TransPacific Energy Advantage: Case Studies

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TransPacific Energy Advantage: Case Studies Typical Power Plant TPE-ORC 0.60 KWh ORC 2.3 KWh LP steam 0.35 KWh 30% (maximum) 2.05 KWh CHP Typical Power Generated 1.1 KWh Typical Power Wasted 2.31 KWh Typical Power Produced by TPE* 0.60 KWh Total Power Produced with TPE 1.7 KWh Total Heat Available for LP Steam 0.39 KWh Total Utilization Efficiency with TPE 90.8% Fuel savings with TPE: 39.3% * Depending upon condensation temperature Base Technology TPE Product: TPE s The Organic Rankine Cycle Process Waste Heat Source (vapor or fluid ) TPE Package TPE 1 Waste heat evaporates the refrigerant into a hot high pressure vapor 1 Waste Condenser Heat Boiler 2 The hot high pressure vapor drives the high speed turbine dropping from a high temperature and pressure vapor to a high temperature low pressure vapor 3 Hot vapor is cooled and condenses into a cool liquid 4 Pump 2 Turbine Generator 1.5 MW 480V 3-Phase 60 Cy 4 The pump returns the cool liquid refrigerant to the evaporator where it is boiled to a hot vapor again repeating the process. 3 Evaporator Condenser Cool Condenser Air or Water In Hot Condenser Air or Water Out Key Hot liquid or vapor Cool liquid or vapor TransPacific Energy advantage- Case Studies 1

Case Study 01 ORC-Waste heat recovery from flue gas. Biomass Boiler Industry / Sector IPP- Hawaii- US Type of : Moderate investment Total Power produced: 500 KW Cost KWHr produced: $0.28 Annual Energy Savings: 4,380,000 kwh Cost savings: $ 1,664,400 1.76 years Implementation Highlights supplier of the Boiler. There was a favorable reply from the boiler supplier for installation of our ORCs. Installation of waste heat recovery system in biomass steam turbine boiler exhaust gases will result in partial heat recovery by generating power which can be used. The plant has two biomass boilers with flue gas after steam generation at 340 F and water-cooled condenser. The ORC uses air-cooled condenser to conserve water. Principle Waste heat is available in many forms and grades. It can be recovered by installing waste heat recovery boiler-orc (WHRB-ORC) conveniently to the exhaust of equipment. Almost all WHRB-ORCs are similar to conventional boilers but mostly without first radiant heat transfer tubes. These are generally designed for low gas entry temperatures than conventional boilers. Normally the exhaust temperature should be above 750 F for effective generation of steam for a steam turbine system. TransPacific Energy advantage- Case Studies 2

The major benefit apart from the fuel savings are 100% return on investment in the first two years of the operation in this application The major factor to be considered during the installation of WHRB-ORC is increase in the back pressure on the biomass boiler DG set and how this is addressed during the operation of the implemented measure The major advantages of our ORCs are; environmentally sound and highly efficient in capturing the wasted heat, reducing global warming impact, emission and CO2 footprint as well as the use of air-cooled condenser. Case Study 02 ORC-Waste heat recovery from wet vapor. Process industry by-product Industry / Sector Food- England Type of : moderate investment Total Power produced: 483 KW Cost KWHr produced: $0.26 Annual Energy Savings: 4,231,080.00 kwh Cost savings: $ 1,100,080.00 1.8 years Implementation Highlights supplier of the fryer. There was a favorable reply from the fryers supplier for installation. Installation of waste heat recovery system in fryer exhaust gases will result in partial heat recovery by generating power which can be used. The plant has two fryers with flue gas and wet vapor 293 F. The ORC uses aircooled condenser to conserve water and availability of cold ambient air. TransPacific Energy advantage- Case Studies 3

Principle Waste heat is available in many form of wet vapor at low grade heat. It can be recovered by installing waste heat recovery boiler-orc (WHRB-ORC) conveniently to the exhaust of the fryer equipment. Almost all WHRB-ORCs are similar to conventional boilers but mostly without first radiant heat transfer tubes. These are generally designed for low gas entry temperatures than conventional boilers. The major benefit apart from the fuel savings are 100% return on investment in the first two years of the operation. Another major benefit apart from the fuel savings is the condensation of wet vapor and pump back to the boiler. The major factor to be considered during the installation of WHRB-ORC is increase in the back pressure on the Fryer exit and how this is addressed during the operation of the implemented measure The major advantages of our ORCs are; environmentally sound and highly efficient in capturing the wasted heat as well as CO2 footprint, emission as well as global warming impact as well as installation cost since air-cooled condensers are used. Case Study 03 ORC-Waste heat recovery from Hot water. By product Industry / Sector Process industry- US Type of : Moderate investment Total Power produced: 885 KW Cost KWHr produced: $0.10 Annual Energy Savings: 7,752,600 kwh Cost savings: $ 775,260.00 4.5 years TransPacific Energy advantage- Case Studies 4

Implementation Highlights supplier of the pump, new water piping and special insulation as well as flow control. There was a favorable reply from the hot water process suppliers for installation of our ORCs. Installation of waste heat recovery system in a closed hot water loop will result in partial heat recovery by generating power which can be used. The plant has significant hot wasted water at 194 F. The ORC uses air-cooled condenser due to the remote location and unavailability of water. Principle Waste heat is available in wasted hot water and low grade. It can be recovered by installing waste heat recovery boiler-orc (WHRB-ORC) conveniently to the closed hot water loop. Almost all WHRB-ORCs are similar to conventional boilers however in this application liquid refrigerant plate heat exchanger was used. The major benefit apart from the fuel savings are 100% return on investment in the first four years of the operation The major advantages of ORCs are; environmentally sound and highly efficient in capturing the wasted heat and reducing global warming impact. Case Study 04 ORC-Waste heat recovery from flue gas. Gas turbine Industry / Sector IPP- US Type of : Moderate investment Total Power produced: 1240KW Cost KWHr produced: $0.10 TransPacific Energy advantage- Case Studies 5

Annual Energy Savings: 10,862,400 kwh Cost savings: $ 1,086,240 4.6 years Implementation Highlights supplier of the Gas Turbine. There was a favorable reply from the Gas Turbine manufacturer for installation of our ORCs providing booster fans are used. Installation of waste heat recovery system in gas turbine exhaust gases will result in partial heat recovery by generating power which can be used and enhance the overall system efficiency. The plant has several gas turbines with flue gas at 600 F. The ORC uses air-cooled condenser to conserve water. Principle Waste heat is available and can be recovered by installing waste heat recovery boiler-orc (WHRB-ORC) conveniently to the exhaust of equipment. Almost all WHRB-ORCs are similar to conventional boilers but mostly with out first radiant heat transfer tubes. The major benefit apart from the fuel savings are 100% return on investment in the first four years of the operation The major factor to be considered during the installation of WHRB-ORC is increase in the back pressure on the gas turbine set and how this is addressed during the operation of the implemented measure The major advantages of our ORCs are; environmentally sound and highly efficient in capturing the wasted heat, reducing global warming impact and emission and installation cost with the use of air-cooled condenser. Case Study 05 ORC-Waste heat recovery from low pressure steam. Alternative to steam condenser used in cogeneration facility. TransPacific Energy advantage- Case Studies 6

Industry / Sector IPP- US Type of : Moderate investment Total Power produced: 294 KW Cost KWHr produced: $0.12 Annual Energy Savings: 2,575,440 kwh Cost savings: $ 309,052 4.2 years Implementation Highlights suppliers of the steam turbine and boiler. There was a favorable reply both equipment suppliers for installing our ORCs. Installation of waste heat recovery system as alternative to steam condenser will result in partial heat recovery by generating power which can be used and eliminate the use of cooling tower. The plant has several boiler/steam turbines cogeneration units and heat is recovered from low pressure steam at 115 F. The ORC uses water-cooled condenser as water pond was available. Principle Waste heat is available and can be recovered by installing waste heat recovery boiler-orc (WHRB-ORC) conveniently to the exhaust of steam of the turbine equipment. Almost all WHRB-ORCs are similar to conventional boilers but mostly without first radiant heat transfer tubes. In this application steam condensing heat exchanger was used. The major benefit apart from the fuel savings are 100% return on investment in the first four years of the operation. The major advantages of our ORCs are; environmentally sound and highly efficient in capturing the wasted heat and CO2 footprint and installation cost. TransPacific Energy advantage- Case Studies 7

Please contact our offices for further information on the above mentioned case studies. TransPacific Energy, Inc. www.transpacenergy.com Innovative Energy Solutions for a Cleaner World. Tel: 1-866-919-8275 Information@transpacenergy.com TransPacific Energy advantage- Case Studies 8