The H-25/H-15 Gas Turbine A Product of Hitachi Quality

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GKKP-08-012 Rev.0

The H-25/H-15 Gas Turbine A Product of Hitachi Quality The H-25 s fuel savings will repay your investment within a few years while allowing you a range of fuels from distillate to natural gas. And with cogeneration or combined cycle plants, even higher efficiency will be achieved. Plus an excellent automation system will add ease and precision to your operations after a fast installation. Excellent engineering, superior quality control, and reliable service has earned Hitachi gas turbines a reputation for excellence and efficiency. With an output of 30MW class and, coupled with the latest in gas turbine technology, Hitachi s H-25 becomes a superior value. H-15 gas turbine is scale down model H-25 gas turbine. (15MW class) Features - 34.8% (LHV base) Gas Turbine Thermal Efficiency with Advanced Technology - High Reliability and Easy Maintenance with Heavy Duty Design - High Fuel Flexibility with Low Emission Level - Quick Delivery and Easy Installation - Fully Automated Digital Control - Applicable to Replacing Existing Old MS5001 Gas Turbine with New H-25 - Suitable for Cogeneration, Combined Cycle Power Plant and Motor Driven Compressor Drive - Maintenance Support for Customer s Satisfaction 1

Performance Simple Cycle Performance ITEM UNIT ISO Condition (Temperature: 15 deg C) Inlet Pressure Drop : 3.5 inch H2O Exhaust Pressure Drop : 2.5 inch H2O Conventional Combustor case H-25 H-25 H-15 Natural Gas Distillate Oil Natural Gas Output kw 31,000 30,000 16,900 Efficiency %(LHV) 34.8 33.6 34.3 Heat Rate kj/kwh 10,340 10,710 10,500 Btu/kWh 9,806 10,157 9,950 Exhaust Flow kg/s 94.0 94.3 52.9 Exhaust Temp deg C 564 564 564 Output (%) Correction Curve Effect of compressor inlet temperature on maximum output (Base load) 130 120 110 100 90 80 70-20 -10 0 10 20 30 40 50 Compressor Inlet Temperature (deg C) NOx Emission Combustor Fuel NOx Abatement Injection Flow (%* 1 ) NOx ppm (15% O2) 0 188 Natural Gas Steam 2.5 53 Conventional Combustor Water 3.0 25 0 264 Distillate Oil Steam 2.5 74 Water 3.0 45 LNC (Single Fuel Type) LNC (Dual Fuel Type) Natural Gas 0 25 Natural Gas 0 25 Distillate Oil Water 2.5 42 Note: *1 : Mass flow ratio to inlet air Ambient Temperature : 15 deg C Relative Humidity : 60% Operation Condition : Base Load LNC : Low NOx Combustor 2

Specification Major Components The control compartment, gas turbine package, generator package, and generator auxiliary compartment make up the H-25 gas turbine generator set for 50 and 60 Hz application. Compressor Combustor Turbine Specification Components Gas Turbine Type Design Heavy Duty Design Simple Cycle Single Shaft Horizontal Split Casing, Stacking Rotor Compressor Type 17 Stages Axial Type Turbine Combustor Type Cooling Type Liner Cooling Rotating Speed H-25 : 7,280rpm / H-15 : 9,710rpm 3 Stages Impulse Type Air Cooled 1st and 2nd Stage Nozzle and Bucket Reverse Flow Type Conventional Type or Low NOx Type (25ppm) Combustor H-25 : 10 Combustors / H-15 : 6 Combustors Slot Cooling 3

The Advantages of Replacement The H-25 Gas Turbine can be used, not only to create new, highly efficient power plants, but also to replace the MS5001, gaining an immediate 20% reduction in fuel consumption. Transported separately, the combination with the re-utilized existing equipment is done at the installation site. And when replacing an existing MS5001 with the H-25, the replacement can be performed in a short period, because existing foundations, building works, and ancillary equipments are compatible. Replacement Experiences of Old MS5001 Machines Country : Japan Number of unit : One(1) Operation date : Nov., 1988 Country : Bahamas Number of unit : Four(4) Operation date : 2002, 2003, 2005, 2007 Country : Nigeria Number of unit : Six(6), Six(6) Operation date : 2002, 2005 Country : Iraq Number of unit : Three(3) Operation date : 2007 Country : Iraq Number of unit : Two(2) Operation date : 2007 Typical Annual Fuel Savings by Replacing with H-25 Annual Fuel Savings (M$ US / Year ) 10 8 6 4 2 0 2 years to repay investment 20000 ( 17.1% ) 18000 ( 19.0% ) 0 1 2 3 4 5 6 7 8 Fuel Cost ( US$ / MBtu (LHV) ) Heat Rate(LHV) Btu/kWH (Efficiency %) 16000 ( 21.3% ) 15 Years Old Frame Machine 14000 ( 24.4% ) 11975 ( 28.5% ) New Machine ISO Base Load Condition, Continuous Operation 4

Modular Package Design The control compartment, gas turbine package, generator package, and generator auxiliary compartment make up the H-25 gas turbine generator set for 50 and 60 Hz application. H-25 Major Components with Compact Package Design - Minimizes Site Installation Work and Period - Flexible Site Layout - Easy Handling and Transportation No. Package Weight 1 Gas Turbine + Base 47 t Auxiliary Equipment 82 t 2 Generator 84 t 3 Air Inlet System 51 t 4 Ventilation Fa 2 t 5 Exhaust System 7 t 6 Mist Separator 2 t H-15 No. Package Weight 1 Gas Turbine + Base 30 t Auxiliary Equipment 49 t 2 Generator 37 t 3 Air Inlet System 33 t 4 Ventilation Fa 1 t 5 Exhaust System 5.6 t 6 Mist Separator 1.5 t 5

Application Cogeneration Plant The high efficiency H-25 gas turbine offers users very high thermal efficiency, high reliability, and easy maintenance. Applicable to various cogeneration systems, Hitachi provides system engineering to meet various heat and power requirements to optimize the design. H-25 Gas Turbine Cogeneration Plant (Brazil) System Configuration Steam Fuel Air HRSG Water H-25 Gas Turbine & Generator UNFIRED Steam Production 70 HRSG Inlet Temp. 560 deg C FIRED Steam Production 100 HRSG Inlet Temp. 700 deg C Steam Flow (t/h) 60 50 250* Saturated Steam 300* 350* 400* 450* 500* Steam Flow (t/h) 90 80 70 250* Saturated Steam 300* 350* 400* 450* 500* 40 2 4 6 8 10 Steam Pressure (MPa) 60 *: Steam Temperature (deg C) 2 4 6 8 10 Steam Pressure (MPa) 6

Application Combined Cycle Plant The higher operating temperature of gas and steam cycles makes an H-25 combined cycle power plant achieve high efficiency generation. By creating a packaged type combined cycle plant, Hitachi makes installation, operation, and maintenance an easy part of your power generation. H-25 Gas Turbine Combined Cycle Plant (Japan) System Configuration 1025 (1-1-1) Fuel Steam Turbine Air HRSG Generator H-25 Gas Turbine & Generator Water 2025 (2-2-1) Fuel Air Steam Turbine Generator Condenser HRSG H-25 Gas Turbine & Generator Combined Cycle Standard Performance Type Type Type (GTG-HRSG-STG) 1025(1-1-1) 2025(2-2-1) Total Output kw 43,760 87,800 Gas Turbine Output kw 29,730 1 29,730 2 Steam Turbine Output kw 14,030 28,340 Plant Efficiency %(LHV) 50.1 50.3 Natural Gas, ISO Base Load Operation 7

Application Motor Driven Compressor Drive Higher response & easy speed control by variable speed drive motor Flexible selection of gas compressor sizing Less maintenance System Configuration Fuel Air C.B. C.B. Tr. Inverter H-25 Gas Turbine Circuit Breaker Motor C.B. Tr. Inverter Transformer Gas Compressor C.B. Tr. Inverter C.B. Tr. C.B. H-25 Gas Turbine Project, Indonesia (Commercial Operation: 2005) 8

Hitachi Turbine Global Service Hitachi Power Systems America, Ltd. Hitachi Power Europe GmbH Hitachi China Ltd. Hitachi Canadian Industry Ltd. Hitachi Operation & Maintenance Egypt SAE Hitachi Middle East Office Hitachi, Ltd. Hitachi Asia Ltd. Asia Plant Maintenance Service PTE Ltd. Periodical Shut-down Inspection 3 2 1 1 Inspection Type Combustion Inspection Interval 16,000 (Gas) 12,000 (Oil) Downtime 7 days 2 Hot Gas Path Inspection 32,000 (Gas) 24,000 (Oil) 16 days 3 Major Inspection 64,000 (Gas) 48,000 (Oil) 25 days Continuous Operation Case * Interval & downtime shall be subject to operating cycle and conditions, etc. * Cool downtime (1 days) and start-up (1~2 days) are not included in downtime. 9

H-25/H-15 gas turbine is manufactured by severe quality assurance and control in Hitachi Works, Hitachi City, Japan. Hitachi City Tokyo 10