Power Systems Business Operation

Transcription

Power Systems Business Operation
May 27，2008
Yoshiaki Tsukuda
Executive Vice President,
General Manager,
Power Systems Headquarters
Global Primary Energy Consumption Forecasts by Region
Growing Energy Demand in Asia, Centering on China and India
Global CO2 emission forecasts
Source: IEEJ 2007 data
Global
Converted to oil,millions of tons
7,000
Average annual growth rate
6,000
4,000
20052005-2030
Global
1.9%
1.9%
Asia
4.5%
2.9%
North
America
1.1%
1.0%
3.2 billion
tons
Asia
North America
3,000
Asia
2005
3.2 billion tons
↓
2030
6.5 billion tons
(Up 100%)
OECD members
in Europe
2,000
1,000
1,200
2005
10.3 billion tons
↓
2030
16.5 billion tons
(Up 60%)
1,000
CO2 emissions (100 million ton)
5,000
19801980-2005
6.5 billion
tons
117 billion tons
Global emissions without
actions to control CO2
800
Advanced
countries
600
2004 data
CO2 emissions: 24.6 billion tons
CO2 concentration: 377 ppm
400
Developing
countries
74 billion tons
Developing
countries
Stabilized at 550 ppm
NonNon-OECD members
in Europe
Central/South America
Middle East
Stabilized at 480 ppm
200
Africa
0
1971 1980 1990 2000
Advanced
countries
33 billion tons
Oceania
2005 2010 2020 2030
0
1959
Eastern Europe +
former Soviet Union
1975
2000
Emissions in 2005
to become 50% of the current level
2025
2050
2075
Eastern Europe
+ former
Soviet Union
2100
Source: data prepared by quoting
IPCC forecasts
2
Demand Forecast for Major Power Generation Facilities
• Demand for GT and GTCC predicted to grow steadily at a rate of around 50GW/year.
• Demand for conventional thermal power generation facilities will decline because of the CO2 emissionｓ issue.
Nuclear power generation facilities will replace them over the long term.
• In renewable energy, demands for wind turbines and photovoltaic power generation facilities are expected to
expand rapidly.
200
North American
American GT bubble
(GW/year)
Chinese bubble
100
CC
+GT
GT
Power generation capacity growth
150
Conventional Thermal Power
Wind Power
Actual Forecast
Solar
Power
GT+GTCC
50
Conventional
Thermal Power
Hydro Power
0
2000
2005
2010
2015
Nuclear Power
2020
Other
2025
3
Activities for Efficient Energy Use and CO2 Reduction
Annual CO2 emissions worldwide
Forecasts (without further actions to control emissions)
emissions)
・ Promotion of energyenergy-saving actions
・ Reduction in fossil fuel use
・ Clean coal technology
・ Coal use as an oil substitute
・ CO2 capture and storage
・ Greater use of nuclear power and
renewable energy
・ Greater use of carboncarbon-free electricity
Annual CO2 emissions for “halving
CO2 emissions in 2050”
2050”
Present
2020
2030
2040
2050
4
MHI Portfolio for Power Generation
Coal-fired thermal
power
Nuclear Energy
GTCC
Wind turbines
Focused on existing technologies
Photovoltaic
Focused on new technologies
Business assessment
MHI activity
Stability in fuel supply
Low CO2 emissions
Relatively small environmental
load
Relatively short construction
period
Low CO2 emissions
Short construction period
Low CO2 emissions
Short construction period
High CO2 emissions
CCS Feasibility
Public acceptance Long
construction period and rise in
material cost
Secure of inexpensive fuels
Grid restriction
Need for subsidies
Site restrictions
Need for subsidies
Emergence of new technologies
Technology transfer to China
and India
Verification of IGCC technology
Orders in the United States
Production increase, anticipating
demand
Cooperation with Chinese and
South Korean manufacturers
Development of 1700ºC class gas
turbine
Production increase for the
U.S.market
Development of offshore wind
turbines
Development of proprietary thinfilm technologies
Mass production achievement
and production increase
External factors
Government policies for global warming, surge in fuel price,
soaring construction material price, electricity demand (business
conditions) and technical innovations
MHI’s strengths
• Business operations based on proprietary
technologies and management dedicated to
operation of products to satisfy electricity demand
• Company-wide responses to changes in external
factors (resource optimization)
The degree of contribution by each power generation method in
fulfilling electricity demand remain unclear.
5
Action List
Greatly expanding business scale leveraging growing global efforts
against global warming
Expanding the scale and revenue of the business by accelerating the change from
conventional thermal power to natural energy
(Accelerating the development of major products, bolstering production capacity)
Breakdown of production (sales)
The base load as a key business;
responding to coal gasification
Numbers in brackets are indexes (100 for 2007)
【95】
Secure short-term revenue by
responding
to the rapid expansion
技術、ｱﾗｲｱﾝｽでｼｪｱ拡大
of the market.
Others
【350】
Conventional
Natural energies
ｱﾌﾀｰｻｰﾋﾞｽの拡大
Increase market share through
technologies and alliances.
Expand after-sales service.
【160】
GTCC
2007
2010
2012
2007
2010
2012
Establishing a 30-unit/year
production system
Building a 36-50 unit/year production system
Developing an ultrahigh-temperature (1700ºC) gas turbine
Bolstering the after-sales services system
Establishing a 2,600MW production capacity
Establishing a 1,600MW production capacity
Developing offshore wind turbines
Considering a structure for additional
production
Establishing a 130MW production capacity
Gas
turbines
Wind
turbines
Solar cells
GTCC
Natural
energies
Domestic demonstration equipment
Developing facilities to produce
commercial equipment
Realizing overseas commercial plants
IGCC : Integrated Coal Gasification Coｍbined Cycle
IGCC
Conventional
6
Global GTCC Operations: Activities Since 2007
Order received from TGK-4 in
Russia for one M701F GT unit
M701F begins operation at Anshan
Iron & Steel in China in 2007
M251 begins operation at Lianyuan Iron
& Steel in China in 2007
Viridian M701F begins operation
in Ireland in 2007
M701D begins operation at Maanzan
Iron & Steel in China in 2007
Order received from NUON in the
Netherlands for 3 M701F GTCC systems
Order received from IUD in Hungary for
M701D BFG-burning GTCC
Order received from WDEPC
in Egypt for four M701F units
M701F begins operation at
Qianwan Power Plant
in China in 2007
M501G begins operation at PGE
in the United States in 2007
Order received from Taiyuan Iron &
Steel in China for two M251 units
Order received from Korea Western Power/KDHC
for two M501G units and two M501F units
ARAMCO in Saudi Arabia in 2007
Order received from PLN in
Indonesia for three M701F units
M701G2 begins operation in line 1
of Kawasaki Thermal Power Plant
of Tokyo Electric Power in 2007
Order received from Georgia Power in the
United States for six M501G GT units
KDHC in South Korea in 2007
M501D begins operation at
POSCO in South Korea in 2007
RPC Ratchaburi in Thailand
in 2008
Order received from Alinta in Australia
for one M701DA GT unit
M701F begins operation at Genesis
in New Zealand in 2007
M701F begins operation
at San Isidro II in Chile in 2008
M501G begins operation at
Datang plant of Taiwan Power in 2007
Average share
for the past three years
Achieving the target
share of 20%
Others, 6%
• Series of orders received from advanced countries in North America,
Europe and others for 1500ºC-class G units
MHI, 8%
Alstom, 11%
GE, 46%
Siemens,
29%
MHI
20%
• Expansion of blast furnace gas-fired GTCC from China to Europe
• Launch of marketing activities in licensed markets
• Launch of business activities in Russia and other new markets
• Expansion of the maintenance business following successive operational
launch of delivered units
7
Long-Term Plan for Increasing the Efficiency of
Thermal Power Generation
(LHV %)
75
Aiming to increase the efficiency of
thermal power generation
(iii)
(iii) GTCC
GTCC ++ SOFC
SOFC
((Natural
Natural gas)
gas)
70
(i)
(i) Ultra-high
Ultra-high Temperature
Temperature
Plant Gross Efficiency
65
60
Gas
ºC)
(1700
Gas Turbine
Turbine (1700º
(1700ºC)
(ii)
(ii) ++ (iii)
(iii)
IGCC
IGCC ++ SOFC
SOFC
(ii)
(ii) IGCC
IGCC (Coal
(Coal Gasification)
Gasification)
GTCC
GTCC
(Natural
(Natural gas)
gas)
(iii)
(iii) GTCC
GTCC ++ SOFC
SOFC
(Hybrid
(Hybrid Cycle)
Cycle)
55
(ii)
(ii) IGCC
IGCC
(iv)
(iv) Advanced
Advanced Cycles
Cycles
・・Carbon
Carbon Capture
Capture
50
45
(i)
-Temperature
(i) Ultrahigh
Ultrahigh-Temperature
Gas
c)
Gas Turbine
Turbine (1700
(1700 ººc)
USC
USC (coal)
(coal)
・・Nuclear
Nuclear Gas
(PBMR)
Gas Turbine
Turbine(PBMR)
40
1990 1995 2000 2005 2010
2015 2020
IGCC: Integrated Gasification Combined Cycle
SOFC: Solid Oxide Fuel Cell
USC:
Ultra Super critical pressure Coal-fired plant
PBMR: Pebble Bed Modular Reactor
8
Development of 1700ºC-class Gas Turbine (National Project)
EGR
➣ Completion of component development (2004 to 2008)
Air-fuel mixture
➣ Application of component technology (2008 to 2011)
Air
➣ Target of efficiency: 62% LHV or higher
(2) Higher Cooling Technologies
(3) Lower Thermal Conductivity:TBC
(5) High Loaded, High Efficiency Turbine
(6) Ultra-high Temperature Material
(1) Exhaust Gas Recirculation System
(EGR)
(4) High Pressure Ratio,
High Efficiency Compressor
2005
2010
Component
Development
(2004 to 2008)
Schedule for 1700ºC
GT development
Application of Component
Technology
(2008 to 2011)
2015 Actual Engine Design &
Development
・ Application starts with existing
lowlow-risk 1500º
1500ºC units (in 2007)
Actual Engine
Verification
CombinedCombined-cycle
power generation
When 1700ºC GTCC power generation ratio is raised to 30%,
annual CO2 emissions by Japan fall approximately 3%
・ CombinedCombined-cycle LNG power
generation of the CO2 recovery
type using EGR
9
Clean Coal Technology
<IGCC>
Approx.
Approx.11%
11%reduction
reductionin
inCO
CO22emission,
emission,
compared
with
BTG.
compared with BTG.
Demonstration plant at Nakoso in Japan
Clean Coal Power R&D Co., LTD
Features of MHI IGCC
Gasifier
(1) Air-blown gasification
HRSG
Coal
(2) Dry coal feed
(3) Water wall structure
(4) Low-calorie gas firing GT
➣ Construction Launch: Aug. 2004
➣ Demonstration Run: Sep. 2007～
Central
control room
GT/ST
Gas clean-up
facility
Nakoso
Nakoso
<Advanced cycle>
>
IGCC
IGCC with
with CO
CO22 capture
capture
Nagasaki
Takasago Tokyo
10
IGCC with CO2 Capture
➣ Coal gas is separated into CO2 and H2.
➣ Separated CO2 is captured and stored underground.
➣ H2-based gas after CO2 capture is burned with a gas turbine for generating electricity.
CO2 removal
(CO+H2O→CO2+H2)
CO2 comp.
CO2 storage
Gasifier
Coal
Underground
CO2 isolation
Gas
purification
CO2
Shift
CO2
Capture
Oxygen
Chemical
products use CO2
Steam turbine
Air
separation
Air
Air
Gus
Turbine
Stack
HRSG
System
System integration
integration including
including CO
CO22 capture
capture is
is performed
performed by
by the
the entire
entire Mitsubishi
Mitsubishi Group,
Group,
and
and verification
verification is
is conducted
conducted at
at feasible
feasible locations
locations in
in Japan
Japan and
and abroad.
abroad.
11
Clean Coal Technology
<BFG※-firing GTCC>
※Blast
Approx.
Approx.22%
22%reduction
reductionin
inCO2
CO2emission,
emission,
compared
with
BTG.
compared with BTG.
Furnace Gas
Ironworks
Coal
Blast
oven
Coke oven
Full view of 300MW plant
3,000
25
20
2,000
Output
15
Units
10
1,000
5
1990
1995
2000
2005
Year
Total plant output (MW)
Number of delivered units
30
12
Wind Turbine Business
Market growth will continue in North America in the immediate future.
MHI will expand operations in markets centering on North America.
Wind turbine market forecasts
(GW/year)
Supply record in USA
Oregon
Oregon Area
Area
Condon：
Condon： 600kW
600kW ×
× 83
83 units
units (’01)
(’01)
Combine:
Combine: 1000kW
1000kW (A)
(A) ×
× 41
41 units
units (’01)
(’01)
Klondike:
Klondike: 2400kW
2400kW ×
× 11 units(’08)
units(’08)
Total
Total 93.2MW
93.2MW 125units
125units
60
60
60
50
Tehachapi
Tehachapi California
California Area
Area
Oasis
:: 1000kW
Oasis
1000kW xx 60
60 units
units (’04)
(’04)
Mojave’99
Mojave’99 ：600kW
：600kW ×
× 30
30 units
units (’99)
(’99)
Morwind
Morwind ：600kW
：600kW ×
× 29
29 units
units (’99)
(’99)
Mogul
：500kW
Mogul
：500kW ×
× 88 units
units (’96)
(’96)
Total
Total 99.4MW
99.4MW 127
127 units
units
50
40
40
30
Wyoming
Wyoming Area
Area
Foot
Foot Creek
Creek Ⅰ：
Ⅰ： 600kW
600kW ×
× 69
69 units
units (’99)
(’99)
Foot
Foot Creek
Creek Ⅱ：
Ⅱ： 600kW
600kW ×
× 33 units
units (’99)
(’99)
Foot
Foot Creek
Creek Ⅳ：
Ⅳ： 600kW
600kW ×
× 28
28 units
units (’00)
(’00)
Rock
Rock RiverⅠ
RiverⅠ ：1000kW
：1000kW ×
× 50
50 units
units (’01)
(’01)
Total
Total 110MW
110MW 150
150 units
units
Altamont
Altamont Mesa
Mesa California
California Area
Area
Buena
Buena Vista:
Vista: 1000kW
1000kW (A)
(A) xx 38
38 units
units (’06)
(’06)
Total
Total 38MW
38MW 38
38 units
units
30
20
MPS
MPS Warehouse
Warehouse Hub
Hub
(National
(National Parts
Parts Inventory)
Inventory)
20
10
10
0
2007
Europe
欧州
2010
North
北米
America
Asia
アジア
2012
New
New Mexico
Mexico Area
Area
Caprock:
1000kW
Caprock:
1000kW (A)
(A) ×80
×80 units
units (’04)
(’04)
San
San Juan
Juan Mesa
Mesa ：1000kW
：1000kW (A)×120units
(A)×120units (’05)
(’05)
Aragonne
Aragonne Mesa:
Mesa: 1000kW
1000kW (A)
(A) xx 90
90 units
units (’06)
(’06)
Total
Total 290MW
290MW 290
290 units
units
Colorado
Colorado Area
Area
Cedar
Cedar Creek
Creek ：： 1000kW(A)
1000kW(A) ×
× 221
221 units
units (’07)
(’07)
Total
Total 221MW
221MW 221
221 units
units
Iowa
Iowa Area
Area
Century
Century &
& Intrepid
Intrepid 1000kW(A)
1000kW(A) ×
× 50
50 units
units (’05)
(’05)
Total
Total 50MW
50MW
Texas
Texas Area
Area
White
White Deer：
Deer： 1000kW
1000kW ×
× 80
80 units
units (’01)
(’01)
Brazos:
1000kW
Brazos:
1000kW (A)
(A) ×160
×160 units
units (’03)
(’03)
Sweetwater
Sweetwater :1000kW
:1000kW (A)
(A) ×135
×135 units
units (’06)
(’06)
Roscoe
:1000kW
Roscoe
:1000kW (A)
(A) ×209
×209 units
units (’08)
(’08)
Goat
Goat Mountain:1000kW
Mountain:1000kW (A)
(A) ×80
×80 units
units (’08)
(’08)
Total
664units
Total 664MW
664MW
664units
MPS
MPS Los
Los Angeles
Angeles Office
Office
(Wind
(Wind Business
Business Group)
Group)
MPS
MPS Headquarter
Headquarter
(Orlando,Florida)
(Orlando,Florida)
MPS
MPS Training
Training Center
Center and
and
National
National Parts
Parts Inventory
Inventory
(be
(be in
in the
the planning
planning stage)
stage)
Other
その他
Palm
Palm Springs
Springs California
California Area
Area
Mountain
Mountain ViewⅠ：
ViewⅠ： 600kW
600kW ×
× 74
74 units
units (’01)
(’01)
Mountain
Mountain ViewⅡ：
ViewⅡ： 600kW
600kW ×
× 37
37 units
units (’01)
(’01)
Dillon
Dillon :1000kW
:1000kW (A)
(A) ×45
×45 units
units (2007)
(2007) (’08)
(’08)
Total
156
Total 111.6MW
111.6MW
156 units
units
VienTek
VienTek Blade
Blade Factory
Factory
Supply Record in USA and M& S Organization
Total: 1877.2 MW / 1821 units (by beginning of 2008)
(Excluding 250kW turbines)
50units
50units
Texas
Texas Gulf
Gulf Area
Area (New
(New Installations
Installations ’08)
’08)
Penescal
Penescal (TPO#1):
(TPO#1): 2400kW
2400kW ×42
×42 units
units (’08)
(’08)
Penescal
Penescal (TPO
(TPO #2):
#2): 2400kW
2400kW ×42
×42 units
units (’08)
(’08)
Texas
:: 2400kW
Texas Gulf
Gulf
2400kW ×118
×118 units
units (’08)
(’08)
Total
664units
Total 485MW
485MW
664units
13
Wind Turbine Business
The 2.4 MW model has been in great demand. MHI bas been expanding production
capacity.
MHI’s production capacity
92/95m
(GW/year)
3
2.5
2
1.5
Outline of 2.4MW model
1
0.5
0
2007
2010
2012
Rated output
2.4MW
Rotor diameter
92m/95m
Hub height
70m/80m
Pitch control
Individual pitch control
Yaw control
Active control
Sales performance
Orders received for more than 1,000 units
14
Development of Offshore Wind Turbines
・ Installation of offshore wind turbines is expected to grow to take advantage of favorable wind
conditions. Fundamental technologies are being developed in Japan and other countries.
・ MHI is the world’s only manufacturer involved in both the wind turbine and shipbuilding (marine
structure) businesses. MHI will leverage its overall technological capabilities to deliver world-class
offshore wind turbines.
Offshore wind turbines in Europe
(mounted on towers stood from the ocean floor: other companies)
出典：http://www.middelgrunden.dk
Example of offshore wind turbines mounted on a
floating platform (Tokyo University)
Coastal area [Mounted on a floating platform]
15
Photovoltaic Business
Thin-film solar cells have gathered a lot of attention recently as a competitively-priced
technology.
・The market is expanding at an annual rate of 30-40%.
Crystalline PV have been dominant, but thin-film PV
have gathered a lot of attention with their
competitive prices and significant potential for
further efficiency improvement in the future.
PV market forecasts
(GW/year)
12
10
8
4
Focusing on thin-film PV ahead of competitors, MHI
has begun to introduce new microcrystalline tandem PV
to the market.
2
Outline of microcrystalline tandem solar cells
0
・ Large size (1.4m x 1.1m)
6
2007
2010
Crystalline solar cells
2012
・ High conversion efficiency
(up 30% from prior MHI cells)
Thin-film solar cells
・ Silicon use reduced to approx. 1/100 compared with
crystalline cells
16
Demand is expanding in the European and other markets.
<Germany> 29,629kW
PV supply record in Europe (through 2007)
Major largelarge-scale PV plants
・Waltenhofen
400kW
(2004)
<Total supply to Europe>
39,655kW
・Buttenwiesen
1,000kW
(2004)
<France>
80kW
<Spain> 9,426kW
<Italy>
440kW
<Greece>
80kW
Major largelarge-scale PV plants
・Toledo
1,400kW
(2007)
17
New PV has been in great demand, and production capacity expansion is being considered.
Execute the investment needed to raise the thin-film PV share to approximately 10%.
MHI’s production capacity (including plan)
(GW/year)
12
300
300
10
250
250
10%
6
4
2
0
2007
2010
Crystalline solar cells
2012
Production volume: MW/year
8
200
200
100MW
100MW
Microcrystalline
微結晶第2
No. 1
Microcrystalline
微結晶第１
No. 2
Amorphous
ｱﾓﾙﾌｧｽ
150
150
100
100
50
50
0
2006
H18
2007
H19
2008
H20
2009
H21
2010
H22
2011
H23
2012
H24
Thin-film solar cells
18
Energy Value Chain

The Power Systems Headquarters are performing important roles in energy conversion
technologies. In addition to wind turbines and photovoltaic power generation, the Headquarters
are focusing on new technologies in such fields as IGCC and lithium batteries.
Next-generation
technologies
Uranium
Alternative
Fuels
Renewable energy
Fuel
Natural
gas
Coal/Petroleum
Action for the
environment
CTL/GTL
Denitration
(Machinery
& Steel
Structures)
(Power Systems)
Desulfurization
Energy conversion
Atomic power
reactor
Wind
Turbines
(Power Systems)
(Power Systems)
Photovoltaic
(Machinery & Steel
Structures)
GTCC
(Power Systems)
IGCC
(Power Systems)
(Power Systems)
Biomass
Geothermal
(Power Systems)
(Machinery &
Steel Structures)
CO2 recovery
(Machinery &
Steel Structures)
Fuel Cells
(Power Systems)
Lithium batteries
Conventional
power plant
(Power Systems)
(Power
(Power Systems)
Systems)
EOR
(Machinery
& Steel
Structures)
CO2 storage
(Machinery &
Steel Structures)
Electric power
Use
Turbo Chiller
(Air-Con & Refrigeration Systems)
Seawater desalting
(Power Systems)
CTL: Coal to Liquid
Hybrid cars
Electric cars
GTL: Gas to Liquid
Automobiles
EOR : Enhanced Oil Recovery
19
Roadmap for Next-Generation Technologies
Item
IGCC
Seawater desalination
2008
FS
Fuel cells
Development
Thermal
Solar
power
Nextgeneration
cells
2020
Commercialization
Operational expansion
Construction of pre-mass production
plants and sample shipment
Wave power
2015
Verification test
Establishment of facilities for
producing commercial models
Lithium batteries
Offshore
wind turbines
Period
2010
Design
Manufacture
and installation
Technological development
Development
Development
Pre-mass production
Commercialization
Manufacture of
test models
Pre-mass production
Production of commercial models
Verification test
Test models
Verification and
market cultivation
Commercialization
Test production of pre-mass
production models and
Commercialization
long-term verification
Long-term testing at
verification facilities
and market expansion
Construction of
pre-mass production plants
Commercialization
Commercialization
20
MPS: Enhancing Global business Structure with Three Bases （MPSs）
Dongfang Gas Turbine
(Partner/Turbine manufacturing)
ATLA
(JV/GT service)
TianLing Energy Technology
Wartsilla
(Partner/DG license)
(JV/Engineering)
JV in Nanjing
Manufacturing
Engineering
Service
Harbin
(JV/GT service)
MPSE
MPS
(Partner/Turbine and boiler manufacturing)
Shenyang Pump Engineering
(JV/Pump manufacturing)
Cormetec
Doosan Heavy Industries & Construction
A-TEC
(Partner/Engineering)
Hangzhou Steam Turbine
L&T
(JV/BTG
manufacturing)
MPSS
(Subsidiary/GT service )
INITEC
(JV/Denitration equipment
manufacturing)
MHI
JV in Guangzhou
Vien Tek
(JV/GT service)
CTCI
Cerrey
E Center in India
(Subsidiary/Engineering)
(JV/Boiler manufacturing)
MTS
(Subsidiary/Engineering)
OSC
(Subsidiary/GT service base)
POSSI
(JV/GT service)
MPSA
(JV/Wind turbine
manufacturing)
MPSAP
CBC
(Subsidiary/Boiler manufacturing)
MPSE territory
MPSAP territory
MPSA territory
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Providing Environmentally-friendly Power Generation Facilities and
Technologies to China and India
Tajikistan
Afghanistan
China
Harbin Group
Supercritical and ultra-supercritical thermal
power generation technologies
Pakistan
Compared with conventional coal-burning
thermal power generation facilities, CO2
emissions are reduced by approximately 5%
New Delhi
Nepal
Bhutan
Hazira
India
Bangladesh
Myanmar
Dongfang Group
Natural gas-burning large gas turbine
technologies
Compared with coal-burning thermal power
generation facilities, CO2 emissions are
reduced by approximately 50%.
Mitsubishi Heavy Industries Dongfang Gas Turbine (JV)
Hot parts technology for natural gas-burning large gas turbines
Compared with coal-burning thermal power generation
facilities, CO2 emissions are reduced by approximately 50%.
Ningxia Electric Power Group
L&T-MHI Turbine
Generators Private Ltd.(JV)
L&T-MHI Boilers
Private Ltd.(JV)
Supercritical and ultra-supercritical steam
turbine technologies
Supercritical and ultra-supercritical boiler
technologies
emissions are reduced by approximately 5%.
emissions are reduced by approximately 5%.
1000-kw generating wind
turbine technologies
Power generating technologies
that emit no CO2
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