The projects, Emir and Nezihe Beren 2, will add 46 MWe of clean power capacity to Turkey’s geothermal market, raising Exergy’s portfolio in geothermal application to approximately 540 MWe.

In this role, Sylvain will support Exergy in strengthening business relationships with industries, investors, developers, and governmental institutions worldwide and represent Exergy as a brand ambassador at major international events.

Exergy International has signed a cooperation agreement with RentCo Africa Limited (RentCo), an independent firm providing energy leasing solution in Kenya, for the development of RentCo’s Wellhead geothermal project in Olkaria, Kenya.

Exergy discusses how Organic Rankine Cycle (ORC) waste heat recovery systems can enhance the sustainability and competitiveness of glass manufacturing factories.

In this article we explores the benefits of ORC technology over steam Rankine cycle systems and consider the importance of turbine design and configuration

EXERGY INTERNATIONAL signed a contract yesterday with EMIRLER ENERJI ELEKTRIK URETIM A.S. for the supply of an 8 MWe geothermal binary plant

Energy from Waste (EfW) is gaining strength in UK and elsewhere. World Pumps finds out how processes could reduce global emissions by processing waste heat,

Organic Rankine Cycle (ORC) cold energy plants are an efficient technology to recover energy from LNG’s regasification and decarbonise the oil &gas sector. Exergys' R&D department has developed and designed a new solution to harness this potential - the Cold Energy Plant (CEP).

A recent R&D programme undertaken by Organic Rankine Cycle specialist Exergy has focused on development of high-efficiency mini and micro ORCs modules for exploiting low temperature waste heat

The project will deliver 28 MWe through a brine recovery ORC unit to ramp up the capacity of the existing steam power plant

Andrea De Finis, Exergy, discusses the role of waste heat recovery in the cement sector, highlighting the differences between the organic and steam Rankine cycle systems.

The turnkey EPC contract awarded to Exergy will include the design and engineering of the ORC system, the manufacturing of the equipment and the erection of the power plant.

Exergy International signed a deal with Hez Enerji for the supply of a 24 MWe geothermal binary plant, the Bilecik HEZ Moralı JES-1 unit, for the exploitation of the customer’s geothermal field in Aydin, Turkey. The ORC power plant is planned to be delivered by Q2 of 2024 and start up is forecast before the end of 2024.

Exergy international today announced the launch of a new corporate rebrand, which involves a new visual identity and a new website, to reflect the transformation undergone by the company in a decade - from an innovative start-up to a leading ORC provider worldwide with almost 500 MWe in portfolio - and align with its new strategy and vision in the evolving energy market.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

EXERGY International srl and Geothermal Development & Investment Inc. (GDI), subsidiary of GPSS Group, have signed a partnership agreement for the exclusive distribution of turnkey geothermal power plants in Japan, using advanced, highly efficient ORC (Organic Rankine Cycle) technology.

• Development and construction of turnkey geothermal power plants with ORC technology (Organic Rankine Cycle) • All services from a single source • Important contribution to the energy transition

Designed and supplied by EXERGY in less than 12 months the ORC system exploits the geothermal brine of two flash power plants on Mindanao island to generate 3.6 MWe additional electricity. The Inauguration ceremony took place on April 27, led by EDC’s Deputy Chief Operating Officer Jerome H. Cainglet, in the presence of Director Mario C. Marasigan of the Department of Energy’s Electric Power Industry Management Bureau (EPIMB) and Government Authorities.

In this article Sergio Morlacchi  explains how the integration of waste heat recovery systems into cement plants could help enhance the overall energy efficiency of the cement manufacturing process, while helping to lower emissions.

EU governments and regulators need to create new methods of financial support for investment in industrial energy efficiency, says Exergy CFO Luca Pozzoni.

EXERGY INTERNATIONAL, a leading provider of new-generation Organic Rankine Cycle power plants, has been awarded - through its parent company Nanjing TICA Thermal Technology - a new contract for the development of a 5.8 MWe Waste Heat Recovery project in China.

EXERGY INTERNATIONAL, a leading provider of new-generation geothermal binary power plants, and a part of the Chinese TICA Corporation, has signed a new contract with Energy Development Corporation (EDC) for the supply of an ORC binary system

EXERGY INTERNATIONAL, a leading provider of new generation geothermal binary power plants, part of the Chinese TICA Corporation, brought online three new geothermal power plants in Turkey last October. These plants are a 26 MWe for Greeneco Enerji, a 12 MWe for RSC Enerji and a 10 MWe for Kiper Elektrik.

Following a winning auction bid the Chinese Group secured the acquisition of the biogas plant designer and supplier under the sphere of the Maccaferri Industrial Group. This is the second energy company of the Maccaferri Group passing under the sphere of the Chinese Group after the acquisition of EXERGY S.p.A., in September 2019.

200.000 face masks sent from Nanjing (China) to Milan, donated by TICA and EXERGY to the Municipality of Milan and to local communities hosting EXERGY headquarters

Following successful auction bid, China’s Nanjing TICA Thermal Technology Co. Ltd., has officially formalized the acquisition of EXERGY from the Maccaferri Industrial Group.

Exergy has begun working on ORC units designed for waste heat recovery from gas turbines in LNG regasification plants.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.

Waste heat recovery (WHR) has proven to be a market-ready and widely employed technology that can help cement plants achieve energy efficiency targets effectively. These systems represent flexible and economically viable solutions to increase sustainability and profitability of a cement business, reducing energy demand and associated operating costs and CO2 emissions.