramp to 20 MW in less than five seconds and

Compañía Española de Petróleos (Cepsa) needed to enhance

accommodates non-standard fuels in cogeneration and industrial power generation operations.

operations and reduce the San Roque (Spain) refinery’s

CAPABILITY

environmental impact. Cepsa selected two GE 6B.03 gas

VERSATILITY

High quantity of steam with pressure up to 110 bar for industrial steam without supplementaryfiring

Operates on broad range of fuels: process/low-calorie gases; 95% hydrogen; heavy fuel oil (HFO) up to 200 ppm vanadium

SUSTAINABILITY

turbines with enhanced performance and DLN combustion

Latest combustion system introduces ultra low NOx technology, allowing operation on a blend of gases

systems to improve efficiency and reduce emissions.

6B.03 e SC Net t c n n a SC Net a l m P r o SC Net f C r S e P SC Net

Output (MW)

44


10,180


10,741

Efficiency (%, LHV)

33.5%

CC Net Output (MW)

68


6,619

t e n c CC Net Heat Rate (kJ/kWh, LHV) a n a l P m CC Net Efficiency (%, LHV) C r o C f x r e Plant Turndown – Minimum Load (%) 1 P 1

6,984 51.5% 59.0%

Ramp Rate (MW/min)

20


30

CC Net Output (MW)

137


6,557


6,918 52.0% 28.0%

Ramp Rate (MW/min)1

40


30


DID YOU KNOW? A pre-assembled gas turbine package means easier transport and faster site installation—as quick as six months from order to operation.

44 MW

SIMPLE CYCLE OUTPUT


52

53

CONTENTS



CUSTOMER HIGHLIGHT

Building on its 40+ year reputation as the most reliable industrial gas turbine in its class, GE’s LM2500 delivers power across a variety of applications including combined cycle, onshore and

Bio-PAPPEL’s San Juan del Rio paper mill will employ an

offshore power generation, mechanical drive, and cogeneration. The LM2500 is the top-selling

LM2500+ aeroderivative gas turbine at its new natural

gas turbine globally, with more than 2,200 units sold and more than 79 million operating hours.

gas cogeneration plant in Querétaro, Mexico. The plant,

CAPABILITY

which is expected to begin commercial operation in early

VERSATILITY

Robust design with reliability greater than 99% and availability greater than 98%

Accommodates a wide variety of fuels, including naphtha, propane, coke oven gas, ethanol, and LNG

SUSTAINABILITY

2017, will generate electricity and heat for the factory

Multiple technology options available to lower NOx and other emissions concerns

and help Bio-PAPPEL meet current production goals.

DID YOU KNOW?

e SC Net Output (MW) t c n n a a SC Net Heat Rate (Btu/kWh, LHV) l m P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)

Our latest LM2500 package provides a complete generator set with a 50% reduced install time and a 10-15% lower total installed cost.

LM250 0

L M2500+

22.7

30.6

LM250 0+G4 33.6

9,501

8,988

8,897

10,024

9,482

9,387

35.9%

38.0%

38.4%

CC Net Output (MW)

33.2

43.9

47.7


6,456

6,299

6,239


6,811

6,645

6,583

52.9%

54.2%

54.7%

34.0%

35.0%

35.0%

Ramp Rate (MW/min)

30

30

30


30

30

30

CC Net Output (MW)

66.6

88.2

95.7


6,431

6,277

6,218

6,785

6,622

6,560


53.1%

54.4%

54.9%

17.0%

17.0%

18.0%

Ramp Rate (MW/min)

60

16

60


30

30

30

NOTE:SeeAppendixfor50 Hzperformancewithoutgearbox.Allratingsarenet plant,basedonISO conditionsandnaturalgas fuel. Actualperformancewillvarywithprojectspecificconditionsandfuel.

34 MW

SIMPLE CYCLE OUTPUT

>38% SIMPLE CYCLE EFFICIENCY 54

TABLE OF CONTENTS

55



CUSTOMER HIGHLIGHT

Building on its 40+ year reputation as the most reliable industrial gas turbine in its class, GE’s LM2500 delivers power across a variety of applications including combined cycle, onshore and

Bio-PAPPEL’s San Juan del Rio paper mill will employ an

offshore power generation, mechanical drive, and cogeneration. The LM2500 is the top-selling

LM2500+ aeroderivative gas turbine at its new natural

gas turbine globally, with more than 2,200 units sold and more than 79 million operating hours.

gas cogeneration plant in Querétaro, Mexico. The plant,

CAPABILITY

which is expected to begin commercial operation in early

VERSATILITY

Robust design with reliability greater than 99% and availability greater than 98%

Accommodates a wide variety of fuels, including naphtha, propane, coke oven gas, ethanol, and LNG

SUSTAINABILITY

2017, will generate electricity and heat for the factory

Multiple technology options available to lower NOx and other emissions concerns

and help Bio-PAPPEL meet current production goals.

DID YOU KNOW?

e SC t c n n a a SC l m P r o SC f C S r e P SC

Our latest LM2500 package provides a complete generator set with a 50% reduced install time and a 10-15% lower total installed cost.

LM250 0

L M2500+

Net Output (MW)

22.7

30.6

LM250 0+G4 33.6


9,501

8,988

8,897


10,024

9,482

9,387


35.9%

38.0%

38.4%

CC Net Output (MW)

33.2

43.9

47.7


6,456

6,299

6,239


6,811

6,645

6,583

52.9%

54.2%

54.7%

34.0%

35.0%

35.0%

Ramp Rate (MW/min)

30

30

30


30

30

30

CC Net Output (MW)

66.6

88.2

95.7


6,431

6,277

6,218

6,785

6,622

6,560


53.1%

54.4%

54.9%

17.0%

17.0%

18.0%

Ramp Rate (MW/min)

60

16

60


30

30

30

NOTE:SeeAppendixfor50 Hzperformancewithoutgearbox.Allratingsarenet plant,basedonISO conditionsandnaturalgas fuel. Actualperformancewillvarywithprojectspecificconditionsandfuel.

34 MW

SIMPLE CYCLE OUTPUT

>38% SIMPLE CYCLE EFFICIENCY TABLE OF

54

55

CONTENTS


TM2500 POWER PLANTS (50/60 Hz)

CUSTOMER HIGHLIGHT

The TM2500 is ideal for providing a baseload bridge to permanent power installations or for generating

In the Republic of Indonesia, 20 “fast power” TM2500 gas turbines are providing 500 MW of power, helping to meet the nation’s need to efficiently provide reliable power to 225 million residents spread across 18,000 islands. Four additional TM2500 units in Gorontalo, North Sulawesi will provide 100 MW of power generation capacity, the equivalent power needed to supply approximately 800,000 Indonesian homes.

backup power in the wake of natural disasters, plant shutdowns, or grid instability. Our complete solutions—including trailer-mounted gas turbine generator set and containerized balance of plant—can put power on the grid within 30 days of the contract signature; this fast power provides up to two times the power density (MW/ft2) of other gas turbine trailer-mounted offerings. CAPABILITY

VERSATILITY

5-minute start from cold metal to full power output

All units are natural gas/liquid fuel capable across a wide range of fuels, including propane and naphtha

SUSTAINABILITY 10X lower emissions than reciprocatingtechnology; exceeds World Bank requirements

TM2500 (50 Hz) e SC Net Output (MW) c t n n a a m SC Net Heat Rate (Btu/kWh, LHV) l P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)


TM2500 (60 Hz)

33.6

35.9

9,794

9,330

10,333

9,844

35.0%

37.0%

48

51

6,851

6,703


7,229

7,072

49.8%

50.9%

34.7%

35.8%

Ramp Rate (MW/min)

30

30


30

30

CC Net Output (MW)

97

101

6,827

6,681



7,203

7,049

50.0%

51.1%

34.6%

35.7%

Ramp Rate (MW/min)

60

60


30

30


DID YOU KNOW? HOT DAY PERFORMANCE

Plants are highly scalable and adding just 5 MW of additional power means up to $5 million in value for power producers.

56

31 MW AT 30°C TABLE OF CONTENTS

57


TM2500 POWER PLANTS (50/60 Hz)

CUSTOMER HIGHLIGHT

The TM2500 is ideal for providing a baseload bridge to permanent power installations or for generating

In the Republic of Indonesia, 20 “fast power” TM2500 gas turbines are providing 500 MW of power, helping to meet the nation’s need to efficiently provide reliable power to 225 million residents spread across 18,000 islands. Four additional TM2500 units in Gorontalo, North Sulawesi will provide 100 MW of power generation capacity, the equivalent power needed to supply approximately 800,000 Indonesian homes.

backup power in the wake of natural disasters, plant shutdowns, or grid instability. Our complete solutions—including trailer-mounted gas turbine generator set and containerized balance of plant—can put power on the grid within 30 days of the contract signature; this fast power provides up to two times the power density (MW/ft2) of other gas turbine trailer-mounted offerings. CAPABILITY

VERSATILITY

5-minute start from cold metal to full power output

All units are natural gas/liquid fuel capable across a wide range of fuels, including propane and naphtha

SUSTAINABILITY 10X lower emissions than reciprocatingtechnology; exceeds World Bank requirements

TM2500 (50 Hz) e SC Net Output (MW) t c n n a a m SC Net Heat Rate (Btu/kWh, LHV) l P r o SC Net Heat Rate (kJ/kWh, LHV) f C S r e P SC Net Efficiency (%, LHV)


TM2500 (60 Hz)

33.6

35.9

9,794

9,330

10,333

9,844

35.0%

37.0%

48

51

6,851

6,703


7,229

7,072

49.8%

50.9%

34.7%

35.8%

Ramp Rate (MW/min)

30

30


30

30

CC Net Output (MW)

97

101

6,827

6,681



7,203

7,049

50.0%

51.1%

34.6%

35.7%

Ramp Rate (MW/min)

60

60


30

30


DID YOU KNOW? HOT DAY PERFORMANCE

Plants are highly scalable and adding just 5 MW of additional power means up to $5 million in value for power producers.

31 MW AT 30°C TABLE OF

56

57

CONTENTS


TOPPING CYCLE

58

TABLE OF CONTENTS

59


TOPPING CYCLE

TABLE OF

58

59

CONTENTS

GAS POWER SYSTEMS CATALOG I TOPPING CYCLE


OVERVIEW AND SCOPE Consisting of the gas turbine and supporting accessory systems, the topping cycle is the most significant and technologically challenging step in the conversion of fuel to electrical power. The topping cycle contributes to more than two thirds of a power plant’s total output and defines combined cycle efficiency entitlement based on operating temperature capability. GE maintains a plant-level view while focusing on the key considerations for topping cycle development: performance, emissions, reliability, and cost. Each of our topping cycle configurations strike a balance between pressure ratio, firing temperature, and air flow to help you achieve optimum plant performance at world-class emissions levels.

Most importantly, we recognize that these factors vary greatly from customer to customer, so we engage our customers early on in the development process to gain an intimate understanding of their wants and needs. This ensures a topping cycle that provides value, no matter what the application.

CONTROLS

60

TABLE OF CONTENTS

61



OVERVIEW AND SCOPE Consisting of the gas turbine and supporting accessory systems, the topping cycle is the most significant and technologically challenging step in the conversion of fuel to electrical power. The topping cycle contributes to more than two thirds of a power plant’s total output and defines combined cycle efficiency entitlement based on operating temperature capability. GE maintains a plant-level view while focusing on the key considerations for topping cycle development: performance, emissions, reliability, and cost. Each of our topping cycle configurations strike a balance between pressure ratio, firing temperature, and air flow to help you achieve optimum plant performance at world-class emissions levels.

Most importantly, we recognize that these factors vary greatly from customer to customer, so we engage our customers early on in the development process to gain an intimate understanding of their wants and needs. This ensures a topping cycle that provides value, no matter what the application.

CONTROLS

TABLE OF

60

61

CONTENTS



GAS TURBINE PORTFOLIO At the heart of a combined cycle plant is the gas turbine, the machine that has the power to

50 HZ PORTFOLIO BY RATING

make a good solution great. GE’s heavy duty and aeroderivative gas turbines are versatile and

544 MW

9HA.02

reliable, with individual output from 22 MW to 519 MW. They are proven performers in a range of

446 MW

9HA.01

applications, capable of achieving world-class efficiency with next-generation capabilities.

359 MW

9F.06

314 MW

9F.05

HIGH EFFICIENCY H-CLASS

9F.04

• Most cost-effective conversion of fuel to electricity in the industry.

9F.03

287 MW 265 MW 203 MW

GT13E2

• Includes the world’s largest high efficiency turbine.

145 MW

9E.04

• Holds the world record for powering the most eff icient combined cycle power plant at up to 62.22% eff iciency.

132 MW

9E.03

112 MW

LMS100

82 MW

6F.03 LM6000

INDUSTRY-LEADING F-CLASS

6F.01

• Introduced F-class technology 30 years ago.

6B.03

56 MW 54 MW L

44 MW

L

• World’s largest fleet, with more than 1,100 installed units and 64 million operating hours.

LM2500

34 MW

TM2500

34 MW

L

• Highest reliability in its class, providing customers more days of operation per year.

60 HZ PORTFOLIO BY RATING RELIABLE E-CLASS

7HA.02

• Rugged and dependable, even in harsh climates.

7HA.01

372 MW 289 MW 271 MW

7F.06

• Industry-leading fuel flexibility, burning more than 50 gases and liquids.

241 MW

7F.05

• Quick installation capability for fast-track projects.

198 MW

7F.04

• More than 3,000 installed units with 143 million combined operating hours.

115 MW

LMS100

91 MW

7E.03

82 MW

6F.03

COMPACT AND PROVEN AERODERIVATIVES

LM6000

• Flexible & reliable power generation packages with aviation-derived engines.

6F.01

• More than 100 million operating hours acquired over the last 45 years.

6B.03

44 MW

H-CLASS F-CLASS

TM2500

• Up to 4 4% simple cycle efficiency and 56% combined cycle eff iciency with fast startup, high ramp rates and outstanding cycling capability.

62

59 MW 54 MW

LM2500

TABLE OF CONTENTS

37 MW 34 MW

B- and E-CLASS AERODERIVATIVE

63



GAS TURBINE PORTFOLIO At the heart of a combined cycle plant is the gas turbine, the machine that has the power to

50 HZ PORTFOLIO BY RATING

make a good solution great. GE’s heavy duty and aeroderivative gas turbines are versatile and

544 MW

9HA.02

reliable, with individual output from 22 MW to 519 MW. They are proven performers in a range of

446 MW

9HA.01

applications, capable of achieving world-class efficiency with next-generation capabilities.

359 MW

9F.06

314 MW

9F.05

HIGH EFFICIENCY H-CLASS

9F.04

• Most cost-effective conversion of fuel to electricity in the industry.

9F.03

287 MW 265 MW 203 MW

GT13E2

• Includes the world’s largest high efficiency turbine.

145 MW

9E.04

• Holds the world record for powering the most eff icient combined cycle power plant at up to 62.22% eff iciency.

132 MW

9E.03

112 MW

LMS100

82 MW

6F.03 LM6000

INDUSTRY-LEADING F-CLASS

6F.01

• Introduced F-class technology 30 years ago.

6B.03

56 MW 54 MW L

44 MW

L

• World’s largest fleet, with more than 1,100 installed units and 64 million operating hours.

LM2500

34 MW

TM2500

34 MW

L

• Highest reliability in its class, providing customers more days of operation per year.

60 HZ PORTFOLIO BY RATING RELIABLE E-CLASS

7HA.02

• Rugged and dependable, even in harsh climates.

7HA.01

372 MW 289 MW 271 MW

7F.06

• Industry-leading fuel flexibility, burning more than 50 gases and liquids.

241 MW

7F.05

• Quick installation capability for fast-track projects.

198 MW

7F.04

• More than 3,000 installed units with 143 million combined operating hours.

115 MW

LMS100

91 MW

7E.03

82 MW

6F.03

COMPACT AND PROVEN AERODERIVATIVES

59 MW

LM6000

• Flexible & reliable power generation packages with aviation-derived engines.

6F.01

• More than 100 million operating hours acquired over the last 45 years.

6B.03

54 MW H-CLASS

44 MW

F-CLASS TM2500

• Up to 4 4% simple cycle efficiency and 56% combined cycle eff iciency with fast startup, high ramp rates and outstanding cycling capability.

LM2500

37 MW

B- and E-CLASS

34 MW

AERODERIVATIVE

TABLE OF

62

63

CONTENTS



H-CLASS MILESTONES Long before our 9HA.01 helped break the world record for the most eff icient combined cycle gas power plant, GE was pioneering gas turbine technology through advancements in materials, aerodynamics, and advanced manufacturing. GE is carving an impressive path as the power industry progresses into a new digital era where integrated software and analytics drive greater performance and ef ficiency.

64

June

October

April

June

September

March

2014

2015

2015

2016

2016

2016

2017

GE introduces 7HA/9HA H-class turbines; GE’s H-class turbines achieve >220,000 operating hours

9HA.01 ships to EDF in Bouchain, France

7HA.01 first fire on Test Stand 7

7HA.02 Exelon full speed, no load testing complete

Commercial operation at EDF in Bouchain; world record for most efficient combined cycle power plant

GE & Tepco announce plans for first digital power plant, powered by 7HA gas turbines

7HA.02 growth capabilitytesting targetcompletion

January

December

2015

2015

9HA.01 validation testing complete

First fire at EDF in Bouchain

December

2016 7HA.02 validation testing target completion

March

January

July

2015

2016

2016

9HA.01 growth testing complete


7HA.02 validation testing begins

TABLE OF CONTENTS

65



H-CLASS MILESTONES Long before our 9HA.01 helped break the world record for the most eff icient combined cycle gas power plant, GE was pioneering gas turbine technology through advancements in materials, aerodynamics, and advanced manufacturing. GE is carving an impressive path as the power industry progresses into a new digital era where integrated software and analytics drive greater performance and ef ficiency.

June

October

April

June

September

March

2014

2015

2015

2016

2016

2016

2017

GE introduces 7HA/9HA H-class turbines; GE’s H-class turbines achieve >220,000 operating hours

9HA.01 ships to EDF in Bouchain, France

7HA.01 first fire on Test Stand 7

7HA.02 Exelon full speed, no load testing complete

Commercial operation at EDF in Bouchain; world record for most efficient combined cycle power plant

GE & Tepco announce plans for first digital power plant, powered by 7HA gas turbines

7HA.02 growth capabilitytesting targetcompletion

January

December

2015

2015


First fire at EDF in Bouchain

December

2016 7HA.02 validation testing target completion

March

January

July

2015

2016

2016

9HA.01 growth testing complete


7HA.02 validation testing begins

TABLE OF

64

65

CONTENTS


MOBILE FAST POWER

CUSTOMER SUCCESS STORY EGYPT

Egypt’s demand for electricity is growing, which is why the government teamed with GE on a project to deliver more than 2.6 GW of electricity – enough to power the equivalent of 2.5 million homes. 1.2 GW of that power, supplied by 20 TM2500 gas turbines and 14 LM6000 gas turbines, was delivered and commissioned just six months after the contract signing. By working quickly to get the gas turbines up and running before the 2015 summer peak, GE predicted that Egypt avoided $24.7 million in economic losses per day, or $4.1 billion over the course of the demanding summer season.

DID YOU KNOW? GE’s TM2500 aeroderivative mobile gas turbine can ramp up to full power in less than 10 minutes.

Business doesn’t always go as planned and sometimes you need a little help… FAST . When natural disaster strikes or unanticipated demand exceeds domestic capacity, GE can rally the troops to provide mobile power generation—anytime and anywhere.

EMERGENCY/MOBILE POWER Our TM2500 trailer-mounted aeroderivative gas turbine generator sets can be swiftly transported by land, air, or sea, and can be commissioned in less than 11 days to provide up to 35 MW of reliable power. The mobility of the TM2500 allows customers the flexibility to reposition power at the point of use to respond to emergency situations, overhauls, and outages. 66

MOBILE FAST POWER

QUICK SHIPMENT/CONSTRUCTION As the largest provider of gas turbine power generation systems, we always have components in various stages of the manufacturing process. This, combined with our modular packaging and power island offerings, enables fast delivery and shortenedcommissioningtimes.

BRIDGING POWER You can’t hurry love… or power generation. Developing, building, and commissioning a custom solution can take years, but in the meantime, your short-term power needs can be met with our mobile, ready-to-deploy TM2500 units. TABLE OF CONTENTS

67


MOBILE FAST POWER

CUSTOMER SUCCESS STORY EGYPT

Egypt’s demand for electricity is growing, which is why the government teamed with GE on a project to deliver more than 2.6 GW of electricity – enough to power the equivalent of 2.5 million homes. 1.2 GW of that power, supplied by 20 TM2500 gas turbines and 14 LM6000 gas turbines, was delivered and commissioned just six months after the contract signing. By working quickly to get the gas turbines up and running before the 2015 summer peak, GE predicted that Egypt avoided $24.7 million in economic losses per day, or $4.1 billion over the course of the demanding summer season.

DID YOU KNOW? GE’s TM2500 aeroderivative mobile gas turbine can ramp up to full power in less than 10 minutes.

Business doesn’t always go as planned and sometimes you need a little help… FAST . When natural disaster strikes or unanticipated demand exceeds domestic capacity, GE can rally the troops to provide mobile power generation—anytime and anywhere.

EMERGENCY/MOBILE POWER Our TM2500 trailer-mounted aeroderivative gas turbine generator sets can be swiftly transported by land, air, or sea, and can be commissioned in less than 11 days to provide up to 35 MW of reliable power. The mobility of the TM2500 allows customers the flexibility to reposition power at the point of use to respond to emergency situations, overhauls, and outages.

MOBILE FAST POWER

QUICK SHIPMENT/CONSTRUCTION As the largest provider of gas turbine power generation systems, we always have components in various stages of the manufacturing process. This, combined with our modular packaging and power island offerings, enables fast delivery and shortenedcommissioningtimes.

BRIDGING POWER You can’t hurry love… or power generation. Developing, building, and commissioning a custom solution can take years, but in the meantime, your short-term power needs can be met with our mobile, ready-to-deploy TM2500 units. TABLE OF

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FUEL FLEXIBILITY For more than 50 years, GE has developed close collaborative relationships with owners, operators, and fuel suppliers with the goal of understanding new fuel trends, expanding capabilities for existing fuels, qualifying new fuels, and actively investing in new fuel system technologies. This fuel flexibility legacy has spurred GE’s industry leadership as we reliably convert the full spectrum of fuels to mechanical, electrical, and thermal energy. This legacy is builtupon a platform with three key elements: expertise, equipment, and experience.

EXPERTISE We are committed to providing efficient and reliable power from a wide variety of fuels. GE Power draws on leading fuels and combustion experts from across the company, including our Aviation and Oil & Gas businesses and our Global Research Centers. Our experts actively enhance our combustion & fuels technologies to further expand the available range of fuel sources for gas turbine operation and to lower emissions. We can test nearly any fuel at our world-class facilities in Greenville, South Carolina and Niskayuna, New York (United States), and other locations around the globe. Over the last decade, GE’s experts have performed more than 25,000 hours of combustion testing to validate our EQUIPMENT technology and to develop new technologies and expanded fuel capabilities. As a result, our gas turbines can efficiently use liquid and gaseous fuels to produce electricity.

FUEL CAPABILITY GE’s vast experience operating on natural gas and alternative fuels sets us apart from other original equipment manufacturers (OEMs). Our gas turbines are versatile and they op erate on a variety of fuels, including gases with a wide range of heating values, like steel mill gases, syngas, lean methane fuels, natural gas, higher order hydrocarbons (such as ethane and propane from shale gas), and high hydrogen fuels. The combustion systems for these gas turbines are also capable of operating on a wide range of liquid fuels, including diesel, other light distillates (i.e. naphtha), and a range of ash bearing fuels (i.e. crude oils and heavy fuel oil).

AERODERIVATIVE EXPERTISE

FUELS

LM/ T M2500 LM6000

LMS100

HEAVY DUTY 6B.03

7E.03

9E

GT13E2

6F.01

6F.03

7F

9F

7HA

9HA

HighC2+ (Ethane, etc.) LiquefiedPetroleumGas(LPG) Flare Gasand Associated Gas Natural Gas LiquefiedNaturalGas(LNG) Coal Bed Methane (CBM) H2 Blends S E S LeanMethane(WeakNG) A G HighH2

EXPERIENCE

Syngas(O2 Blown) Blast Furnace Gas(BFG)

EQUIPMENT

Coke OvenGas(COG)

GE offers combustion technologies, hardware, and controls to help you use a broad range of fuels. We continually evolve our proven gas turbine combustion technology, a process that started more than 30 years ago, leading to the development of the first DLN combustion system. Since then, our range of diffusion and premixed combustion systems has accrued over 290 million fired hours. Today,modern systems continue to evolve to meet new fuel challenges, providing new capabilities. The technology required to operate on a variety of fuels includes not only the combustor, but the accessory and control systems needed to support reliable operation.

SourGas Refinery/ProcessOff Gas Landfill/Dig esterGas

Distillate Oil (#2) Marine GasOil (MGO)

EXPERIENCE

Naphtha Condensate (NGL)

With more than 9,000 GE gas turbines installed around the world operating on more than 50 different fuels and fuel blends, we know the challenges operators face—volatile fuel prices, variability in fuelsources, increasingly strict environmental regulations, and the need for more power generation flexibility. Our broad industry experience allows us to reliably convert the full spectrum of fuels to mechanical, electrical, and thermal energy, giving us the ability to deliver solutions that meet your specific fuel needs. Adding to this capability are the digital tools available for these gas turbines, including the OpFlex* Autotune system, which increases the operational Wobbe range for the gas turbine; this system has been installed on more than 300 gas turbines has accumulated over 1.5 million operating hours.

Biodiesel (GE DO#2 Spec) Alcohols(i.e.Ethanol,Methanol) S D I U

Q I L

Kerosene/JetFuel Butane Gasoline DimethylEther(DME)

DID YOU KNOW?

Super/ExtraLightCrudeOil(ASL,AXL) Light Crude Oil

The more than 150 GE gas turbines that operate on crude oil and heavy fuel oil have accumulated more than 3 million fired hours.

MediumCrude Oil Heavy Crude Oil Heavy Fuel Oil (HFO)

Shaded areasindicate turbine’sability to accommodatefuel

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FUEL FLEXIBILITY For more than 50 years, GE has developed close collaborative relationships with owners, operators, and fuel suppliers with the goal of understanding new fuel trends, expanding capabilities for existing fuels, qualifying new fuels, and actively investing in new fuel system technologies. This fuel flexibility legacy has spurred GE’s industry leadership as we reliably convert the full spectrum of fuels to mechanical, electrical, and thermal energy. This legacy is builtupon a platform with three key elements: expertise, equipment, and experience.

EXPERTISE

FUEL CAPABILITY GE’s vast experience operating on natural gas and alternative fuels sets us apart from other original equipment manufacturers (OEMs). Our gas turbines are versatile and they op erate on a variety of fuels, including gases with a wide range of heating values, like steel mill gases, syngas, lean methane fuels, natural gas, higher order hydrocarbons (such as ethane and propane from shale gas), and high hydrogen fuels. The combustion systems for these gas turbines are also capable of operating on a wide range of liquid fuels, including diesel, other light distillates (i.e. naphtha), and a range of ash bearing fuels (i.e. crude oils and heavy fuel oil).

AERODERIVATIVE EXPERTISE

We are committed to providing efficient and reliable power from a wide variety of fuels. GE Power draws on leading fuels and combustion experts from across the company, including our Aviation and Oil & Gas businesses and our Global Research Centers. Our experts actively enhance our combustion & fuels technologies to further expand the available range of fuel sources for gas turbine operation and to lower emissions. We can test nearly any fuel at our world-class facilities in Greenville, South Carolina and Niskayuna, New York (United States), and other locations around the globe. Over the last decade, GE’s experts have performed more than 25,000 hours of combustion testing to validate our EQUIPMENT technology and to develop new technologies and expanded fuel capabilities. As a result, our gas turbines can efficiently use liquid and gaseous fuels to produce electricity.

FUELS

LM/ T M2500 LM6000

LMS100

HEAVY DUTY 6B.03

7E.03

9E

GT13E2

6F.01

6F.03

7F

9F

7HA

9HA

HighC2+ (Ethane, etc.) LiquefiedPetroleumGas(LPG) Flare Gasand Associated Gas Natural Gas LiquefiedNaturalGas(LNG) Coal Bed Methane (CBM) H2 Blends S E S LeanMethane(WeakNG) A G HighH2

EXPERIENCE

Syngas(O2 Blown) Blast Furnace Gas(BFG)

EQUIPMENT

Coke OvenGas(COG)

GE offers combustion technologies, hardware, and controls to help you use a broad range of fuels. We continually evolve our proven gas turbine combustion technology, a process that started more than 30 years ago, leading to the development of the first DLN combustion system. Since then, our range of diffusion and premixed combustion systems has accrued over 290 million fired hours. Today,modern systems continue to evolve to meet new fuel challenges, providing new capabilities. The technology required to operate on a variety of fuels includes not only the combustor, but the accessory and control systems needed to support reliable operation.

SourGas Refinery/ProcessOff Gas Landfill/Dig esterGas

Distillate Oil (#2) Marine GasOil (MGO)

EXPERIENCE

Naphtha Condensate (NGL)

With more than 9,000 GE gas turbines installed around the world operating on more than 50 different fuels and fuel blends, we know the challenges operators face—volatile fuel prices, variability in fuelsources, increasingly strict environmental regulations, and the need for more power generation flexibility. Our broad industry experience allows us to reliably convert the full spectrum of fuels to mechanical, electrical, and thermal energy, giving us the ability to deliver solutions that meet your specific fuel needs. Adding to this capability are the digital tools available for these gas turbines, including the OpFlex* Autotune system, which increases the operational Wobbe range for the gas turbine; this system has been installed on more than 300 gas turbines has accumulated over 1.5 million operating hours.

Biodiesel (GE DO#2 Spec) Alcohols(i.e.Ethanol,Methanol) Kerosene/JetFuel

S D I U Butane Q I L

Gasoline DimethylEther(DME)

DID YOU KNOW?

Super/ExtraLightCrudeOil(ASL,AXL) Light Crude Oil

The more than 150 GE gas turbines that operate on crude oil and heavy fuel oil have accumulated more than 3 million fired hours.

MediumCrude Oil Heavy Crude Oil Heavy Fuel Oil (HFO)

Shaded areasindicate turbine’sability to accommodatefuel

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FUEL CONDITIONING In addition to combustion system technology, GE delivers quality system hardware and components for cleaning and conditioning fuel prior to combustion in the gas turbine. The following table highlights the processes that may be required as a pre-treatment to the turbine or combustor or a post-treatment, primarily in the HRSG to provide environmental safeguards.

PRE-COMBUSTION

l a v o m e R

n o i t a r t l i F

) t a e r t e r P ( h s a W

e v i t i d d A

r o t i b i h n I

COMBUSTION

d n e l B

g n i t a e H

l e u F d p e r u t i u r q a e t S R

e t u l i D

s l o r t n o C t r a m S

Removal

Filtration

POSTCOMBUSTION

) e n i b r u T ( h s a W

) G S R H ( h s a W

N O I T S U B M O C E R P

) x O N ( l a v o m e R

Natural Gas (NG)

Wash

Additive

Liquefied Natural Gas (LNG) Inhibitor

Some fuels contain high concentrations of compounds that are corrosive or toxic. The removal of these compounds can be accomplished with chemicals.

Filtration is often required to address gases or liquid fuels that might contain sediment, other solid contaminants, or excess moisture. This treatment removes constituents that otherwise might damage fuel system components or impact gas turbine operability.

Washing is a treatment used to remove water-soluble contaminants (for example, alkali metals such as sodium and potassium) from a fuel prior to use to avoid potential hot gas path corrosion. This can be accomplished using water injection and a series of centrifuges.

Additives are used to modify physical or chemical properties of a fuel, or to prevent damage created by an inherent deficiency in a fuel. Examples include additives for lubricity or liquid fuel stabilization.

Many ash bearing fuels, such as crude oil, HFO, and residual fuel oil, contain vanadium, which creates highly corrosive compounds that can damage coatings and components in a gas turbine’s hot gas path. Inhibitors are added to the liquid fuel upstream of the gas turbine to mitigate the risk of hot corrosion.

Liquefied Petroleum Gas (LPG) Lean Methane S H Blends 2 E S A G High H2

Blend

Gas turbines are capable of operating on a variety of fuels, including blends of gases or liquids. Blending can be applicable when there is an insufficient supply of an opportunity fuel or to limit operational risks stemming from use of certain fuels.

Heat

Gas fuel heating may be required to accommodate changes in gas quality or to improve gas turbine performance. Liquid fuel heating may be required to reduce viscosity and allow it to flow through the liquid fuel system.

Ethane Syngas Steel Mill Gases Sour Gas Startup

N O I T S U B M O C

Distillate Biodiesel Condensate Naphtha Alcohol

Some fuels are too lean (not enough energy/volume) to be capable of starting a gas turbine, or could create a safety risk if they do not ignite. In these cases, a startup fuel is used. Once operating, the turbine can transfer to the primary fuel.

Dilute

To mitigate combustion-related risks, including those associated with increased fuel reactivity or higher NOx emissions levels, diluents (typically water or steam) are injected in the combustor through dedicated passages in the fuel nozzle.

Controls

Advanced controls are needed to ensure optimal operation of the gas turbine while operating on a variety of alternative or opportunity fuels. Such controls enhance fuel capabilities and address variations in the Modified Wobbe Index.

Kerosene

S D I U Dimethyl Ether (DME) Q I L

N O I T S U B M O C T S O P

Super Light Crude Oil (ASL) Extra Light Crude Oil (AXL) Light Crude Oil Medium Crude Oil Heavy Crude Oil Heavy Fuel Oil (HFO)

Wash

Ash buildup in a gas turbine may impact performance. Higher levels of ash can occur naturally in some fuels; in other cases the ash formed is a result of the reaction with a vanadium inhibitor. A turbine wash can be used to remove the materials that collect on the hot gas path’s components.

(Turbine)

Wash

Sulfates are created when sulfur and ammonia react in a selective catalytic reduction system. These materials can reduce HRSG performance by blocking flow paths and reducing heat transfer, requiring an HRSG (post) wash with cleaning agents.

(HRSG)

Removal

To conform to NOx and CO environmental regulations, post-combustion removal of such substances from the HRSG may be required.

Shadedareasindicaterequired processesforpre-combustion,combustion,and post-combustion

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FUEL CONDITIONING In addition to combustion system technology, GE delivers quality system hardware and components for cleaning and conditioning fuel prior to combustion in the gas turbine. The following table highlights the processes that may be required as a pre-treatment to the turbine or combustor or a post-treatment, primarily in the HRSG to provide environmental safeguards.

PRE-COMBUSTION

l a v o m e R

n o i t a r t l i F

) t a e r t e r P ( h s a W

e v i t i d d A

r o t i b i h n I

COMBUSTION

d n e l B

g n i t a e H

l e u F d e p r u i t r u q a t e S R

e t u l i D

s l o r t n o C t r a m S

Removal

Filtration

POSTCOMBUSTION

) e n i b r u T ( h s a W

) G S R H ( h s a W

N O I T S U B M O C E R P

) x O N ( l a v o m e R

Natural Gas (NG)

Wash

Additive

Liquefied Natural Gas (LNG) Inhibitor

Some fuels contain high concentrations of compounds that are corrosive or toxic. The removal of these compounds can be accomplished with chemicals.

Filtration is often required to address gases or liquid fuels that might contain sediment, other solid contaminants, or excess moisture. This treatment removes constituents that otherwise might damage fuel system components or impact gas turbine operability.

Washing is a treatment used to remove water-soluble contaminants (for example, alkali metals such as sodium and potassium) from a fuel prior to use to avoid potential hot gas path corrosion. This can be accomplished using water injection and a series of centrifuges.

Additives are used to modify physical or chemical properties of a fuel, or to prevent damage created by an inherent deficiency in a fuel. Examples include additives for lubricity or liquid fuel stabilization.

Many ash bearing fuels, such as crude oil, HFO, and residual fuel oil, contain vanadium, which creates highly corrosive compounds that can damage coatings and components in a gas turbine’s hot gas path. Inhibitors are added to the liquid fuel upstream of the gas turbine to mitigate the risk of hot corrosion.

Liquefied Petroleum Gas (LPG) Lean Methane S H Blends 2 E S A G High H2

Blend

Gas turbines are capable of operating on a variety of fuels, including blends of gases or liquids. Blending can be applicable when there is an insufficient supply of an opportunity fuel or to limit operational risks stemming from use of certain fuels.

Heat

Gas fuel heating may be required to accommodate changes in gas quality or to improve gas turbine performance. Liquid fuel heating may be required to reduce viscosity and allow it to flow through the liquid fuel system.

Ethane Syngas Steel Mill Gases Sour Gas Startup

N O I T S U B M O C

Distillate Biodiesel Condensate Naphtha Alcohol

Some fuels are too lean (not enough energy/volume) to be capable of starting a gas turbine, or could create a safety risk if they do not ignite. In these cases, a startup fuel is used. Once operating, the turbine can transfer to the primary fuel.

Dilute

To mitigate combustion-related risks, including those associated with increased fuel reactivity or higher NOx emissions levels, diluents (typically water or steam) are injected in the combustor through dedicated passages in the fuel nozzle.

Controls

Advanced controls are needed to ensure optimal operation of the gas turbine while operating on a variety of alternative or opportunity fuels. Such controls enhance fuel capabilities and address variations in the Modified Wobbe Index.

Kerosene

S D I U Dimethyl Ether (DME) Q I L

N O I T S U B M O C T S O P

Super Light Crude Oil (ASL) Extra Light Crude Oil (AXL) Light Crude Oil Medium Crude Oil Heavy Crude Oil Heavy Fuel Oil (HFO)

Wash

Ash buildup in a gas turbine may impact performance. Higher levels of ash can occur naturally in some fuels; in other cases the ash formed is a result of the reaction with a vanadium inhibitor. A turbine wash can be used to remove the materials that collect on the hot gas path’s components.

(Turbine)

Wash

Sulfates are created when sulfur and ammonia react in a selective catalytic reduction system. These materials can reduce HRSG performance by blocking flow paths and reducing heat transfer, requiring an HRSG (post) wash with cleaning agents.

(HRSG)

Removal

To conform to NOx and CO environmental regulations, post-combustion removal of such substances from the HRSG may be required.

Shadedareasindicaterequired processesforpre-combustion,combustion,and post-combustion

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BOTTOMING CYCLE

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BOTTOMING CYCLE

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GAS POWER SYSTEMS CATALOG I BOTTOMING CYCLE


OVERVIEW AND SCOPE The bottoming cycle consists of an heat recovery steam generator (HRSG), steam turbine generator, and heat rejection system, and is responsible for converting gas turbine exhaust energy to electrical power and heat energy (in CHP applications). The bottoming cycle represents about 33 percent of a plant’s total output. Maximizing the benefits of a bot toming cycle means fully exploiting site-specific thermal conditions. For GE, that means working with customers to f ully understand a multitude of operating conditions so we can provide the highest value solution in terms of per formance and cost. An HRSG creates steam from the hot gas turbine exhaust. Use of multiple steam pressures, high temperature superheaters or reheaters, auxiliary firing, exhaust gas bypass systems, and emissions reduction systems are all part of a custom solution. The steam turbine allows the steam to expand to rotate a shaft and convert the thermal energy into mechanical energy. The turbine’s steam path—pressure modules (high pressure, intermediate pressure, l ow pressure), rotor stages, and blade size—is customized depending on exhaust back pressure, thermal and ambient conditions, and steam extraction and admission requirements. As a plant integrator and OEM of both HRSGs and steam turbines, GE draws on over 100 years of cumulative

power generation experience, significant technical expertise, and an exceptionally large and flexible product portfolio to deliver custom bottoming cycle solutions that preserve value and boost return on investment. Heavily influencing the selection of bottoming cycle components is a power plant’s heat rejection system. Power plants produce a large amount of process waste heat, which must be rejected in one of three ways: it can be discharged to a lake or river, it can be sent to cooling towers, or it can be rejected via air-cooling channels. The method selected will allow GE’s engineers to determine the most appropriate steam generator and HRSG for your system.

CONTROLS

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OVERVIEW AND SCOPE The bottoming cycle consists of an heat recovery steam generator (HRSG), steam turbine generator, and heat rejection system, and is responsible for converting gas turbine exhaust energy to electrical power and heat energy (in CHP applications). The bottoming cycle represents about 33 percent of a plant’s total output. Maximizing the benefits of a bot toming cycle means fully exploiting site-specific thermal conditions. For GE, that means working with customers to f ully understand a multitude of operating conditions so we can provide the highest value solution in terms of per formance and cost. An HRSG creates steam from the hot gas turbine exhaust. Use of multiple steam pressures, high temperature superheaters or reheaters, auxiliary firing, exhaust gas bypass systems, and emissions reduction systems are all part of a custom solution. The steam turbine allows the steam to expand to rotate a shaft and convert the thermal energy into mechanical energy. The turbine’s steam path—pressure modules (high pressure, intermediate pressure, l ow pressure), rotor stages, and blade size—is customized depending on exhaust back pressure, thermal and ambient conditions, and steam extraction and admission requirements.

power generation experience, significant technical expertise, and an exceptionally large and flexible product portfolio to deliver custom bottoming cycle solutions that preserve value and boost return on investment. Heavily influencing the selection of bottoming cycle components is a power plant’s heat rejection system. Power plants produce a large amount of process waste heat, which must be rejected in one of three ways: it can be discharged to a lake or river, it can be sent to cooling towers, or it can be rejected via air-cooling channels. The method selected will allow GE’s engineers to determine the most appropriate steam generator and HRSG for your system.

As a plant integrator and OEM of both HRSGs and steam turbines, GE draws on over 100 years of cumulative

CONTROLS

TABLE OF

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HRSG PORTFOLIO HRSG technology is critical to combined cycle efficiency. At GE, each HRSG solution is custom engineered to meet our customers’ operating flexibility and performance requirements. We have more than 1,250 HRSGs installed worldwide and recently acquired Doosan Engineering & Construction’s HRSG business, a previous HRSG supplier of choice for GE and a licensee of Alstom.

GE’s HRSGs

This expanded portfolio of products and services brings the engineering and manufacturing of all major combined cycle power plant components in-house. For our customers, this means seamless integration with other major components and, when combined with our Digital Power Plant solutions, ensures the best construction and operational experience. Our whole system approach provides high power output and efficiency as well as improved plant operability (startup/shutdown times, turndown, and lifetime). We are also continually working with our gas turbine and steam turbine specialists, utility boiler experts, and teams from GE Global Research to optimize our whole system offerings through advancements in materials, aerodynamics, and manufacturing. GE offers two HRSG designs—conventional and Optimized for Cycling and Constructability (OCC*). The OCC design includes a stepped arrangement—from the manifold, to a link, to a header, and finally to the finned tubes, which reduces thermal stress by as much as 60 percent compared to the conventional design. Finned Tubes

• Predictive analytics around lifetime and failure modes overcomes more severe operating conditions.

GE’s OCC Design

Numerous integrated scope options are available, such as supplementary firing, SCR and CO catalysts for stack emissions reduction, and exhaust gas bypass systems for simple cycle gas operation in a combined cycle installation.

VERSATILITY • The OCC design provides reliable high-cycling duty due to innovative single-row harp configuration; produces three times less stress than the industry standard conventional multi-row harps.

A choice of modular construction options lets you choose the delivery method that best f its your specific project site infrastructure, transportation, and labor cost restrictions.

76

This HRSG employs the same basic arrangement as the horizontal HRSG, but eliminates the high-pressure drum. This increases thermal flexibility, efficiency, and daily cycling capabilities.

• Units can be configured and optimized for any type of gas turbine and steam cycle.

Manifold

Harp Bundle

Modules

C-Frame

Fully Assembled

For sites with: • Transportation restrictions • Large crane scarcity

For sites with: • Fewer transportation restrictions • Large crane availability

For sites with: • Unrestrictedtransportation • Large crane availability

For sites with: • Unrestricted crane and transportation availability • High site labor costs

• Low site labor costs

Horizontal Once-Through

With vertical gas flowing across horizontal evaporator tubes, this drum-type HRSG is ideal when site space is at a premium. It is particularly well suited for heavy fuel oil applications, as it allows for online cleaning.

CAPABILITY • A whole system approach ensures integrated engineering with other system components.

Link

GE’s Conventional Design

Vertical Drum

Horizontal drum HRSG units are the most popular type of steam generator. The flow of gas in these HRSGs is horizontal while the water is heated in vertically arranged evaporator tubes with natural circulation. With decades of OEM experience, cutting-edge research and development, and extensive field service experience, we are a global leader in the horizontal HRSG segment.

THE GE ADVANTAGE

Header

StressLevel

Horizontal Drum

• Capable of fast starts, high ramp rates, and high turndown. RELIABILITY • Increased quality assurance through in-house manufacturing of pressure parts, drums, and fabricated steel. • Access to a worldwide dedicated service organization.

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HRSG PORTFOLIO HRSG technology is critical to combined cycle efficiency. At GE, each HRSG solution is custom engineered to meet our customers’ operating flexibility and performance requirements. We have more than 1,250 HRSGs installed worldwide and recently acquired Doosan Engineering & Construction’s HRSG business, a previous HRSG supplier of choice for GE and a licensee of Alstom.

GE’s HRSGs

This expanded portfolio of products and services brings the engineering and manufacturing of all major combined cycle power plant components in-house. For our customers, this means seamless integration with other major components and, when combined with our Digital Power Plant solutions, ensures the best construction and operational experience. Our whole system approach provides high power output and efficiency as well as improved plant operability (startup/shutdown times, turndown, and lifetime). We are also continually working with our gas turbine and steam turbine specialists, utility boiler experts, and teams from GE Global Research to optimize our whole system offerings through advancements in materials, aerodynamics, and manufacturing. GE offers two HRSG designs—conventional and Optimized for Cycling and Constructability (OCC*). The OCC design includes a stepped arrangement—from the manifold, to a link, to a header, and finally to the finned tubes, which reduces thermal stress by as much as 60 percent compared to the conventional design. Finned Tubes

Horizontal Once-Through

With vertical gas flowing across horizontal evaporator tubes, this drum-type HRSG is ideal when site space is at a premium. It is particularly well suited for heavy fuel oil applications, as it allows for online cleaning.

This HRSG employs the same basic arrangement as the horizontal HRSG, but eliminates the high-pressure drum. This increases thermal flexibility, efficiency, and daily cycling capabilities.

CAPABILITY • A whole system approach ensures integrated engineering with other system components.

Link

• Units can be configured and optimized for any type of gas turbine and steam cycle.

Manifold

GE’s Conventional Design

• Predictive analytics around lifetime and failure modes overcomes more severe operating conditions.

GE’s OCC Design

Numerous integrated scope options are available, such as supplementary firing, SCR and CO catalysts for stack emissions reduction, and exhaust gas bypass systems for simple cycle gas operation in a combined cycle installation.

VERSATILITY • The OCC design provides reliable high-cycling duty due to innovative single-row harp configuration; produces three times less stress than the industry standard conventional multi-row harps.

A choice of modular construction options lets you choose the delivery method that best f its your specific project site infrastructure, transportation, and labor cost restrictions. Harp Bundle

Modules

C-Frame

Fully Assembled

For sites with: • Transportation restrictions • Large crane scarcity

For sites with: • Fewer transportation restrictions • Large crane availability

For sites with: • Unrestrictedtransportation • Large crane availability

For sites with: • Unrestricted crane and transportation availability • High site labor costs

• Low site labor costs

Vertical Drum

Horizontal drum HRSG units are the most popular type of steam generator. The flow of gas in these HRSGs is horizontal while the water is heated in vertically arranged evaporator tubes with natural circulation. With decades of OEM experience, cutting-edge research and development, and extensive field service experience, we are a global leader in the horizontal HRSG segment.

THE GE ADVANTAGE

Header

StressLevel

Horizontal Drum

• Capable of fast starts, high ramp rates, and high turndown. RELIABILITY • Increased quality assurance through in-house manufacturing of pressure parts, drums, and fabricated steel. • Access to a worldwide dedicated service organization.

TABLE OF

76

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STEAM TURBINE PORTFOLIO When the Alstom and GE portfolios merged in 2015 we created the industry’s most competitive and advanced steam turbine portfolio. Alstom’s steam turbines business originated in 1901 when Brown-Boveri Company (BBC) built continental Europe’s first steam turbine in Frankfurt, Germany, operating with an output of 250 kW. Within a year, BBC had delivered 16 more steam turbines with a combined output of 15 MW. GE’s first commercial steam turbine was shipped in 1903, making 5,000 kW for use in Newport, Rhode Island (United States). Within the next 10 years an estimated 1,000 steam turbines were sold by GE to companies in the United States.

THE GE ADVANTAGE

Fast forward a few generations and countless technical advances, and today, GE’s steam turbines are pushing upwards of 44 percent shaft efficiency while accommodating outputs of 15 MW to 700 MW. GE’s products account for more than 41 percent of the world’s installed steam turbine base, and in the last 100+ years, have produced more than 1.2 TW of power production capability. Our steam turbine portfolio has the breadth and depth to meet any project-specific need, integrating seamlessly with our gas turbines, HRSGs, and balance of plant to ensure operational success, satisfaction, and profitability for our customers. CAPABILITY A wide range of customizable features ensures maximum value for our customers:

COMBINED CYCLE STEAM TURBINES PRODUCT STF-D650

600 Series REHEAT Up to 2,680 psi/185 bar Up to 1,112°F/600°C

STF-D600

180 – 700 MW

100 Series GEARED Up to 2,030 psi / 140 bar Up to 1,050°F / 565°C

STF-A100†

• Improved leakage control, reduced radial clearances, and reduced degradation ensuring long-term performance with cost-effective advanced sealing.

200 – 340 MW

STF-D200

STF-A200

• Industry-leading performance with high-reaction 3D blades and nozzles that are optimized for high pressure (HP), intermediate pressure (IP), and low pressure (LP) steam conditions.

85 – 300 MW

STF-A650

200 Series NON-REHEAT Up to 2,030 psi/140 bar Up to 1,050°F/565°C

• Meet any project-specific cold-end condition with a densely staggered f amily of last stage blades. Up to 50 inch (1270 mm) for 60 Hz and up to 60 inch (1524 mm) for 50 Hz.

150 – 700 MW

VERSATILITY GE’s steam turbines are designed for operational flexibility, ensuring the highest levels of availability and reliability, even when demand fluctuates:

70 – 220 MW

15 – 100 MW 100

200

300

400

500

600

• Welded rotors in the HP, IP, and LP sections enable longer component life to allow for faster and more frequent load cycling.

700

Output (MW)

78

† STF-A100 and STF-A200 are families of products in cooperation with GE Oil & Gas and its licensees, models include GRT, MT, GETand SC/SAC families.

• The unique and proven HP inner casing shrink ring design reduces distortion and allows critical clearances to be maintained to ensure sustained performance.

Proven validation methods ensure our steam turbine products meet our customers’ needs. For example, our sub-scale low pressure validation rigs in St. Petersburgh, Russia, and Schenectady, New York (United States) use full steam conditions to test low pressure blading designs, validating mechanical robustness and aerodynamic efficiency. Another test rig integral to improving performance is the high pressure and intermediate pressure blading test rig in Rugby, United Kingdom, which is used to validate advancements in airfoil design.

• Axial, side, or down exhaust options facilitate integration into any plant configuration. SUSTAINABILITY Our leading efficiency means lower emissions, cleaner air, and better economics for our customers: • Bottoming cycle contributes one third of the total combined cycle electrical output with no additional fuel consumption. • Industry-leading efficiency with our CHP applications, available in reheat or non-reheat with condensing or backpressure exhaust, and optional HP, IP and/or LP steam extractions. TABLE OF CONTENTS

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STEAM TURBINE PORTFOLIO When the Alstom and GE portfolios merged in 2015 we created the industry’s most competitive and advanced steam turbine portfolio. Alstom’s steam turbines business originated in 1901 when Brown-Boveri Company (BBC) built continental Europe’s first steam turbine in Frankfurt, Germany, operating with an output of 250 kW. Within a year, BBC had delivered 16 more steam turbines with a combined output of 15 MW. GE’s first commercial steam turbine was shipped in 1903, making 5,000 kW for use in Newport, Rhode Island (United States). Within the next 10 years an estimated 1,000 steam turbines were sold by GE to companies in the United States.

THE GE ADVANTAGE

Fast forward a few generations and countless technical advances, and today, GE’s steam turbines are pushing upwards of 44 percent shaft efficiency while accommodating outputs of 15 MW to 700 MW. GE’s products account for more than 41 percent of the world’s installed steam turbine base, and in the last 100+ years, have produced more than 1.2 TW of power production capability. Our steam turbine portfolio has the breadth and depth to meet any project-specific need, integrating seamlessly with our gas turbines, HRSGs, and balance of plant to ensure operational success, satisfaction, and profitability for our customers. CAPABILITY A wide range of customizable features ensures maximum value for our customers:

COMBINED CYCLE STEAM TURBINES PRODUCT STF-D650

600 Series REHEAT Up to 2,680 psi/185 bar Up to 1,112°F/600°C

STF-D600

180 – 700 MW

100 Series GEARED Up to 2,030 psi / 140 bar Up to 1,050°F / 565°C

• Improved leakage control, reduced radial clearances, and reduced degradation ensuring long-term performance with cost-effective advanced sealing.

200 – 340 MW

STF-D200

STF-A200

STF-A100†

• Industry-leading performance with high-reaction 3D blades and nozzles that are optimized for high pressure (HP), intermediate pressure (IP), and low pressure (LP) steam conditions.

85 – 300 MW

STF-A650

200 Series NON-REHEAT Up to 2,030 psi/140 bar Up to 1,050°F/565°C

• Meet any project-specific cold-end condition with a densely staggered f amily of last stage blades. Up to 50 inch (1270 mm) for 60 Hz and up to 60 inch (1524 mm) for 50 Hz.

150 – 700 MW

VERSATILITY GE’s steam turbines are designed for operational flexibility, ensuring the highest levels of availability and reliability, even when demand fluctuates:

70 – 220 MW

15 – 100 MW 100

200

300

400

500

600

• Welded rotors in the HP, IP, and LP sections enable longer component life to allow for faster and more frequent load cycling.

700

Output (MW) † STF-A100 and STF-A200 are families of products in cooperation with GE Oil & Gas and its licensees, models include GRT, MT, GETand SC/SAC families.

• The unique and proven HP inner casing shrink ring design reduces distortion and allows critical clearances to be maintained to ensure sustained performance.

Proven validation methods ensure our steam turbine products meet our customers’ needs. For example, our sub-scale low pressure validation rigs in St. Petersburgh, Russia, and Schenectady, New York (United States) use full steam conditions to test low pressure blading designs, validating mechanical robustness and aerodynamic efficiency. Another test rig integral to improving performance is the high pressure and intermediate pressure blading test rig in Rugby, United Kingdom, which is used to validate advancements in airfoil design.

• Axial, side, or down exhaust options facilitate integration into any plant configuration. SUSTAINABILITY Our leading efficiency means lower emissions, cleaner air, and better economics for our customers: • Bottoming cycle contributes one third of the total combined cycle electrical output with no additional fuel consumption. • Industry-leading efficiency with our CHP applications, available in reheat or non-reheat with condensing or backpressure exhaust, and optional HP, IP and/or LP steam extractions. TABLE OF

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HEAT REJECTION SYSTEMS The method in which a power plant rejects process waste heat drives critical engineering decisions and significantly impacts overall plant efficiency. The process is driven by a condenser, which is a heat exchanger that operates at sub-atmospheric pressures (vacuum) to condense steam turbine exhaust into feedwater for the HRSG. Condensers are either water- or air-cooled. Water-cooled condensers are divided into two categories: those directly cooled by sea, river, or lake water, and those cooled with water in mechanical or natural draft cooling towers. GE’s condenser offerings support the full range of steam turbine power output—from 30 MW up to 600 MW. The type of condenser selected is determined by individual site characteristics.

KEY BENEFITS

CONDENSER SELECTION

ROBUST: Our condensers are built to handle turbine and steam generator overloads and variations in cooling water temperature. They are also resistant to impingement erosion and tube vibration.

ONCE-THROUGH

COOLING TOWER

AIR-COOLED

Applications

Coastal or waterside locations without access restrictions

Locations where sufficient make-up water is available

Locations where water access is prohibited or uneconomical

Advantages

• Highest plant efficiency possible • Lowest condenser pressure possible • Smallest footprint • Lowest cost

• Enhanced plant site locations (not limited to waterside areas) • Better performance than air-cooled units • Lower cost than air-cooled

• Fewer water-related complications (use of air eliminates issues related to water corrosion, filtration, treatment, and more) • Fewest siting and regulatory restrictions

• Stringent siting requirements (direct access to a body of water) • Highest regulatory burdens

• Significant make-up water requirements • Large footprint

• Least efficient • Impacted by ambient conditions (size and effectiveness) • Largest footprint • Highest cost

Disadvantages

IMPRESSIVE PERFORMANCE, HIGH RELIABILITY:GE’s tube bundle has a 50-year track record of outstanding performance and unrivaled reliability in both original installations and retrofits. HIGHLY EFFICIENT: The standardized tube bundles are scaled to meet the needs of any power plant, regardless of size. Each bundle contains between 1,600 to 7,000 tubes. REDUCED COSTS: Floor-mounted axial or lateral condensers simplify construction of the turbine foundation and shorten civil work and erection durations. They are delivered as fully tubed modules to minimize on site welding.

KEY FEATURES • Highest heat transfer coefficients • No condensate subcooling • Extremely low oxygen content in the condensate • Compact design • Optimum space utilization • Low-costmanufacture • Meets highest quality standards from initial design and manufacture to final commissioning

GE’s CONDENSER DESIGNS

WATER-COOLED CONDENSERS Our portfolio of condenser offerings includes our highly performing surface condensers. As an experienced manufacturer of both steam turbines and condensers, GE designs surface condensers to strike the optimum balance between these key components. In addition to rejecting heat and deaerating the condensate, GE’s surface condenser features several important safety functions. In bypass mode, for example, when boiler live steam is fed directly into the condenser, it is exposed to very high loads and must be designed accordingly.

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SURFACE CONDENSER WITH CYLINDRICAL SHELL

SURFACE CONDENSER WITH RECTANGULAR SHELL

Application

Condensin g steam turbines or steam dumping


Power Range

Up to approximately 100 MWe steam turbine output

From 50 MWe up to the largest steam turbine outputs

Arrangement

Down/underslung to turbine, side/lateral axial exhaust


Surface Area

1,000 m2 (10,000 ft 2) up to 6,000 m 2 (60,000 ft 2)

3,000 m2 (32,000 ft 2) up to 35,000 m 2 (380,000 ft 2) with single shell

Tube Length

Typical 5 to 14 m (16-46 ft)

Maximum 18 m (60 ft)

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HEAT REJECTION SYSTEMS The method in which a power plant rejects process waste heat drives critical engineering decisions and significantly impacts overall plant efficiency. The process is driven by a condenser, which is a heat exchanger that operates at sub-atmospheric pressures (vacuum) to condense steam turbine exhaust into feedwater for the HRSG. Condensers are either water- or air-cooled. Water-cooled condensers are divided into two categories: those directly cooled by sea, river, or lake water, and those cooled with water in mechanical or natural draft cooling towers. GE’s condenser offerings support the full range of steam turbine power output—from 30 MW up to 600 MW. The type of condenser selected is determined by individual site characteristics.

KEY BENEFITS

CONDENSER SELECTION

ROBUST: Our condensers are built to handle turbine and steam generator overloads and variations in cooling water temperature. They are also resistant to impingement erosion and tube vibration.

ONCE-THROUGH

COOLING TOWER

AIR-COOLED

Applications

Coastal or waterside locations without access restrictions

Locations where sufficient make-up water is available

Locations where water access is prohibited or uneconomical

Advantages

• Highest plant efficiency possible • Lowest condenser pressure possible • Smallest footprint • Lowest cost

• Enhanced plant site locations (not limited to waterside areas) • Better performance than air-cooled units • Lower cost than air-cooled

• Fewer water-related complications (use of air eliminates issues related to water corrosion, filtration, treatment, and more) • Fewest siting and regulatory restrictions

• Stringent siting requirements (direct access to a body of water) • Highest regulatory burdens

• Significant make-up water requirements • Large footprint

• Least efficient • Impacted by ambient conditions (size and effectiveness) • Largest footprint • Highest cost

Disadvantages

IMPRESSIVE PERFORMANCE, HIGH RELIABILITY:GE’s tube bundle has a 50-year track record of outstanding performance and unrivaled reliability in both original installations and retrofits. HIGHLY EFFICIENT: The standardized tube bundles are scaled to meet the needs of any power plant, regardless of size. Each bundle contains between 1,600 to 7,000 tubes. REDUCED COSTS: Floor-mounted axial or lateral condensers simplify construction of the turbine foundation and shorten civil work and erection durations. They are delivered as fully tubed modules to minimize on site welding.

KEY FEATURES • Highest heat transfer coefficients • No condensate subcooling • Extremely low oxygen content in the condensate • Compact design • Optimum space utilization • Low-costmanufacture • Meets highest quality standards from initial design and manufacture to final commissioning

GE’s CONDENSER DESIGNS

WATER-COOLED CONDENSERS Our portfolio of condenser offerings includes our highly performing surface condensers. As an experienced manufacturer of both steam turbines and condensers, GE designs surface condensers to strike the optimum balance between these key components. In addition to rejecting heat and deaerating the condensate, GE’s surface condenser features several important safety functions. In bypass mode, for example, when boiler live steam is fed directly into the condenser, it is exposed to very high loads and must be designed accordingly.

SURFACE CONDENSER WITH CYLINDRICAL SHELL

SURFACE CONDENSER WITH RECTANGULAR SHELL

Application



Power Range

Up to approximately 100 MWe steam turbine output

From 50 MWe up to the largest steam turbine outputs

Arrangement



Surface Area

1,000 m2 (10,000 ft 2) up to 6,000 m 2 (60,000 ft 2)

3,000 m2 (32,000 ft 2) up to 35,000 m 2 (380,000 ft 2) with single shell

Tube Length

Typical 5 to 14 m (16-46 ft)

Maximum 18 m (60 ft)

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GAS POWER SYSTEMS CATALOG I ELECTRICAL CONVERSION


OVERVIEW AND SCOPE The final step in the power plant schematic is electrical conversion—supplying power to the grid, which is facilitated by an industrial generator and the electrical balance of plant (EBoP). GE has an installed base of 12,000+ turbine generators, and more than a century of experience delivering innovative, high voltage solutions in generation, transmission, and distribution networks. Our portfolio of generator and EBoP off erings is configured to serve your needs, no matter how specific or unique. When selecting a generator for your project, our engineers will consider a range of variables, including desired output, and gas and steam turbine selection. Connecting systems to one another as well as the plant to the electrical grid requires an intimate understanding of the power generation process. For EBoP, GE offers a versatile and robust suite of solutions for today’s increasingly complex power plants.

CONTROLS

DID YOU KNOW? Our generators operate at an availability rate that’s .38% above the industry average, equating to more than $1.6 million net present value for a 2x1 multi-shaft power plant.

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OVERVIEW AND SCOPE The final step in the power plant schematic is electrical conversion—supplying power to the grid, which is facilitated by an industrial generator and the electrical balance of plant (EBoP). GE has an installed base of 12,000+ turbine generators, and more than a century of experience delivering innovative, high voltage solutions in generation, transmission, and distribution networks. Our portfolio of generator and EBoP off erings is configured to serve your needs, no matter how specific or unique. When selecting a generator for your project, our engineers will consider a range of variables, including desired output, and gas and steam turbine selection. Connecting systems to one another as well as the plant to the electrical grid requires an intimate understanding of the power generation process. For EBoP, GE offers a versatile and robust suite of solutions for today’s increasingly complex power plants.

CONTROLS

DID YOU KNOW? Our generators operate at an availability rate that’s .38% above the industry average, equating to more than $1.6 million net present value for a 2x1 multi-shaft power plant.

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GENERATOR PORTFOLIO GE’s generators can be configured for multi-shaft or single-shaft operation, with project-specific variables like gas and steam turbine, desired output, regional fuel costs, and local environmental conditions ultimately driving product selection.

PROVEN TECHNOLOGY POWERS RELIABLE OPERATION STATOR • GE’s Tetraloc* end-winding technology helps maintain mechanical integrity throughout the generator’s operating life.

GE’s generator product line is divided into three categories based on cooling method: • GEN-A air-cooled generators are ideal for systems that demand simple, flexible operation. • GEN-H hydrogen-cooled generators feature low gas density, high specific heat, and high thermal conductivity, making them ideal for high efficiency applications.

• Individual stator bar cooling water temperatures in water-cooled machines detect strand blockages that result in forced outages if not repaired.

• GEN-W water-cooled generators operate efficiently and reliably within a small footprint when high output requirements exceed the cooling capabilities of air-cooled or conventional hydrogen-cooled generators.

AIR-COOLED HYDROGEN-COOLED WATER-COOLED Alternate cooling configurations are available upon customer request.

60 Hz 45 MVA

345 MVA

50 Hz 45 MVA 60 Hz

400 MVA 408 MVA

50 Hz

690 MVA

280 MVA 670 MVA

800 MVA

408 MVA

0

200

• Constant monitoring of electrical shorted turns in the insulation keeps output consistent and minimizes rotor vibration.

710 MVA

60 Hz 50 Hz

ROTOR • Computational fluid dynamics (CFD) analyses improve overall performance in a simplified radially cooled field winding configuration.

2235 MVA

400

600

800

ARMATURE INSULATION SYSTEM • Micapal III* stator b ar insulation technology enables higher power density with advanced voltage stress and thermal conductivity capabilities for greater armature per formance.

1,000

MVA

GE’s generators integrate easily, operate reliably, and provide more power. They are flexible and efficient, yet powerful enough to accommodate aggressive outputs. Designed for easy maintenance, their modular architecture features constant cross-section core segments for higher product ratings and 85 percent common parts and tooling for greater spare parts eff iciency, interchangeability, and maintenance familiarity. Comprehensive model engineering ensures integrity of electrical and mechanical system design .

• Configuration flexibility drives lower plant centerlines, smaller turbine buildings, and more efficient use of plant maintenance equipment, resulting in approximately $12 million in overall plant cost savings. • Collector brush monitoring indicates activity indicative of an impending arc or collector flashover. • Low-loss bearings, advanced-aero fan blades, and optimized cooling architecture contributes up to $1.8 million in net present value for a 2x1 multi-shaft combined cycle power plant.

• Long-term partial discharge monitoring reduces unplanned outage time by indicating insulation degradation. A rigorous validation program complements our technology development, with reliability and performance acting as key drivers. Many aspects of GE’s generators are thoroughly tested and validated prior to deployment, including the insulation system, non-metallic components, fulltrain rotor torsional models, and ventilation patterns.

Supply chain efficiencies and expanded logistics capabilities reduce manufacturing, delivery, and installation times. Preassembled equipment, a single-piece frame architecture, and fixator utilization combine to reduce on site installation by one to two weeks. A modular, pre-wired, and pre-tested eRoom eliminates approximately $1 million in construction labor costs.

GE also operators a no-load generator test facility that enables full-scale rapid thermal cycling and endurance testing. This capability accelerates testing to simulate extended operation, cyclic loading, and multiple machine start-stops. Every new product is subject to this testing to ensure operability and performance prior to commercial operation.

When building or upgrading a plant, our engineers will evaluate all parameters then determine which generator is the most appropriate. While the final product can differ, the outcome is always the same—a cost-effective, fully integrated, reliable solution that serves the needs of the total plant.

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OTHER COMPONENTS • Leads-up or leads-down arrangements complement GE steam turbines with axial or side exhausts and capture the value of reduced centerline height foundations.

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GENERATOR PORTFOLIO GE’s generators can be configured for multi-shaft or single-shaft operation, with project-specific variables like gas and steam turbine, desired output, regional fuel costs, and local environmental conditions ultimately driving product selection.

PROVEN TECHNOLOGY POWERS RELIABLE OPERATION STATOR • GE’s Tetraloc* end-winding technology helps maintain mechanical integrity throughout the generator’s operating life.

GE’s generator product line is divided into three categories based on cooling method: • GEN-A air-cooled generators are ideal for systems that demand simple, flexible operation. • GEN-H hydrogen-cooled generators feature low gas density, high specific heat, and high thermal conductivity, making them ideal for high efficiency applications.

• Individual stator bar cooling water temperatures in water-cooled machines detect strand blockages that result in forced outages if not repaired.

• GEN-W water-cooled generators operate efficiently and reliably within a small footprint when high output requirements exceed the cooling capabilities of air-cooled or conventional hydrogen-cooled generators.

AIR-COOLED HYDROGEN-COOLED WATER-COOLED

60 Hz 45 MVA

345 MVA

50 Hz 45 MVA

400 MVA

60 Hz

408 MVA

50 Hz

690 MVA

280 MVA 670 MVA

50 Hz

800 MVA

408 MVA

0

200

• Constant monitoring of electrical shorted turns in the insulation keeps output consistent and minimizes rotor vibration.

710 MVA

60 Hz

Alternate cooling configurations are available upon customer request.

ROTOR • Computational fluid dynamics (CFD) analyses improve overall performance in a simplified radially cooled field winding configuration.

2235 MVA

400

600

800

ARMATURE INSULATION SYSTEM • Micapal III* stator b ar insulation technology enables higher power density with advanced voltage stress and thermal conductivity capabilities for greater armature per formance.

1,000

MVA

GE’s generators integrate easily, operate reliably, and provide more power. They are flexible and efficient, yet powerful enough to accommodate aggressive outputs. Designed for easy maintenance, their modular architecture features constant cross-section core segments for higher product ratings and 85 percent common parts and tooling for greater spare parts eff iciency, interchangeability, and maintenance familiarity. Comprehensive model engineering ensures integrity of electrical and mechanical system design .

OTHER COMPONENTS • Leads-up or leads-down arrangements complement GE steam turbines with axial or side exhausts and capture the value of reduced centerline height foundations. • Configuration flexibility drives lower plant centerlines, smaller turbine buildings, and more efficient use of plant maintenance equipment, resulting in approximately $12 million in overall plant cost savings. • Collector brush monitoring indicates activity indicative of an impending arc or collector flashover. • Low-loss bearings, advanced-aero fan blades, and optimized cooling architecture contributes up to $1.8 million in net present value for a 2x1 multi-shaft combined cycle power plant.

• Long-term partial discharge monitoring reduces unplanned outage time by indicating insulation degradation. A rigorous validation program complements our technology development, with reliability and performance acting as key drivers. Many aspects of GE’s generators are thoroughly tested and validated prior to deployment, including the insulation system, non-metallic components, fulltrain rotor torsional models, and ventilation patterns.

Supply chain efficiencies and expanded logistics capabilities reduce manufacturing, delivery, and installation times. Preassembled equipment, a single-piece frame architecture, and fixator utilization combine to reduce on site installation by one to two weeks. A modular, pre-wired, and pre-tested eRoom eliminates approximately $1 million in construction labor costs.

GE also operators a no-load generator test facility that enables full-scale rapid thermal cycling and endurance testing. This capability accelerates testing to simulate extended operation, cyclic loading, and multiple machine start-stops. Every new product is subject to this testing to ensure operability and performance prior to commercial operation.

When building or upgrading a plant, our engineers will evaluate all parameters then determine which generator is the most appropriate. While the final product can differ, the outcome is always the same—a cost-effective, fully integrated, reliable solution that serves the needs of the total plant.

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ELECTRICAL BALANCE OF PLANT Once a power plant is built, it needs to be efficiently connected to the electrical grid. The products

ELECTRICAL BOP FOR POWER GENERATION

and services that make that happen are commonly referred to as the Electrical Balance of Plant

GE’s high voltage power equipment is designed and manufactured in accordance with the Grid

(EBoP). GE’s EBoP solutions work seamlessly across an extensive range of application and power

Solutions Sourcing Quality guidelines. Our design systems and manufacturing facilities are

generation types to ensure optimal performance and unprecedented reliability.

certified under the requirements of ISO 9001:2008, ISO14001:2004, and OHSAS18001:2007.

Our systems cater to all types of project requirements. We can supply equipment, engineered packages, and provide full EPC implementation. We provide an integrated system with complete

High Voltage Switchyard

monitoring and control of the power plant for thermal power generation. This includes all electrical

• HV Switchyard Equipment • Communications • Supervisory control and data acquisition (SCADA) • Protection and control

aspects of a plant for power generation, power quality, evacuation, and switchyard control. GE’s solutions are engineered using reference designs, resulting in higher efficiency, flexibility, reliability, and quicker return on investment. Systems can be tailored to meet specific needs, compliance codes, and standards. Major components include: • High voltage equipment

• Generator step up transformers

• Medium and low voltage electrical equipment, including motors, drives, protection, and control systems

• Auxiliary transformers

• Monitoring and diagnostic systems for starters/exciters, drive systems transformers, and motors

Thermal Power Evacuation Equipment • ISO Phase Bus • Generator circuit breaker • Generator step up transformer • Auxiliary transformers • Transformer monitoring • Protection and control equipment

Electrical and Control Rooms • Medium voltage/low voltage electrical distribution equipment • Medium voltage feeder protection • Power quality analyzers • Motor control centers (MCCs) and uninterruptible power supply (UPS) • Telecommunications

Auxiliary Systems • Medium voltage/low voltage switchgear • MCCs • Motors and variable speed drives • Static frequency convertor (SFC) • Static excitation equipment (SEE) • Motor protection • Communications

• Power metering systems • Communications systems • Plant control system • Power quality systems

• Generatorprotection

THE GE ADVANTAGE

88

• Fast return on investment facilitated by on time commercial operation date.

• Seamless installation and commissioning of integrated system and optimized interfaces.

• High reliability enhanced by proven design, which is compliant with international standards.

• Increased visibility and maintenance due to complete monitoring and control of power plant electrical system.

• Complete monitoring and control of power plant electrical systems, enabling better visibility and maintenance.

• Smooth project execution due to single coordinating design and construction entity.

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ELECTRICAL BALANCE OF PLANT Once a power plant is built, it needs to be efficiently connected to the electrical grid. The products

ELECTRICAL BOP FOR POWER GENERATION

and services that make that happen are commonly referred to as the Electrical Balance of Plant

GE’s high voltage power equipment is designed and manufactured in accordance with the Grid

(EBoP). GE’s EBoP solutions work seamlessly across an extensive range of application and power

Solutions Sourcing Quality guidelines. Our design systems and manufacturing facilities are

generation types to ensure optimal performance and unprecedented reliability.

certified under the requirements of ISO 9001:2008, ISO14001:2004, and OHSAS18001:2007.

Our systems cater to all types of project requirements. We can supply equipment, engineered packages, and provide full EPC implementation. We provide an integrated system with complete

High Voltage Switchyard

monitoring and control of the power plant for thermal power generation. This includes all electrical

• HV Switchyard Equipment • Communications • Supervisory control and data acquisition (SCADA) • Protection and control

aspects of a plant for power generation, power quality, evacuation, and switchyard control. GE’s solutions are engineered using reference designs, resulting in higher efficiency, flexibility, reliability, and quicker return on investment. Systems can be tailored to meet specific needs, compliance codes, and standards. Major components include: • High voltage equipment

• Generator step up transformers

• Medium and low voltage electrical equipment, including motors, drives, protection, and control systems

• Auxiliary transformers

• Monitoring and diagnostic systems for starters/exciters, drive systems transformers, and motors

Thermal Power Evacuation Equipment • ISO Phase Bus • Generator circuit breaker • Generator step up transformer • Auxiliary transformers • Transformer monitoring • Protection and control equipment

Electrical and Control Rooms • Medium voltage/low voltage electrical distribution equipment • Medium voltage feeder protection • Power quality analyzers • Motor control centers (MCCs) and uninterruptible power supply (UPS) • Telecommunications

Auxiliary Systems • Medium voltage/low voltage switchgear • MCCs • Motors and variable speed drives • Static frequency convertor (SFC) • Static excitation equipment (SEE) • Motor protection • Communications

• Power metering systems • Communications systems • Plant control system • Power quality systems

• Generatorprotection

THE GE ADVANTAGE • Fast return on investment facilitated by on time commercial operation date.

• Seamless installation and commissioning of integrated system and optimized interfaces.

• High reliability enhanced by proven design, which is compliant with international standards.

• Increased visibility and maintenance due to complete monitoring and control of power plant electrical system.

• Complete monitoring and control of power plant electrical systems, enabling better visibility and maintenance.

• Smooth project execution due to single coordinating design and construction entity.

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PLANT CONTROLS

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PLANT CONTROLS

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GAS POWER SYSTEMS CATALOG I PLANT CONTROLS

PLANT CONTROLS Integrated Systems Driving New Potential

Protecting, controlling, and monitoring your plant is critical to optimizing its performance

FEATURES OF GE’s INTEGRATED PLANT CONTROL SYSTEM

and operability. As an OEM, GE leverages strong domain expertise to unite turbine and plant

ACTIVEPOINT HMI In collaboration with nearly 100 global power plant operators, GE developed the ActivePoint HMI package to improve operator efficiency and awareness. The improved system provides simpler and more intuitive graphics and navigation while applying a more holistic strategy for the management of alarms and alerts. This means operators and plant maintenance personnel can focus on what is important.

controls with integrated, real-time strategies. These adaptive methods accommodate load flexibility, combustion versatility, and startup agility to ensure reliable operation even during weather, fuel, and grid variations. The emergence of industrial digitization is pushing controls capabilities to new heights, driving outcomes that increase output and fuel efficiency while decreasing overall costs and unplanned

Fully Integrated Alarm Management • Alarms are directly represented and actionable within both HMI screens and dedicated lists, reducing alarms by as much as 80 percent.

downtime. GE has long served the power industry with plant-level controls and now we’re leveraging our decades of experience to deploy new platforms that accommodate this digital paradigm. INDUSTRIAL INTERNET CONTROL SYSTEM (IICS) The IICS is a Predix-ready, modular controls platform that leverages rich data and analytics to turn insight into action. Founded on the premise that a connected controller can take more intelligent actions, IICS provides a connected and integrated approach that enables process optimization and real-time control by refining asset behavior in response to dynamic market conditions. The platform consists of outcome optimizing controllers, mix-and-match I/O modules, flexible connectivity options, and advanced analytics software and apps; the combination can be customized to meet specific application needs. Using the IICS for controlling the entire plant, instead of a separate DCS for controlling the balance of p lant, enables enhanced features like plant wide ActivePoint HMI, cyber security, and smart device integration.

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• Uses GE’s three-step alarm rationalization process (design, categorization, and alarm prioritization).

Asset and Process Performance • Securely connect and integrate data across the plant.

• Common philosophies and rationalization rules applied across all plant equipment.

• Analyze data on-premise or in the cloud. • Use ready-made apps or develop new apps.

• Reduce maintenance costs through monitoring and diagnostics.

CONTROL SERVER This scalable multi-core supervisory control platform consolidates hardware via virtualized machines, hosts thin client HMI services, Predix apps, and provides Predix cloud connectivity. Our Control Server also provides:

Generate New Revenue Opportunities • Develop new data-driven service offerings.

• Lower total cost of ownership and improved maintainability by utilizing commercial off-the-shelf hardware.

• Create new channels to market through the emerging Industrial App Economy.

• Additional hardware consolidation through virtualization.

Maximize Productivity • Create data-driven insights to optimize resource usage.

DIGITAL BUS TECHNOLOGY AND SMART DEVICES GE’s Mark VIe hosts several digital data bus technologies for sensor, actuators and electrical equipment. Digital bus devices can exchange additional information with the controller and remote platforms, such as device identifi cation, control settings, diagnostics, and prognostics. Digital bus connection methods and the additional information provided decrease total installed cost by significantly reducing the amount of effort spent on interconnecting wires, simplifying and speeding up checkout and commissioning. A typical 9HA plant with digital bus technology will realize approximately $1 million in cost savings. The technology also can provide long-term operational benefits to power p lant owners and operators through improved fault detection and diagnostics. CYBER SECURITY GE provides cyber security solutions that block malicious activity and attacks. • Our Mark VIe controllers are Achilles™-certified and compliant with the proposed North American Electric Reliability Corporation (NERC) Version 5 Critical Infrastructure Protection Reliability Standards. • Wurldtech OpShield™ is an intrusion detection and prevention system that creates zones of protection within the plant and unit data highways. OpShield™ is available post-commissioning on a subscription basis.

• Level 2 software host which enables updates without disrupting equipment operation).

• Maintain competitive advantage through continuous software-based innovation.

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PLANT CONTROLS Integrated Systems Driving New Potential

Protecting, controlling, and monitoring your plant is critical to optimizing its performance

FEATURES OF GE’s INTEGRATED PLANT CONTROL SYSTEM

and operability. As an OEM, GE leverages strong domain expertise to unite turbine and plant

ACTIVEPOINT HMI In collaboration with nearly 100 global power plant operators, GE developed the ActivePoint HMI package to improve operator efficiency and awareness. The improved system provides simpler and more intuitive graphics and navigation while applying a more holistic strategy for the management of alarms and alerts. This means operators and plant maintenance personnel can focus on what is important.

controls with integrated, real-time strategies. These adaptive methods accommodate load flexibility, combustion versatility, and startup agility to ensure reliable operation even during weather, fuel, and grid variations. The emergence of industrial digitization is pushing controls capabilities to new heights, driving outcomes that increase output and fuel efficiency while decreasing overall costs and unplanned

Fully Integrated Alarm Management • Alarms are directly represented and actionable within both HMI screens and dedicated lists, reducing alarms by as much as 80 percent.

downtime. GE has long served the power industry with plant-level controls and now we’re leveraging our decades of experience to deploy new platforms that accommodate this digital paradigm. INDUSTRIAL INTERNET CONTROL SYSTEM (IICS) The IICS is a Predix-ready, modular controls platform that leverages rich data and analytics to turn insight into action. Founded on the premise that a connected controller can take more intelligent actions, IICS provides a connected and integrated approach that enables process optimization and real-time control by refining asset behavior in response to dynamic market conditions. The platform consists of outcome optimizing controllers, mix-and-match I/O modules, flexible connectivity options, and advanced analytics software and apps; the combination can be customized to meet specific application needs. Using the IICS for controlling the entire plant, instead of a separate DCS for controlling the balance of p lant, enables enhanced features like plant wide ActivePoint HMI, cyber security, and smart device integration.

• Uses GE’s three-step alarm rationalization process (design, categorization, and alarm prioritization).

Asset and Process Performance • Securely connect and integrate data across the plant.

• Common philosophies and rationalization rules applied across all plant equipment.

• Analyze data on-premise or in the cloud. • Use ready-made apps or develop new apps.

• Reduce maintenance costs through monitoring and diagnostics.

CONTROL SERVER This scalable multi-core supervisory control platform consolidates hardware via virtualized machines, hosts thin client HMI services, Predix apps, and provides Predix cloud connectivity. Our Control Server also provides:

Generate New Revenue Opportunities • Develop new data-driven service offerings.

• Lower total cost of ownership and improved maintainability by utilizing commercial off-the-shelf hardware.

• Create new channels to market through the emerging Industrial App Economy.

• Additional hardware consolidation through virtualization.

Maximize Productivity • Create data-driven insights to optimize resource usage.

DIGITAL BUS TECHNOLOGY AND SMART DEVICES GE’s Mark VIe hosts several digital data bus technologies for sensor, actuators and electrical equipment. Digital bus devices can exchange additional information with the controller and remote platforms, such as device identifi cation, control settings, diagnostics, and prognostics. Digital bus connection methods and the additional information provided decrease total installed cost by significantly reducing the amount of effort spent on interconnecting wires, simplifying and speeding up checkout and commissioning. A typical 9HA plant with digital bus technology will realize approximately $1 million in cost savings. The technology also can provide long-term operational benefits to power p lant owners and operators through improved fault detection and diagnostics. CYBER SECURITY GE provides cyber security solutions that block malicious activity and attacks. • Our Mark VIe controllers are Achilles™-certified and compliant with the proposed North American Electric Reliability Corporation (NERC) Version 5 Critical Infrastructure Protection Reliability Standards. • Wurldtech OpShield™ is an intrusion detection and prevention system that creates zones of protection within the plant and unit data highways. OpShield™ is available post-commissioning on a subscription basis.

• Level 2 software host which enables updates without disrupting equipment operation).

• Maintain competitive advantage through continuous software-based innovation.

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• SecurityST*, an optional IT security appliance, provides a set of centralized tools and services to manage user accounts and perform tasks such as software patching and anti-virus updates. This appliance also collects and stores logging data for the control system, and provides firewall segmentation/intrusion detection capabilities. PLANT CONTROL SYSTEM ARCHITECTURE Downtime is one of the greatest detriments to productivity and profitability, so it’s imperative to have a system in place that consistently provides the highest levels of system reliability and availability.


Rugged Architecture • The processors, network switches, and I/O components are approved for hazardous location, Class 1, Division 2; the platform can operate in temperatures ranging from -30°C to 65°C without fans or other external cooling. Configured for Safety • Primary and safety control can exist on one network while remaining independent; primary control can listen to safety inputs without interference. • Safety Integrity Level (SIL) certifiable to meet compliance needs.

Flexible and Scalable • A distributed or centralized I/O can accommodate evolving systems and applications as well as various levels of redundancy.

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• SecurityST*, an optional IT security appliance, provides a set of centralized tools and services to manage user accounts and perform tasks such as software patching and anti-virus updates. This appliance also collects and stores logging data for the control system, and provides firewall segmentation/intrusion detection capabilities. PLANT CONTROL SYSTEM ARCHITECTURE Downtime is one of the greatest detriments to productivity and profitability, so it’s imperative to have a system in place that consistently provides the highest levels of system reliability and availability.


Rugged Architecture • The processors, network switches, and I/O components are approved for hazardous location, Class 1, Division 2; the platform can operate in temperatures ranging from -30°C to 65°C without fans or other external cooling. Configured for Safety • Primary and safety control can exist on one network while remaining independent; primary control can listen to safety inputs without interference. • Safety Integrity Level (SIL) certifiable to meet compliance needs.

Flexible and Scalable • A distributed or centralized I/O can accommodate evolving systems and applications as well as various levels of redundancy.

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GAS POWER SYSTEMS CATALOG I POWER GENERATION VALIDATION


POWER GENERATION VALIDATION As a technology leader and innovator in the power generation industry, GE is constantly pushing to expand engineering capabilities and domain expertise. Advancing our offerings to deliver added value is no easy feat; it requires the brightest people, the best ideas, and an across the board allegiance to a rigorous and methodical validation philosophy.

OFF-GRID ADVANTAGES • Flexible Testing Capability: No frequency, speed, or load restrictions; prompt post-test teardown inspection and product enhancement implementation. • Unique Operability: Combustion mapping beyond what’s possible in the field; complete compressor mapping; testing for product capability and durability during extreme grid events. • Unmatched Performance: Ability to tune part load performance and turndown; optimization of compressor variable vane position scheduling; enhanced load path with expanded knowledge of compressor/combustion boundaries.

Our commitment to engineering excellence is brought to life at our development and validation facilities, which are scattered throughout the world. These laboratories and test stands serve all of our major products across their entire life cycle—from materials selection and manufacturing methods to gas turbine s ystem validation and f ield service optimization. It is these facilities that give GE the ability to accelerate the pace at which new technology and products are introduced.

SEALS RIG – RUGBY, UNITED KINGDOM This rig evaluates new gas turbine seal designs and has capabilities for accelerated endurance testing, including radial excursion and seal pack tilt tests. It also monitors flowrate, absorbed power, and wear. The facility can supply air inlet temperatures as high as 450°C and p ressures of 110 psig. Following recent improvements, the rig shaftline is capable of 18,000 revolutions per minute (RPM), providing a surface speed at the seal interface of 280 ms-1.

The industry is demanding and the competition is fierce. Our goal is to offer proven, validated products that give you the confidence you need to make GE your power generation solution provider.

FIELD MEASUREMENTS GE performs regular field measurements at customer power plants to support both research and development activities and customer support (fault diagnosis). A wide range of vibration, temperature, and pressure measurements are offered in fields such as:

GAS TURBINES GE operates the world’s largest and most powerful variable speed, variable load, off-grid gas turbine test facility in Greenville, South Carolina. Capable of replicating a real-world grid environment at full capacity, this facility tests 50 and 60 Hz gas turbines well beyond normal power plant conditions seen in the field. An advanced communication system connects the facility’s control room, data center, and nerve center, and facilitates thorough data collection during each test. The Mark VIe control system operates the gas turbine throughout testing to validate and refine the control logic and advanced models.

• Rotor dynamics (shaft line diagnostics and in-situ balancing) • Last stage blade airfoil vibration characteristics (tip timing) • Aerodynamic performance (dynamic pressure measurements) • Full-scale engine validation

COMBUSTION LAB Greenville is also home to the world’s largest and most flexible combustor module test facility, 575,000 square-feet of space that includes five independent test cells that house 10 full-scale,

Temperature data on casing structures, the rotor, and hot gas path components provide GE with an unrivaled understanding of actual component temperatures. This is crucial in confirming the thermal strain on parts and accurately analyzing component life. Comprehensive testing prepares our turbines for nearly any condition they may experience once installed. It also provides GE with invaluable performance insight under the most demanding conditions.

single-can test stands. The facility includes a control room, data center, emissions measurement center, instrumentation shop, and fabrication shop. Capable of running eight different fired tests per week and up to 342 fired tests per year, the combustion lab replicates real-world fuel compositions at full-scale flow conditions to determine combustor operability and fuel flexibility envelope. It also performs component-level flow testing,

GREENVILLE’S CAPABILITIES • 8,000+ data streams captured during testing

as well as ping testing and accelerated life testing to provide an overall system-level architecture

• Runs both natural gas and liquid distillate fuels

for operability and durability requirements. This comprehensive approach prepares GE’s

• Capable of testing multiple gas turbine models

combustors for any condition they may experience once installed and operating in the field.

• Full-scale compressor mapping and validation GREENVILLE’S CAPABILITIES • Up to 1,000 data streams captured during each test

• 800+ test hours planned for HA gas turbines through 2017

• Runs natural gas, propane, butane, ethane, nitrogen, hydrogen, CO, CO 2, and multiple liquid fuels • Capable of testing all fleet configurations up to full-scale conditions; can develop new combustion systems as needed • Full-scale combustor development before gas turbine’s on site full speed, full load, off-grid validation

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POWER GENERATION VALIDATION As a technology leader and innovator in the power generation industry, GE is constantly pushing to expand engineering capabilities and domain expertise. Advancing our offerings to deliver added value is no easy feat; it requires the brightest people, the best ideas, and an across the board allegiance to a rigorous and methodical validation philosophy.

OFF-GRID ADVANTAGES • Flexible Testing Capability: No frequency, speed, or load restrictions; prompt post-test teardown inspection and product enhancement implementation. • Unique Operability: Combustion mapping beyond what’s possible in the field; complete compressor mapping; testing for product capability and durability during extreme grid events. • Unmatched Performance: Ability to tune part load performance and turndown; optimization of compressor variable vane position scheduling; enhanced load path with expanded knowledge of compressor/combustion boundaries.

Our commitment to engineering excellence is brought to life at our development and validation facilities, which are scattered throughout the world. These laboratories and test stands serve all of our major products across their entire life cycle—from materials selection and manufacturing methods to gas turbine s ystem validation and f ield service optimization. It is these facilities that give GE the ability to accelerate the pace at which new technology and products are introduced.

SEALS RIG – RUGBY, UNITED KINGDOM This rig evaluates new gas turbine seal designs and has capabilities for accelerated endurance testing, including radial excursion and seal pack tilt tests. It also monitors flowrate, absorbed power, and wear. The facility can supply air inlet temperatures as high as 450°C and p ressures of 110 psig. Following recent improvements, the rig shaftline is capable of 18,000 revolutions per minute (RPM), providing a surface speed at the seal interface of 280 ms-1.

The industry is demanding and the competition is fierce. Our goal is to offer proven, validated products that give you the confidence you need to make GE your power generation solution provider.


GAS TURBINES GE operates the world’s largest and most powerful variable speed, variable load, off-grid gas turbine test facility in Greenville, South Carolina. Capable of replicating a real-world grid environment at full capacity, this facility tests 50 and 60 Hz gas turbines well beyond normal power plant conditions seen in the field. An advanced communication system connects the facility’s control room, data center, and nerve center, and facilitates thorough data collection during each test. The Mark VIe control system operates the gas turbine throughout testing to validate and refine the control logic and advanced models.

• Rotor dynamics (shaft line diagnostics and in-situ balancing) • Last stage blade airfoil vibration characteristics (tip timing) • Aerodynamic performance (dynamic pressure measurements) • Full-scale engine validation

COMBUSTION LAB Greenville is also home to the world’s largest and most flexible combustor module test facility, 575,000 square-feet of space that includes five independent test cells that house 10 full-scale,

Temperature data on casing structures, the rotor, and hot gas path components provide GE with an unrivaled understanding of actual component temperatures. This is crucial in confirming the thermal strain on parts and accurately analyzing component life. Comprehensive testing prepares our turbines for nearly any condition they may experience once installed. It also provides GE with invaluable performance insight under the most demanding conditions.

single-can test stands. The facility includes a control room, data center, emissions measurement center, instrumentation shop, and fabrication shop. Capable of running eight different fired tests per week and up to 342 fired tests per year, the combustion lab replicates real-world fuel compositions at full-scale flow conditions to determine combustor operability and fuel flexibility envelope. It also performs component-level flow testing,

GREENVILLE’S CAPABILITIES • 8,000+ data streams captured during testing

as well as ping testing and accelerated life testing to provide an overall system-level architecture

• Runs both natural gas and liquid distillate fuels

for operability and durability requirements. This comprehensive approach prepares GE’s

• Capable of testing multiple gas turbine models

combustors for any condition they may experience once installed and operating in the field.

• Full-scale compressor mapping and validation GREENVILLE’S CAPABILITIES • Up to 1,000 data streams captured during each test

• 800+ test hours planned for HA gas turbines through 2017

• Runs natural gas, propane, butane, ethane, nitrogen, hydrogen, CO, CO 2, and multiple liquid fuels • Capable of testing all fleet configurations up to full-scale conditions; can develop new combustion systems as needed • Full-scale combustor development before gas turbine’s on site full speed, full load, off-grid validation

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STEAM TURBINES To maximize earnings, power generation equipment must perform when required and as expected. At GE, we are constantly investing in our products and enhancing our validation capabilities to ensure our assets, components, and subsystems are on point. World-class data acquisition systems developed and maintained by SOA and GE monitor massive quantities of high-speed data, provide real-time data calculations, and offer in-test processing for engineering decision making. They also allow for real-time data streaming to dedicated data servers.

WHEEL BOX TEST FACILITY – SCHENECTADY, NEW YORK The wheel box test facility collects aeromechanical data on single- or multi-stage gas or steam turbine products. The rig simulates a variety of operating conditions by running at varying speeds in a deep vacuum and by varying excitation. Validating airfoil vibration characteristics are critical to ensuring part life and product operational capabilities. SUB-SONIC AIR TURBINE – SCHENECTADY, NEW YORK Utilizing compressed air in lieu of steam, this rig provides section or stage-by-stage performance of up to two stages of steam or gas turbine airfoils. It provides key data needed to validate improvements obtained using 3D aerodynamics in the turbine airfoils by allowing for rapid DOEs critical to the development of advanced airfoil configuration tools.

LOW PRESSURE DEVELOPMENT TURBINE – SCHENECTADY, NEW YORK This rig provides aeromechanics and performance testing of last stage blades and steam paths. It simulates fossil or combined cycle operation and breaks down performance by section or stage. The low pressure development turbine is equipped with advanced data systems, including non-contact blade vibration detection and unique inner stage, exhaust, and hood measurement capabilities. Testing includes advanced turbine path component technologies, including 3D aerodynamics and seal architecture.

STATIONARY AIR CELLS TEST FACILITY – SCHENECTADY, NEW YORK The stationary air cells provide flexibility to flow test a variety of components in both full- and part-scale configurations. The cells allow for varying flow, velocity, and back pressure to acquire data for use in gas and steam turbine inlets, exhausts, diffusers, seals, flow guides, and hoods. SEALS RIG – RUGBY, UNITED KINGDOM This rig evaluates new steam turbine seal designs and has capabilities for accelerated endurance testing, including radial excursion and seal pack tilt tests. It also monitors flowrate, absorbed power, and wear. The facility can supply air inlet temperatures as high as 450°C and pressures of 110 psig. Following recent improvements, the rig shaftline is capable of 18,000 RPM, providing a surface speed at the seal interface of 280 ms-1.

LOW PRESSURE MODEL TURBINE – ST. PETERSBURG, RUSSIA This facility tests the advanced aeromechanics and performance of the low pressure turbine blades at a third scale. The driving turbine facilitates aeromechanics investigations at a wide range of conditions from startup and ventilation through full load operation. The dynamic pressure sensors (rotating and static) detect, recognize, and investigate dynamic events in the flow and are accompanied by strain gauges and tip timing measurement to give detailed information for flow structure interaction. Performance tests benefit from separate measurement of the power of the last stage or last two stages via a split shaft arrangement.

BLADE VIBRATION TESTING Steam turbine airfoil vibration testing is conducted at any GE overspeed/vacuum chamber facility worldwide and can range from first stage high pressure blading through to last stage low pressure blading, for both new (first of its kind) and in-service components. The facil ities use state-of-the art testing methods such as strain gauging, telemetry, and tip-timing, using both air jets and D C + AC electromagnets for simulated excitation.

VARIABLE DENSITY MODEL TURBINE ( VDMT) TEST FACILITY – RUGBY, UNITED KINGDOM This world-class test facility provides high Reynolds Number aerodynamic testing using a variable mixture of R134a and air as the working fluid. A closed-circuit loop allows operation at elevated and sub-atmospheric pressures. Reynolds Numbers up to full scale can be achieved with the cost and lead-time benefits of scaled components.


LOW PRESSURE MODEL TURBINE (SOPHIA) – RUGBY, UNITED KINGDOM Utilizing the VDMT capabilities, Sophia provides a unique platform for rapid performance measurements of 1/9th scale testing of the last low pressure stage, diffuser, exhaust box, and furniture arrangement. The multi-axis instrumentation traverse system allows detailed volumetric flow field data from rotor trailing edge to condenser inlet.

• Rotor dynamics (shaft line diagnostics and in-situ balancing) • Last stage blade airfoil vibration characteristics (tip timing)

HIGH/MEDIUM PRESSURE MODEL TURBINE (GRACE) – RUGBY, UNITED KINGDOM Also utilizing the VDMT, Grace offers a 2½ stage high pressure/intermediate pressure test vehicle on a split shaft arrangement giving high accuracy turbine and stage efficiency measurements. The high Reynolds Number allows the latest generation of reaction and impulse high pressure/intermediate pressure blades to be characterized and validated.

• Aerodynamic performance (dynamic pressure measurements) • Steam turbine valve vibration and noise sur veys • Full-scale engine validation

HIGH PRESSURE TEST VEHICLE – LYNN, MASSACHUSETTS, USA This multi-stage high rig has similar capabilities and data acquisition technologies as the low pressure development turbine. It provides best-in-class aero performance test capability of high pressure and intermediate pressure steam turbine blades and steam paths.

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STEAM TURBINES To maximize earnings, power generation equipment must perform when required and as expected. At GE, we are constantly investing in our products and enhancing our validation capabilities to ensure our assets, components, and subsystems are on point. World-class data acquisition systems developed and maintained by SOA and GE monitor massive quantities of high-speed data, provide real-time data calculations, and offer in-test processing for engineering decision making. They also allow for real-time data streaming to dedicated data servers.

WHEEL BOX TEST FACILITY – SCHENECTADY, NEW YORK The wheel box test facility collects aeromechanical data on single- or multi-stage gas or steam turbine products. The rig simulates a variety of operating conditions by running at varying speeds in a deep vacuum and by varying excitation. Validating airfoil vibration characteristics are critical to ensuring part life and product operational capabilities. SUB-SONIC AIR TURBINE – SCHENECTADY, NEW YORK Utilizing compressed air in lieu of steam, this rig provides section or stage-by-stage performance of up to two stages of steam or gas turbine airfoils. It provides key data needed to validate improvements obtained using 3D aerodynamics in the turbine airfoils by allowing for rapid DOEs critical to the development of advanced airfoil configuration tools.

LOW PRESSURE DEVELOPMENT TURBINE – SCHENECTADY, NEW YORK This rig provides aeromechanics and performance testing of last stage blades and steam paths. It simulates fossil or combined cycle operation and breaks down performance by section or stage. The low pressure development turbine is equipped with advanced data systems, including non-contact blade vibration detection and unique inner stage, exhaust, and hood measurement capabilities. Testing includes advanced turbine path component technologies, including 3D aerodynamics and seal architecture.

STATIONARY AIR CELLS TEST FACILITY – SCHENECTADY, NEW YORK The stationary air cells provide flexibility to flow test a variety of components in both full- and part-scale configurations. The cells allow for varying flow, velocity, and back pressure to acquire data for use in gas and steam turbine inlets, exhausts, diffusers, seals, flow guides, and hoods. SEALS RIG – RUGBY, UNITED KINGDOM This rig evaluates new steam turbine seal designs and has capabilities for accelerated endurance testing, including radial excursion and seal pack tilt tests. It also monitors flowrate, absorbed power, and wear. The facility can supply air inlet temperatures as high as 450°C and pressures of 110 psig. Following recent improvements, the rig shaftline is capable of 18,000 RPM, providing a surface speed at the seal interface of 280 ms-1.

LOW PRESSURE MODEL TURBINE – ST. PETERSBURG, RUSSIA This facility tests the advanced aeromechanics and performance of the low pressure turbine blades at a third scale. The driving turbine facilitates aeromechanics investigations at a wide range of conditions from startup and ventilation through full load operation. The dynamic pressure sensors (rotating and static) detect, recognize, and investigate dynamic events in the flow and are accompanied by strain gauges and tip timing measurement to give detailed information for flow structure interaction. Performance tests benefit from separate measurement of the power of the last stage or last two stages via a split shaft arrangement.

BLADE VIBRATION TESTING Steam turbine airfoil vibration testing is conducted at any GE overspeed/vacuum chamber facility worldwide and can range from first stage high pressure blading through to last stage low pressure blading, for both new (first of its kind) and in-service components. The facil ities use state-of-the art testing methods such as strain gauging, telemetry, and tip-timing, using both air jets and D C + AC electromagnets for simulated excitation.

VARIABLE DENSITY MODEL TURBINE ( VDMT) TEST FACILITY – RUGBY, UNITED KINGDOM This world-class test facility provides high Reynolds Number aerodynamic testing using a variable mixture of R134a and air as the working fluid. A closed-circuit loop allows operation at elevated and sub-atmospheric pressures. Reynolds Numbers up to full scale can be achieved with the cost and lead-time benefits of scaled components.


LOW PRESSURE MODEL TURBINE (SOPHIA) – RUGBY, UNITED KINGDOM Utilizing the VDMT capabilities, Sophia provides a unique platform for rapid performance measurements of 1/9th scale testing of the last low pressure stage, diffuser, exhaust box, and furniture arrangement. The multi-axis instrumentation traverse system allows detailed volumetric flow field data from rotor trailing edge to condenser inlet.

• Rotor dynamics (shaft line diagnostics and in-situ balancing) • Last stage blade airfoil vibration characteristics (tip timing)

HIGH/MEDIUM PRESSURE MODEL TURBINE (GRACE) – RUGBY, UNITED KINGDOM Also utilizing the VDMT, Grace offers a 2½ stage high pressure/intermediate pressure test vehicle on a split shaft arrangement giving high accuracy turbine and stage efficiency measurements. The high Reynolds Number allows the latest generation of reaction and impulse high pressure/intermediate pressure blades to be characterized and validated.

• Aerodynamic performance (dynamic pressure measurements) • Steam turbine valve vibration and noise sur veys • Full-scale engine validation

HIGH PRESSURE TEST VEHICLE – LYNN, MASSACHUSETTS, USA This multi-stage high rig has similar capabilities and data acquisition technologies as the low pressure development turbine. It provides best-in-class aero performance test capability of high pressure and intermediate pressure steam turbine blades and steam paths.

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GENERATORS Continued investment in product development and validation enables the progression of highly reliable and efficient technology. Since 2009, the generator development and validation facility in Schenectady, New York has been testing components, subsystems, systems, and complete generators, and has made great contributions to the overall evolution of our generator technology. NON-METALLIC MATERIALS LAB This facility enables insulation sys tems development and non-metallic component testing. ROTOR TORSIONAL TESTING A balance bunker performs torsional vibration tests on generator fields, producing data for each individual rotor. This data is used to validate full-train torsional models and to mitigate risk of torsional resonance. FIELD VENTILATION LAB This stationary test rig validates new ventilation schemes for generator fields for potential uprates to both new and existing units with field rewinds. DC current is passed through copper field turns while ventilation gas cools the turns. ARMATURE END-WINDING LAB Thermal and mechanical cycling of full-scale end-winding support systems allow for the evaluation of new materials, support systems, and configurations. ARMATURE DEVELOPMENT LAB This lab tests new armature bar and slot support systems at current levels up to 17,000 amps or bar forces upwards of 200 lbf per inch of stator bar length. GENERATOR THERMAL CYCLING AND ENDURANCE TEST STAND A $14 million upgrade to the existing generator test stand has added the capability for full-scale, rapid, thermal cyclic duty and endurance testing with capabilities that include open circuit, short circuit, and sudden short circuit. In addition to housing the drive train, the test facility includes control room and data centers, as well as an on site remote nerve center area, all connected by an advanced communication system that facilitates thorough data collec tion during each test.

CONTROLS PROJECT SIMULATION Control system acceptance tests use our scalable simulation platform. Virtual simulators on a desktop or in the cloud validate quality and completeness for a smooth installation. Our passion for simulation, virtual simulator technology, and scalable testing platforms promotes quality in our complete controls solutions.

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GENERATORS Continued investment in product development and validation enables the progression of highly reliable and efficient technology. Since 2009, the generator development and validation facility in Schenectady, New York has been testing components, subsystems, systems, and complete generators, and has made great contributions to the overall evolution of our generator technology. NON-METALLIC MATERIALS LAB This facility enables insulation sys tems development and non-metallic component testing. ROTOR TORSIONAL TESTING A balance bunker performs torsional vibration tests on generator fields, producing data for each individual rotor. This data is used to validate full-train torsional models and to mitigate risk of torsional resonance. FIELD VENTILATION LAB This stationary test rig validates new ventilation schemes for generator fields for potential uprates to both new and existing units with field rewinds. DC current is passed through copper field turns while ventilation gas cools the turns. ARMATURE END-WINDING LAB Thermal and mechanical cycling of full-scale end-winding support systems allow for the evaluation of new materials, support systems, and configurations. ARMATURE DEVELOPMENT LAB This lab tests new armature bar and slot support systems at current levels up to 17,000 amps or bar forces upwards of 200 lbf per inch of stator bar length. GENERATOR THERMAL CYCLING AND ENDURANCE TEST STAND A $14 million upgrade to the existing generator test stand has added the capability for full-scale, rapid, thermal cyclic duty and endurance testing with capabilities that include open circuit, short circuit, and sudden short circuit. In addition to housing the drive train, the test facility includes control room and data centers, as well as an on site remote nerve center area, all connected by an advanced communication system that facilitates thorough data collec tion during each test.

CONTROLS PROJECT SIMULATION Control system acceptance tests use our scalable simulation platform. Virtual simulators on a desktop or in the cloud validate quality and completeness for a smooth installation. Our passion for simulation, virtual simulator technology, and scalable testing platforms promotes quality in our complete controls solutions.

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APPENDIX

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APPENDIX

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GAS POWER SYSTEMS CATALOG I A PPENDIX


TECHNICAL DATA HEAVY DUTY GAS TURBINES 50/60 Hz (Geared)

e c t n n a a m l P r o C f S r e P

6F.03

9E.03

9E.04

GT13E2 2005

GT13E2 2012

9F.03

9F.04

9F.05

9F.06

9HA.01

44

54

82

132

145

185

203

265

287

314

359

446

544

SC Net Heat Rate (Btu/kWh, LHV)

10,180

8,880

9,420

9,860

9,210

9,027

8,980

9,020

8,810

8,930

8,146

7,910

7,766

SC Net Heat Rate (kJ/kWh, LHV)

10,741

9,369

9,939

10,403

9,717

9,524

9,474

9,517

9,295

9,422

8,595

8,346

8,194

SC Net Efficiency (%, LHV)

33.5%

38.4%

36.2%

34.6%

37.0%

37.8%

38.0%

37.8%

38.7%

38.2%

41.9%

43.1%

43.9%

12.7

21.4

16.4

13.1

13.3

16.9

18.2

16.7

16.9

18.3

Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen

SC Net Output (MW)

GT Generator Type (Cooling)

10

6

6

14

14

72 (EV burners)

48 (AEV burners)

18

18

18

16

16

16

12

18

17

17

21

16

18

18

14

14

14

14

Number of Turbine Stages

3

3

3

3

4

5

5

3

3

3

4

4

4

Exhaust Temperature (°F)

1,023

1,117

1,123

1,012

1,007

941

934

1,104

1,151

1,184

1,132

1,164

1,177

Exhaust Temperature (°C)

551

603

606

544

542

505

501

596

622

640

611

629

636

Exhaust Energy (MM Btu/hr)

290

280

477

828

818

1,055

1,155

1,458

1,524

1,700

1,700

2,009

2,372

Exhaust Energy (MM kJ/hr)

306

296

503

874

863

1,113

1,219

1,538

1,608

1,794

1,794

2,120

2,503

GT Turndown Minimum Load (%)

50%

40%

52%

35%

35%

30%

30%

35%

35%

35%

38%

30%

30%

GT Ramp Rate (MW/min)1

20

12

7

50

16

12/25

14/36/68

22

23

24

65

65

88

NOx (ppmvd) at Baseload (@15% O2)

4

25

15

5

15

25

15

15

15

25

15

25

25

CC Net Output (MW)

C C 1 x 1

t e n c a n l a P C m r C o f 1 x r e 2 P

s e r u t a e F t n a l P r e

w o P C C 1 x 2

25

9

9

25

25

80

25

24

24

24

9

9

9

>+/-30%

+/-10%

+10%, -15%

>+/-30%

>+/-30%

+/-20%

+/-20%

+/-15%

+/-15%

+/-10%

+/-15%

+/-15%

+/-15%

12/10

12/10

29/-

30/10

30/10

25/15

25/15/10

23/20

23/20

23/20

23/12

23/

23/

68

81

125

204

215

264

289

409

432

493

532

659

804 5,373


6,619

5,916

6,093

6,399

6,210

6,209

6,206

5,792

5,692

5,619

5,489

5,383

CC Net Heat Rate (kJ/kWh, LHV)

6,984

6,242

6,428

6,751

6,552

6,551

6,548

6,111

6,006

5,928

5,791

5,679

5,669

CC Net Efficiency (%, LHV)

51.5%

57.7%

56.0%

53.3%

54.9%

55.0%

55.0%

58.9%

59.9%

60.7%

62.2%

63.4%

63.5% 38%

Plant Turndown – Minimum Load (%)

59%

49%

60%

45%

46%

39%

39%

46%

45%

46%

49%

38%

Ramp Rate (MW/Minute)1

20

12

7

50

16

12

14

22

22

24

65

65

88

Startup Time (RR Hot, Minutes) 3

30

30

45

38

38

80

80

30

30

30

<30

<30

<30

Bottoming Cycle Type

2PNRH

3PNRH

3PNRH

2PNRH

2PNRH

2PNRH

2PNRH

3PRH

1,015/70

1,740/120

1,740/120

1,085/75

1,085/75

1,088/75

1,088/75

2,400/165

HP Throttle Temp. (°F/°C)

1,004/540

1,050/566

1,050/566

986/530

986/530

923/495

914/490

1,080/582

1,085/585

1,112/600

1,085/585

1,112/600

1,112/600

N/A

N/A

N/A

N/A

N/A

N/A

N/A

1,058/570

1,085/585

1,112/600

1,058/570

1,085/585

1,112/600

STF-A200

STF-D650

STF-D650

Reheat Temp. (°F/°C) ST Configuration (Type)

3PRH 2,400/165

3PRH 2,685/185

3PRH 2,685/185

3PRH

HP Throttle Press. (psia/bar)

2,685/185

3PRH 2,685/185

STF-A250

STF-A250

STF-A250

STF-A200

STF-A200

STF-A200

STF-D650

STF-D650

STF-D650

STF-D650


Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Water

Water

ST Generator Type (Cooling)

Air

Air

Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Water

Water

CC Net Output (MW)

137

163

252

410

433

530

581

819

866

989

1,067

1,320

1,613


6,557

5,865

6,039

6,353

6,169

6,186

6,178

5,779

5,676

5,603

5,476

5,373

5,314


6,918

6,188

6,372

6,703

6,509

6,527

6,518

6,097

5,989

5,911

5,777

5,669

5,606


52.0%

58.2%

56.5%

53.7%

55.3%

55.2%

55.2%

59.0%

60.1%

60.9%

62.3%

63.5%

63.7%

28%

24%

29%

22%

22%

19%

19%

22%

22%

23%

23%

18%

18%


40

24

13

100

25

24

28

44

44

48

130

130

176


30

30

35

38

38

80

80

39

39

39

<30

<30

<30



2PNRH

3PNRH

3PNRH

2PNRH

2PNRH

2PNRH

2PNRH

3PRH


1,015/70

1,740/120

1,740/120

1,085/75

1,085/75

1,088/75

1,160/80

2,400/165


1,004/540

1,050/566

1,050/566

986/530

986/530

923/495

914/490

1,085/585

1,085/585

1,112/600

1,085/585

1,112/600

1,112/600

N/A

N/A

N/A

N/A

N/A

N/A

N/A

1,066/574

1,085/585

1,112/600

1,058/570

1,085/585

1,112/600

STF-D200


3PRH 2,400/165

3PRH 2,685/185

3PRH 2,685/185

3PRH 2,685/185

STF-A250

STF-A250

STF-A250

STF-D200

STF-D200

STF-D200

STF-D650

STF-D650

STF-D650

STF-D650

Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen


Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen

TABLE OF CONTENTS

STF-D650

3PRH 2,685/185


1.)Rampratesare Fast RampviaAGC. 2.)Starttimesrecognizepurgecredit .Turninggeartofullspeed,full loadandsynchronizedtogrid.Peakingmaintenancefactorsmayapplydependingontheoperatingprofile. 3.)Starttimesarebasedonrapidresponsetechnologiesinhotstartconditio nswithpurgecreditrecognized.Simultaneousstartsequenceofgasturbinemayapply dependingonexactprojectconfiguratio ns. NOTE:All ratingsare net plant, based onISO conditionsand natural gasfuel. Actual performance will vary withproject specific conditionsand fuel. All performance figuresbased onOnce-Throughcondenserwith1.2” Hga condenserpressure. 2PNRH = Two pressure, non-reheat;3PRH = Three pressure,reheat.

106

23.8

17

StartupTime, Conventional/Peaking(Min.)2

w o P

23.5

Number of Compressor Stages

Wobbe Variation (%)


19.5

9HA.02

Number of Combustor Cans

CO(ppm)at Min. Turndownw/oAbatement

t e n c a n l a P m C r C o f 1 x r e 1 P

50 Hz

6F.01

Compression Pressure Ratio (X:1)

s r e t e m a r a P e n i b r u T s a G

50 Hz

6B.03

STF-D650

107



TECHNICAL DATA HEAVY DUTY GAS TURBINES 50/60 Hz (Geared)


6F.03

9E.03

9E.04

GT13E2 2005

GT13E2 2012

9F.03

9F.04

9F.05

9F.06

9HA.01

44

54

82

132

145

185

203

265

287

314

359

446

544


10,180

8,880

9,420

9,860

9,210

9,027

8,980

9,020

8,810

8,930

8,146

7,910

7,766


10,741

9,369

9,939

10,403

9,717

9,524

9,474

9,517

9,295

9,422

8,595

8,346

8,194


33.5%

38.4%

36.2%

34.6%

37.0%

37.8%

38.0%

37.8%

38.7%

38.2%

41.9%

43.1%

43.9%

12.7

21.4

16.4

13.1

13.3

16.9

18.2

16.7

16.9

18.3

Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen

SC Net Output (MW)


10

6

6

14

14

72 (EV burners)

48 (AEV burners)

18

18

18

16

16

16

12

18

17

17

21

16

18

18

14

14

14

14


3

3

3

3

4

5

5

3

3

3

4

4

4


1,023

1,117

1,123

1,012

1,007

941

934

1,104

1,151

1,184

1,132

1,164

1,177


551

603

606

544

542

505

501

596

622

640

611

629

636


290

280

477

828

818

1,055

1,155

1,458

1,524

1,700

1,700

2,009

2,372


306

296

503

874

863

1,113

1,219

1,538

1,608

1,794

1,794

2,120

2,503


50%

40%

52%

35%

35%

30%

30%

35%

35%

35%

38%

30%

30%


20

12

7

50

16

12/25

14/36/68

22

23

24

65

65

88


4

25

15

5

15

25

15

15

15

25

15

25

25

CC Net Output (MW)

9

9

25

25

80

25

24

24

24

9

9

9

+/-10%

+10%, -15%

>+/-30%

>+/-30%

+/-20%

+/-20%

+/-15%

+/-15%

+/-10%

+/-15%

+/-15%

+/-15%

12/10

12/10

29/-

30/10

30/10

25/15

25/15/10

23/20

23/20

23/20

23/12

23/

23/

68

81

125

204

215

264

289

409

432

493

532

659

804 5,373

6,619

5,916

6,093

6,399

6,210

6,209

6,206

5,792

5,692

5,619

5,489

5,383


6,984

6,242

6,428

6,751

6,552

6,551

6,548

6,111

6,006

5,928

5,791

5,679

5,669


51.5%

57.7%

56.0%

53.3%

54.9%

55.0%

55.0%

58.9%

59.9%

60.7%

62.2%

63.4%

63.5%

59%

49%

60%

45%

46%

39%

39%

46%

45%

46%

49%

38%

38%

20

12

7

50

16

12

14

22

22

24

65

65

88

30

30

45

38

38

80

80

30

30

30

<30

<30

<30



C C 1 x 2

25 >+/-30%



s e r u t a e F t n a l P r e w o P

23.8

17



23.5


Wobbe Variation (%)

s e r u t a e F t n a l P r e w o P C C 1 x 1

19.5

9HA.02



t e n c a n l a P C m r C o f 1 r x e 1 P

50 Hz

6F.01



50 Hz

6B.03

3


2PNRH

3PNRH

3PNRH

2PNRH

2PNRH

2PNRH

2PNRH

3PRH


1,015/70

1,740/120

1,740/120

1,085/75

1,085/75

1,088/75

1,088/75

2,400/165


1,004/540

1,050/566

1,050/566

986/530

986/530

923/495

914/490

1,080/582

1,085/585

1,112/600

1,085/585

1,112/600

1,112/600

N/A

N/A

N/A

N/A

N/A

N/A

N/A

1,058/570

1,085/585

1,112/600

1,058/570

1,085/585

1,112/600

STF-A200

STF-D650

STF-D650


3PRH 2,400/165

3PRH 2,685/185

3PRH 2,685/185

3PRH

2,685/185

3PRH 2,685/185

STF-A250

STF-A250

STF-A250

STF-A200

STF-A200

STF-A200

STF-D650

STF-D650

STF-D650

STF-D650


Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Water

Water


Air

Air

Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Water

Water

CC Net Output (MW)

137

163

252

410

433

530

581

819

866

989

1,067

1,320

1,613


6,557

5,865

6,039

6,353

6,169

6,186

6,178

5,779

5,676

5,603

5,476

5,373

5,314


6,918

6,188

6,372

6,703

6,509

6,527

6,518

6,097

5,989

5,911

5,777

5,669

5,606


52.0%

58.2%

56.5%

53.7%

55.3%

55.2%

55.2%

59.0%

60.1%

60.9%

62.3%

63.5%

63.7%

28%

24%

29%

22%

22%

19%

19%

22%

22%

23%

23%

18%

18%


40

24

13

100

25

24

28

44

44

48

130

130

176


30

30

35

38

38

80

80

39

39

39

<30

<30

<30



2PNRH

3PNRH

3PNRH

2PNRH

2PNRH

2PNRH

2PNRH

3PRH


1,015/70

1,740/120

1,740/120

1,085/75

1,085/75

1,088/75

1,160/80

2,400/165


1,004/540

1,050/566

1,050/566

986/530

986/530

923/495

914/490

1,085/585

1,085/585

1,112/600

1,085/585

1,112/600

1,112/600

N/A

N/A

N/A

N/A

N/A

N/A

N/A

1,066/574

1,085/585

1,112/600

1,058/570

1,085/585

1,112/600

STF-D200


3PRH 2,400/165

3PRH 2,685/185

3PRH 2,685/185

3PRH 2,685/185

STF-A250

STF-A250

STF-A250

STF-D200

STF-D200

STF-D200

STF-D650

STF-D650

STF-D650

STF-D650


Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen


Air

Air

Air

Air

Air

Air

Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen


106

STF-D650

3PRH 2,685/185

STF-D650

TABLE OF

107

CONTENTS



TECHNICAL DATA HEAVY DUTY GAS TURBINES (cont.) 60 Hz


7E.03

7F.04

7F.05

7F.06

7HA.01

91

198

241

271

289

372


10,060

8,840

8,570

8,179

8,150

8,020


10,614

9,327

9,042

8,629

8,599

8,462


33.9%

38.6%

39.8%

41.7%

41.9%

42.5%

SC Net Output (MW)

Compression Pressure Ratio (X:1) GT Generator Type (Cooling)


w o P C C 1 x 2

21.6

23.1

Hydrogen

Hydrogen

Hydrogen

14

14

12

12

12

18

14

14

14

14


3

3

3

4

4

4


1,026

1,151

1,189

1,094

1,161

1,181


552

622

643

590

627

638


592

1,059

1,335

1,287

1,368

1,721


624

1,117

1,329

1,358

1,443

1,816


35%

49%

43%

30%

25%

30%


40

30

40

55

55

50


4

9

12

9

25

25


25

9

9

9

9

9

>+/-30%

+/-7.5%

+/-7.5%

+/-7.5%

+/-10%

+/-10%

23/10

21/11

21/11

21/10

21/10

21/10

142

305

376

396

436

560

6,505

5,715

5,660

5,574

5,497

5,408


6,863

6,030

5,972

5,881

5,799

5,706


52.5%

59.7%

60.3%

61.2%

62.1%

63.1% 38%

45%

58%

48%

36%

33%


40

30

40

55

55

50


35

28

25

<30

<30

<30


2PNRH

3PRH

3PRH

3PRH

3PRH

3PRH


1,149/80

1,755/121

2,285/158

2,105/145

2,610/180

2,685/185


1,004/540

1,085/585

1,085/585

1,070/577

1,085/585

1,112/600

N/A

1,085/585

1,085/585

1,060/571

1,085/585

1,085/585

STF-A200

STF-D650

STF-D650

STF-D650

STF-D650

STF-D650


Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen


Air

Air

Air

Air

Air

Hydrogen

CC Net Output (MW)

287

615

756

797

877

1,122

6,439

5,676

5,640

5,548

5,466

5,398





22.1

Hydrogen

10



18.6

Hydrogen

17

CC Net Output (MW)

w o P C C 1 x 1

16.7

Air




13.0


Wobbe Variation (%)

t e n c a n l a P m C r C o f 1 x r e 1 P


6,793

5,989

5,972

5,854

5,767

5,695


53.0%

60.1%

60.3%

61.5%

62.4%

63.2%

22%

27%

24%

17%

15%

18%


80

60

80

110

110

100


35

28

25

<30

<30

<30

2PNRH

3PRH

3PRH

3PRH

3PRH

3PRH


1,149/80

2,400/165

2,400/165

2,400/165

2,610/180

2,685/185


1,004/540

1,085/585

1,085/585

1,070/577

1,085/585

1,112/600

N/A

1,085/585

1,085/585

1,060/571

1,085/585

1,085/585

STF-A200

STF-D650

STF-D650

STF-D650

STF-D650

STF-D650


Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen


Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen





108

7HA.02

TABLE OF CONTENTS

109



TECHNICAL DATA HEAVY DUTY GAS TURBINES (cont.) 60 Hz 7E.03

7F.04

7F.05

7F.06

7HA.01

91

198

241

271

289

372


10,060

8,840

8,570

8,179

8,150

8,020


10,614

9,327

9,042

8,629

8,599

8,462


33.9%

38.6%

39.8%

41.7%

41.9%

42.5%

SC Net Output (MW)



13.0

16.7

18.6

22.1

21.6

23.1

Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen



7HA.02


10

14

14

12

12

12


17

18

14

14

14

14


3

3

3

4

4

4


1,026

1,151

1,189

1,094

1,161

1,181


552

622

643

590

627

638


592

1,059

1,335

1,287

1,368

1,721


624

1,117

1,329

1,358

1,443

1,816


35%

49%

43%

30%

25%

30%


40

30

40

55

55

50


4

9

12

9

25

25


25

9

9

9

9

9

>+/-30%

+/-7.5%

+/-7.5%

+/-7.5%

+/-10%

+/-10%

23/10

21/11

21/11

21/10

21/10

21/10

142

305

376

396

436

560

6,505

5,715

5,660

5,574

5,497

5,408

Wobbe Variation (%) StartupTime, Conventional/Peaking(Min.)2 CC Net Output (MW) CC Net Heat Rate (Btu/kWh, LHV) t e n c a n l a P C m r C o f 1 r x e 1 P



6,863

6,030

5,972

5,881

5,799

5,706


52.5%

59.7%

60.3%

61.2%

62.1%

63.1% 38%

45%

58%

48%

36%

33%


40

30

40

55

55

50


35

28

25

<30

<30

<30


2PNRH

3PRH

3PRH

3PRH

3PRH

3PRH


1,149/80

1,755/121

2,285/158

2,105/145

2,610/180

2,685/185


1,004/540

1,085/585

1,085/585

1,070/577

1,085/585

1,112/600

N/A

1,085/585

1,085/585

1,060/571

1,085/585

1,085/585

STF-A200

STF-D650

STF-D650

STF-D650

STF-D650

STF-D650


Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen


Air

Air

Air

Air

Air

Hydrogen

CC Net Output (MW)

287

615

756

797

877

1,122

6,439

5,676

5,640

5,548

5,466

5,398



CC Net Heat Rate (Btu/kWh, LHV) t e n c a n l a P C m r C o f 1 x r e 2 P



6,793

5,989

5,972

5,854

5,767

5,695


53.0%

60.1%

60.3%

61.5%

62.4%

63.2%

22%

27%

24%

17%

15%

18%


80

60

80

110

110

100


35

28

25

<30

<30

<30

2PNRH

3PRH

3PRH

3PRH

3PRH

3PRH


1,149/80

2,400/165

2,400/165

2,400/165

2,610/180

2,685/185


1,004/540

1,085/585

1,085/585

1,070/577

1,085/585

1,112/600

N/A

1,085/585

1,085/585

1,060/571

1,085/585

1,085/585

STF-A200

STF-D650

STF-D650

STF-D650

STF-D650

STF-D650


Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen


Air

Hydrogen

Hydrogen

Hydrogen

Hydrogen

Hydrogen





108

TABLE OF

109

CONTENTS



TECHNICAL DATA AERODERIVATIVE GAS TURBINES TM2500 Frequency ISO Base Rating (MW) g n i t a R e n i b r u T s a G


t e n c a n l P a C m r C o f 1 r x e 2 P


LM2500 DLE 60

50

LM2500+ 60

50

LM2500+ DLE 60

50

LM2500+ G4 60

50

LM2500+ G4 DLE 60

50

60

34.3

37.1

23.8

24.8

22.4

23.2

30.0

31.8

31.1

31.9

34.5

37.1

33.4

34.5

9,171

10,053

9,729

9,626

9,317

9,624

9,252

9,169

8,785

9,676

9,171

9,166

8,709

Gross Heat Rate (kJ/kWh, LHV)

10,197

9,676

10,606

10,265

10,156

9,830

10,154

9,761

9,674

9,269

10,209

9,676

9,671

9,188

Gross Efficiency (%, LHV)

35.3%

37.2%

33.9%

35.1%

35.4%

36.6%

35.5%

36.9%

37.2%

38.8%

35.3%

37.2%

37.2%

39.2%


962.7

950.0

986

977

1,017

1,002

920

914

1,003

978

966

950

1,026

995


517.1

510.0

530

525

547

539

493

490

539

525

519

510

552

535

187

185

141

139

137

134

164

162

175

168

188

185

188

179


197

195

149

147

145

142

173

171

185

177

198

195

199

189


24.5

24.7

19.0

19.0

18.1

18.0

23.1

23.1

23.6

23.1

24.6

24.7

24.0

23.6


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air


17

17

16

16

16

16

17

17

17

17

17

17

17

17


6

6

6

6

6

6

6

6

6

6

6

6

6

6

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%

GT Turndown Minimum Load (%) GT Ramp Rate (MW/min) NOx (ppmvd) at Baseload (@15% O2)

30

30

30

25

25

CO(ppm) (@15% O2)1

15/275

15/275

250/2

Wobbe Variation (%)

+/-20%

+/-20%

10

10

33.6

SC Net Output (MW)

25

30

30

30

30

30

30

30

30

30

30

15

15

25

25

25

25

25

25

25/25

25/25

250/250

250/250

25/25

25/25

250/275

250/275

25/25

25/25

+/-20%

+/-20%

+/-25%

+/-25%

+/-20%

+/-20%

+/-25%

+/-25%

+/-20%

+/-20%

+/-25%

+/-25%

10

10

10

10

10

10

10

10

10

10

10

10

35.9

23.1

24.1

21.8

22.7

29.3

31.0

30.1

30.6

33.6

36.2

32.5

33.6

9,338

8,988

9,870

9,348

9,352

25

9,794

9,330

10,265

9,920

9,835

9,501

9,826


10,333

9,844

10,830

10,466

10,376

10,024

10,367

9,973

9,852

9,482

10,413

9,862

9,867

9,387


34.8%

36.6%

33.2%

34.4%

34.7%

35.9%

34.7%

36.1%

36.5%

38.0%

34.6%

36.5%

36.5%

38.4%


9,453

25

30

25 250/ 2


CC Net Output (MW) t e n c a n l P a C m r C o f 1 r x e 1 P

50

9,665

Startup Time (Hot, Minutes) e c t n n a a l m P r o C f S r e P

LM2500 60

Gross Heat Rate (Btu/kWh, LHV)



50

8,897

48.4

50.5

34.2

35.0

32.8

33.2

41.5

43.0

44.0

43.9

48.2

50.3

47.7

47.7

6,851

6,703

6,943

6,844

6,533

6,456

6,931

6,809

6,384

6,299

6,884

6,729

6,343

6,239


7,229

7,072

7,325

7,221

6,892

6,811

7,312

7,184

6,736

6,645

7,263

7,099

6,693

6,583


49.8%

50.9%

49.1%

49.9%

52.2%

52.9%

49.2%

50.1%

53.4%

54.2%

49.6%

50.7%

53.8%

54.7%

35%

36%

34%

34%

33%

34%

35%

36%

34%

35%

35%

36%

34%

35% 30

Plant Turndown – Minimum Load (%) Ramp Rate (MW/min)

30

30

30

30

30

30

30

30

30

30

30

30

30

Startup Time (Hot, Minutes)

30

30

30

30

30

30

30

30

30

30

30

30

30

30

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

Bottoming Cycle Type Condenser Type

1.2

1.2

O nc e- Th ro ug h 1.2

O nc e- Th ro ug h

Condenser Pressure (in.Hga)

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2


900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1


930/499

915/490

950/510

942/505

983/528

968/520

885/474

880/471

962/517

945/507

930/499

915/490

990/532

962/517

1.2

ST Configuration (Type)

—

—

—

—

—

—

—

—

—

—

—

—

—

—


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air Air


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

CC Net Output (MW)

97.2

101.3

68.6

70.2

65.8

66.6

83.2

86.3

88.2

88.2

96.8

100.9

95.7


6,827

6,681

6,916

6,819

6,507

6,431

6,907

6,787

6,361

6,277

6,860

6,707

6,320

6,218


7,203

7,049

7,297

7,195

6,865

6,785

7,287

7,161

6,711

6,622

7,238

7,076

6,668

6,560


50.0%

51.1%

49.3%

50.0%

52.4%

53.1%

49.4%

50.3%

53.6%

54.4%

49.7%

50.9%

54.0%

54.9%

35%

35%

17%

17%

17%

17%

18%

18%

17%

17%

17%

18%

17%

18%

Ramp Rate (MW/min)

60

60

60

60

60

60

60

60

60

60

60

60

60

60


30

30

30

30

30

30

30

30

30

30

30

30

30


Bottoming Cycle Type Condensor Type

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

1.2

1.2

2PNRH O nc e- Th ro ug h 1.2

95.7

30 2PNRH O nc e- Th ro ug h


1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2


900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

1.2


942/505

983/528

968/520

945/507

930/499

915/490

990/532

962/517

930/499

915/490

950/510

885/474

880/471

962/517


—

—

—

—

—

—

—

—

—

—

—

—

—

—


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

1.)At baseload/minimumturndownwithoutabatement 2.)Consult GE for project-specific data NOTE: Gasturbine ratingsare at the generatorterminals;15˚C(59˚F), 60% relative humidity;unity powerfactor, natural gas, inlet, and exhaust lossesexcluded. Plant ratingsare on anet plant basis;15˚C(59˚F), 60% relative humidity;0.8 power factor, natural gas, inlet, and exhaust losses included. Actual performance will vary withproject-specific conditionsand fuel. 2PNRH = Two pressure, non-reheat.

110

TABLE OF CONTENTS

111



TECHNICAL DATA AERODERIVATIVE GAS TURBINES TM2500 Frequency ISO Base Rating (MW) g n i t a R e n i b r u T s a G



w o P C C 1 x 1



LM2500+

LM2500+ DLE

LM2500+ G4

LM2500+ G4 DLE

50

60

50

60

50

60

50

60

50

60

50

60

34.3

37.1

23.8

24.8

22.4

23.2

30.0

31.8

31.1

31.9

34.5

37.1

33.4

34.5

9,665

9,171

10,053

9,729

9,626

9,317

9,624

8,785

9,676


10,197

9,676

10,606

10,265

10,156

9,830

10,154

9,761

9,674

9,269

10,209

9,676

9,671

9,188


35.3%

37.2%

33.9%

35.1%

35.4%

36.6%

35.5%

36.9%

37.2%

38.8%

35.3%

37.2%

37.2%

39.2%


962.7

950.0

986

977

1,017

1,002

920

914

1,003

978

966

950

1,026

995


517.1

510.0

530

525

547

539

493

490

539

525

519

510

552

535

9,252

9,169

9,171

9,166

8,709

179


187

185

141

139

137

134

164

162

175

168

188

185

188


197

195

149

147

145

142

173

171

185

177

198

195

199

189


24.5

24.7

19.0

19.0

18.1

18.0

23.1

23.1

23.6

23.1

24.6

24.7

24.0

23.6


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air


17

17

16

16

16

16

17

17

17

17

17

17

17

17


6

6

6

6

6

6

6

6

6

6

6

6

6

6

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%

50%


30

30

30

30

25

25

CO(ppm) (@15% O2)1

15/275

15/275

250/2

Wobbe Variation (%)

+/-20%

+/-20%

+/-20%

SC Net Output (MW)

25

30

30

30

30

30

30

30

30

30 25

30

25

15

15

25

25

25

25

25

25

250/ 2

25/25

25/25

250/250

250/250

25/25

25/25

250/275

250/275

25/25

25/25

+/-20%

+/-25%

+/-25%

+/-20%

+/-20%

+/-25%

+/-25%

+/-20%

+/-20%

+/-25%

+/-25%

25

10

10

10

10

10

10

10

10

10

10

10

10

10

10

33.6

35.9

23.1

24.1

21.8

22.7

29.3

31.0

30.1

30.6

33.6

36.2

32.5

33.6 8,897


9,794

9,330

10,265

9,920

9,835

9,501

9,826

9,453

9,338

8,988

9,870

9,348

9,352


10,333

9,844

10,830

10,466

10,376

10,024

10,367

9,973

9,852

9,482

10,413

9,862

9,867

9,387


34.8%

36.6%

33.2%

34.4%

34.7%

35.9%

34.7%

36.1%

36.5%

38.0%

34.6%

36.5%

36.5%

38.4%

48.4

50.5

34.2

35.0

32.8

33.2

41.5

43.0

44.0

43.9

48.2

50.3

47.7

47.7

6,851

6,703

6,943

6,844

6,533

6,456

6,931

6,809

6,384

6,299

6,884

6,729

6,343

6,239

CC Net Output (MW) t e n c a n l P a m C r C o f 1 r x e 1 P

LM2500 DLE

60



LM2500

50

CC Net Heat Rate (Btu/kWh, LHV) CC Net Heat Rate (kJ/kWh, LHV)

7,229

7,072

7,325

7,221

6,892

6,811

7,312

7,184

6,736

6,645

7,263

7,099

6,693

6,583


49.8%

50.9%

49.1%

49.9%

52.2%

52.9%

49.2%

50.1%

53.4%

54.2%

49.6%

50.7%

53.8%

54.7%

35%

36%

34%

34%

33%

35%


34%

35%

36%

34%

35%

35%

36%

34%

Ramp Rate (MW/min)

30

30

30

30

30

30

30

30

30

30

30

30

30


30

30

30

30

30

30

30

30

30

30

30

30

30

30

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH


30

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h


1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

O nc e- Th ro ug h


900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1


930/499

915/490

950/510

942/505

983/528

968/520

885/474

880/471

962/517

945/507

930/499

915/490

990/532

962/517

1.2


—

—

—

—

—

—

—

—

—

—

—

—

—

—


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air Air


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

CC Net Output (MW)

97.2

101.3

68.6

70.2

65.8

66.6

83.2

86.3

88.2

88.2

96.8

100.9

95.7

95.7

6,827

6,681

6,916

6,819

6,507

6,431

6,907

6,787

6,361

6,277

6,860

6,707

6,320

6,218

CC Net Heat Rate (Btu/kWh, LHV) CC Net Heat Rate (kJ/kWh, LHV)

7,203

7,049

7,297

7,195

6,865

6,785

7,287

7,161

6,711

6,622

7,238

7,076

6,668

6,560


50.0%

51.1%

49.3%

50.0%

52.4%

53.1%

49.4%

50.3%

53.6%

54.4%

49.7%

50.9%

54.0%

54.9%

35%

35%

17%

17%

17%

17%

18%

18%

17%

17%

17%

18%

17%

18% 60

Plant Turndown – Minimum Load (%) Ramp Rate (MW/min)

60

60

60

60

60

60

60

60

60

60

60

60

60


30

30

30

30

30

30

30

30

30

30

30

30

30

30

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

O nc e- Th ro ug h

Bottoming Cycle Type Condensor Type

1.2

1.2

O nc e- Th ro ug h 1.2

O nc e- Th ro ug h


1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2

1.2


900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1


930/499

915/490

950/510

942/505

983/528

968/520

885/474

880/471

962/517

945/507

930/499

915/490

990/532

962/517

1.2


—

—

—

—

—

—

—

—

—

—

—

—

—

—


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air


Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

Air

1.)At baseload/minimumturndownwithoutabatement 2.)Consult GE for project-specific data NOTE: Gasturbine ratingsare at the generatorterminals;15˚C(59˚F), 60% relative humidity;unity powerfactor, natural gas, inlet, and exhaust lossesexcluded. Plant ratingsare on anet plant basis;15˚C(59˚F), 60% relative humidity;0.8 power factor, natural gas, inlet, and exhaust losses included. Actual performance will vary withproject-specific conditionsand fuel. 2PNRH = Two pressure, non-reheat.

TABLE OF

110

111

CONTENTS



TECHNICAL DATA AERODERIVATIVE GAS TURBINES (cont.) Frequency g n i t a R e n i b r u T s a G



50/60

2

3

60

56/59

45/50

53/57

115

118

8,524

8,097

8,175

7,869

7,743


8,924

8,993

8,543

8,625

8,302

8,169


40.3%

40.0%

42.1%

41.7%

43.4%

44.1%


824

879

861

932

792

777


440

470

461

500

422

414


207

250

208

244

360


218

263

219

258

380

373


29.6

33.5

29.8

32.1

42.5

42.5


Air

Air

Air

Air

Air

Air


19

19

19

19

20

20


7

7

7

7

9

9

25%

25%

50%

50%

15%

15%


50

50

50

50

50

353

50

25

25

15

25

25

25

CO(ppm) (@15% O2)1

89/150

94/150

25/70

25/25

95/250

95/250

Wobbe Variation (%)

+/-20%

+/-20%

+/-25%

+/-25%

+/-20%

+/-20%

5

5

5

5

8

8

112

115

SC Net Output (MW) SC Net Heat Rate (Btu/kWh, LHV)

2

45/50

8,651

2

55/57

8,692

2

3

44/49

51/55

8,281

8,346

8,007

7,887


9,127

9,170

8,737

8,805

8,448

8,321


39.4%

39.3%

41.2%

40.9%

42.6%

43.3%

CC Net Output (MW)

59/662

73/762

58/642

70/743

135

137


6,573

6,535

6,179

6,105

6,633

6,606


6,935

6,895

6,520

6,441

6,998

6,970


51.9%

52.2%

55.2%

55.9%

51.4%

51.7%

19%

19%

37%

37%

13%

13%

Ramp Rate (MW/min)

50

50

50

50

50

50


30

30

30

30

30

30

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

Once-Through

Once-Through

Once-Through

Once-Through

Once-Through


Once-Through


1.2

1.2

1.2

1.2

1.2

1.2


900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1


788/420

843/450

827/442

897/481

756/402

747/397


—

—

—

—

—

—


Air

Air

Air

Air

Air

Air


Air

Air

Air

Air

Air

Air

118/1332

146/1532

117/1292

140/1493

271

275

6,555

6,516

6,161

6,085

6,614

6,587


6,916

6,874

6,500

6,420

6,978

6,950


52.1%

52.4%

55.4%

56.1%

51.6%

51.8%


19%

19%

19%

18%

6%

6%

Ramp Rate (MW/min)

100

100

100

100

100

100

Startup Time (Hot, Minutes) Bottoming Cycle Type Condensor Type

30

30

30

30

30

30

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

Once-Through

Once-Through

Once-Through

Once-Through

Once-Through

Once-Through


1.2

1.2

1.2

1.2

1.2

1.2


900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1


747/397

788/420

843/450

827/442

897/481

756/402


—

—

—

—

—

—


Air

Air

Air

Air

Air

Air


Air

Air

Air

Air

Air

Air

1.)At baseload/minimumturndownwithoutabatement 2.)Output withSPRINT NOTE: Gasturbine ratingsare at the generatorterminals;15˚C(59˚F), 60% relative humidity;unity powerfactor, natural gas, inlet, and exhaust lossesexcluded. Plant ratingsare on anet plant basis;15˚C(59˚F), 60% relative humidity;0.8 power factor, natural gas, inlet, and exhaust lossesincluded. Actual performance will vary withproject-specific conditionsand fuel. 2PNRH = Two pressure, non-reheat.

112

LMS100 50

8,458


r s e e r w u o t P a e C F C t 1 n a x l 2 P

LM6000 DLE (57)

50/60

2

46/52

Condenser Type


LM6000 DLE (50)

50/60

2


Bottoming Cycle Type r s e e r w u o t P a e C F C t n 1 a x l 1 P

LM6000 (59)

50/60

ISO Base Rating (MW)


LM6000 (52)

3.)Sprint flowat 37 gpm

TABLE OF CONTENTS

113



TECHNICAL DATA AERODERIVATIVE GAS TURBINES (cont.) Frequency ISO Base Rating (MW) g n i t a R e n i b r u T s a G

LM6000 (59)

LM6000 DLE (50)

LM6000 DLE (57)

50/60

50/60

50/60

50/60

2

2

2

3

46/52



LM6000 (52)

8,458

7,869

7,743

8,993

8,543

8,625

8,302

8,169

40.0%

42.1%

41.7%

43.4%

44.1%


824

879

861

932

792

777


440

470

461

500

422

414


207

250

208

244

360

353


218

263

219

258

380

373


29.6

33.5

29.8

32.1

42.5

42.5


Air

Air

Air

Air

Air

Air


19

19

19

19

20

20


7

7

7

7

9

9

25%

25%

50%

50%

15%

15%

50

50

50

50

50

50

25

25

15

25

25

25

CO(ppm) (@15% O2)1

89/150

94/150

25/70

25/25

95/250

95/250

Wobbe Variation (%)

+/-20%

+/-20%

+/-25%

+/-25%

+/-20%

+/-20%

5

5

5

5

8

8

45/502

55/572

44/492

51/553

112

115


8,651

8,692

8,281

8,346

8,007

7,887


9,127

9,170

8,737

8,805

8,448

8,321

42.6%

43.3%

SC Net Output (MW)


39.4%

39.3%

41.2%

40.9%

CC Net Output (MW)

59/662

73/762

58/642

70/743

135

137


6,573

6,535

6,179

6,105

6,633

6,606


6,935

6,895

6,520

6,441

6,998

6,970


51.9%

52.2%

55.2%

55.9%

51.4%

51.7%

19%

19%

13%


37%

37%

13%

Ramp Rate (MW/min)

50

50

50

50

50


30

30

30

30

30

30

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH Once-Through


50

Once-Through

Once-Through

Once-Through

Once-Through

Once-Through


1.2

1.2

1.2

1.2

1.2

1.2


900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1


788/420

843/450

827/442

897/481

756/402

747/397


—

—

—

—

—

—


Air

Air

Air

Air

Air

Air

ST Generator Type (Cooling) CC Net Output (MW) CC Net Heat Rate (Btu/kWh, LHV)

Air

Air

Air

Air

Air

Air

118/1332

146/1532

117/1292

140/1493

271

275

6,555

6,516

6,161

6,085

6,614

6,587


6,916

6,874

6,500

6,420

6,978

6,950


52.1%

52.4%

55.4%

56.1%

51.6%

51.8%


19%

19%

19%

18%

6%

6%

Ramp Rate (MW/min)

100

100

100

100

100

100

Startup Time (Hot, Minutes) Bottoming Cycle Type Condensor Type r s e e r w u o t a P e C F C t n 1 a x l 2 P

8,175

118

8,924



8,097

60

115

40.3%


r s e e r w u o t P a e C F C t 1 n a x l 1 P

8,524

53/57


GT Ramp Rate (MW/min)

t e n c a n l P a m C r C o f 1 r x e 1 P

45/50



e c t n n a a l m P r o C f S r e P

56/59

LMS100 50

30

30

30

30

30

30

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

2PNRH

Once-Through

Once-Through

Once-Through

Once-Through

Once-Through

Once-Through


1.2

1.2

1.2

1.2

1.2

1.2


900/62.1

900/62.1

900/62.1

900/62.1

900/62.1

900/62.1


788/420

843/450

827/442

897/481

756/402

747/397


—

—

—

—

—

—


Air

Air

Air

Air

Air

Air


Air

Air

Air

Air

Air

Air

1.)At baseload/minimumturndownwithoutabatement 2.)Output withSPRINT NOTE: Gasturbine ratingsare at the generatorterminals;15˚C(59˚F), 60% relative humidity;unity powerfactor, natural gas, inlet, and exhaust lossesexcluded. Plant ratingsare on anet plant basis;15˚C(59˚F), 60% relative humidity;0.8 power factor, natural gas, inlet, and exhaust lossesincluded. Actual performance will vary withproject-specific conditionsand fuel. 2PNRH = Two pressure, non-reheat.

112

3.)Sprint flowat 37 gpm

TABLE OF

113

CONTENTS



TECHNICAL DATA COMBINED CYCLE STEAM TURBINES

TECHNICAL DATA GENERATORS

General Gas Turbine to Steam Turbine Combined Cycle Configuration – Utility Portfolio

MW Gas Turbine

STF-D650

Low Pex (~1.5 in Hg/0.05 bar)

190–605

530–180

F-Class • H-Class

H-Class SS

O&G/IST

Steam Turbine

STF-A650

STF-D600 or STF-D650

HIGH Pex (~3.0 in Hg/0.1 bar) 1x9F.05 2x9F.05 1x9HA.01

2x9HA.05 1x9HA.02 2x9HA.05 1x7F.05 2x7F.05 1x7HA.01 2x7HA.01 1x7HA.02 2x7HA.02 3x7HA.02

100

30–320 LM/TM • 6B • LMS/E&F-Class

200

300

400 STEAM TURBINE OUTPUT (MW)

500

600

700

60 Hz portfolio steam turbine output range extended for common use of duct firing

A200 • A450 • D200 • A650 • D650 Frequency

Coal & Nuclear

Model

MVA

Frequency

Model

MVA

Model

A04

45

50/60

H35

282

60

W82

676/714

MVA

Frequency 50/60

A22

69

50/60

H53

351/408

50/60

W84

764/806

50/60

A24

85

50/60

H65

415/438

50/60

W86

915

50

A26

108/115

50/60

H76

580

50

W88

1,060

50

A30

57/63

50/60

H78

710

50

W90

780

50

A32

81

50

H82

500/590

50/60

W92

1,111

50

A34

105

50

H84

585/690

50/60

W94

1,200

A36

122

60

50

W96

1,377

50 50

A38

165

50

W98

1,535

A42

147/161

50/60

W100

1,411

50

A44

200

50/60

W102

2,235

50

A62

305

60

A63

345

60

A70

236/235

50/60

A75

315

50

A78

400

50 Alternate configurations are available upon customer request.

General Gas Turbine to Steam Turbine Combined Cycle Configuration – Intermediate Portfolio STF-D200/STF-D650

Low Pex (~1.5 in Hg/0.05 bar) STF-A200/STF-A650

STF-A100

STF-A200/STF-A650

HIGH P ex (~3.0 in Hg/0.1 bar)

1xLM6000 1x6B 1x6F.01 2xLM6000 2x6B 1x6F.03 2x6F.01 3x6F.01 2x6F.03 3x6F.03 1x9E 1xGT13E2 2x9E 2xGT13E2 1x7E 2x7E

3x7E

0

50

Geared Gas Turbine

114

100 STEAM TURBINE OUTPUT (MW) 50 Hz Portfolio

150

4x7E

200

60 Hz Portfolio

TABLE OF CONTENTS

115



TECHNICAL DATA COMBINED CYCLE STEAM TURBINES

TECHNICAL DATA GENERATORS

General Gas Turbine to Steam Turbine Combined Cycle Configuration – Utility Portfolio

MW Gas Turbine

STF-D650

Low Pex (~1.5 in Hg/0.05 bar)

190–605

530–180

F-Class • H-Class

H-Class SS

O&G/IST

Steam Turbine

STF-A650

STF-D600 or STF-D650

HIGH Pex (~3.0 in Hg/0.1 bar) 1x9F.05 2x9F.05 1x9HA.01

2x9HA.05 1x9HA.02 2x9HA.05 1x7F.05 2x7F.05 1x7HA.01 2x7HA.01 1x7HA.02 2x7HA.02 3x7HA.02

100

30–320 LM/TM • 6B • LMS/E&F-Class

200

300

400 STEAM TURBINE OUTPUT (MW)

500

600

700

60 Hz portfolio steam turbine output range extended for common use of duct firing

A200 • A450 • D200 • A650 • D650 Frequency

Coal & Nuclear

Model

MVA

Frequency

Model

MVA

Model

A04

45

50/60

H35

282

60

W82

676/714

MVA

Frequency 50/60

A22

69

50/60

H53

351/408

50/60

W84

764/806

50/60

A24

85

50/60

H65

415/438

50/60

W86

915

50

A26

108/115

50/60

H76

580

50

W88

1,060

50

A30

57/63

50/60

H78

710

50

W90

780

50

A32

81

50

H82

500/590

50/60

W92

1,111

50

A34

105

50

H84

585/690

50/60

W94

1,200

A36

122

60

50

W96

1,377

50 50

A38

165

50

W98

1,535

A42

147/161

50/60

W100

1,411

50

A44

200

50/60

W102

2,235

50

A62

305

60

A63

345

60

A70

236/235

50/60

A75

315

50

A78

400

50 Alternate configurations are available upon customer request.

General Gas Turbine to Steam Turbine Combined Cycle Configuration – Intermediate Portfolio STF-D200/STF-D650

Low Pex (~1.5 in Hg/0.05 bar) STF-A200/STF-A650

STF-A100

STF-A200/STF-A650

HIGH P ex (~3.0 in Hg/0.1 bar)

1xLM6000 1x6B 1x6F.01 2xLM6000 2x6B 1x6F.03 2x6F.01 3x6F.01 2x6F.03 3x6F.03 1x9E 1xGT13E2 2x9E 2xGT13E2 1x7E 2x7E

3x7E

0

50

Geared Gas Turbine

114

100 STEAM TURBINE OUTPUT (MW) 50 Hz Portfolio

150

4x7E

200

60 Hz Portfolio

TABLE OF

115

CONTENTS

POWERING THE FUTURE WITH GAS POWER SYSTEMS

116

TABLE OF CONTENTS

117

POWERING THE FUTURE WITH GAS POWER SYSTEMS

116

TABLE OF CONTENTS

117

2017 Gps Product Catalog

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