{"id":113506,"date":"2026-09-14T11:57:02","date_gmt":"2026-09-14T09:57:02","guid":{"rendered":"https:\/\/www.mwm.net\/?p=113506"},"modified":"2026-09-14T11:57:02","modified_gmt":"2026-09-14T09:57:02","slug":"use-gas-engine-driven-cchp-plants-for-year-round-air-conditioning-and-more-efficient-operation","status":"publish","type":"post","link":"https:\/\/www.mwm.net\/en\/news\/news-releases\/use-gas-engine-driven-cchp-plants-for-year-round-air-conditioning-and-more-efficient-operation\/","title":{"rendered":"Use Gas Engine-Driven CCHP Plants for Year-Round Air-Conditioning and More Efficient Operation"},"content":{"rendered":"

Reading time: approx. 2 minutes<\/em><\/p>\n

Due to hot summers and increasing cooling loads, companies are faced with new challenges. Especially where there is a high and continuous cooling demand, combined cooling, heat, and power (CCHP) generation provides an economically efficient solution: Gas engine-driven CCHP plants generate heat and power, while the resulting waste heat can be used to produce cooling and provide air-conditioning.<\/strong><\/p>\n

Mannheim, September 14, 2026<\/p>\n

Reliable air-conditioning is essential for critical infrastructure facilities and certain manufacturing operations. During the hot summer months, these operations are faced with new challenges. High temperatures require longer and more efficient air-conditioning to ensure that operations are not disrupted. Combined cooling, heat, and power (CCHP) plants offer a reliable solution to this challenge. Driven by gas engines, they not only generate heat and power on demand, the waste heat from the engines can also be used directly for cooling.<\/p>\n

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Advantages of CCHP Plants over Electric Air-Conditioning Systems<\/h2>\n

Trigeneration plants combine cooling, heat, and power generation. They generate cooling using adsorption or absorption chillers. The key advantage of CCHP plants over air-conditioning systems that run solely on electricity is that they generate cooling using waste heat instead of consuming electricity for this purpose. This significantly reduces the electricity required for temperature control and thus the operating costs at production facilities equipped with CCHP plants. Moreover, combined heat and power (CHP) generation enables a much higher overall efficiency than separate energy generation. Thus, a CHP plant can achieve a total efficiency of up to 90 percent, whereas in the separate generation of heat and power, the heat produced during power generation often goes unused. Accordingly, a large portion of the waste heat goes unused when generating cooling, heat, and power separately. CCHP plants reuse the waste heat from the engines to power an adsorption or absorption chiller, which uses that heat to generate cold for air-conditioning systems or cooling processes.<\/p>\n

Avoiding Electrical Peak Loads Helps Stabilize the Power Grid<\/h2>\n

Gas engine-powered CCHP systems not only generate heat, power, and cooling directly on site in a flexible manner, they also help reduce costly electricity load spikes that occur with conventional electric air-conditioning systems, particularly during heat waves. The cold is generated thermally from the waste heat of the gas engines. Only the pumps and recooling units are powered by electricity. As a result, significantly less electrical energy is required for cooling than when cooling, heat, and power are generated separately. The deployment of CCHP plants enables a significant reduction of the annual power consumption and of the peak electricity demand, resulting in lower energy costs for operators.<\/p>\n

What Kind of Facilities and Operations Benefit from CCHP Plants?<\/h2>\n

CCHP (combined cooling, heat, and power; also referred to as trigeneration) plants are particularly beneficial for facilities and operations that need cooling, heat, and power year-round. This includes critical facilities such as hospitals, operating rooms and laboratories, nursing homes, and IT infrastructure. Moreover, hotels, office buildings, swimming pools, the food industry, industrial and commercial facilities that require process cooling, and neighborhoods with local and district heating networks benefit from CCHP plants. The larger and more consistent a company’s cooling, heat, and power needs are, the more profitable it is to use a trigeneration plant. <\/p>\n

High-performance MWM gas engines are suitable for generating heat and power as needed and, when combined with an adsorption or absorption chiller, for producing cold. Designed for a wide range of sectors and applications, MWM gas generator sets are deployed in integrated solutions for custom-tailored energy production. MWM energy solutions can be adapted to the specific requirements of various segments and application areas and be integrated into existing or new energy supply concepts.<\/p>\n

CCHP plants combine cooling, heat, and power generation in a single system. Especially for facilities and operations with high and continuous energy demands, utilizing engine waste heat can improve the plant’s energy efficiency and reduce the electrical peak load of the cooling system. MWM offers custom-tailored, integrated solutions for implementing such energy concepts.<\/strong><\/p>\n

Benefits for Plant Operators<\/h3>\n