An energy utilization system composed of gas turbines and flue gas heat pumps, gas turbines, flue gas turbines and flue gas heat pumps, or gas turbines, waste heat boilers, steam heat pumps, as well as gas turbines, waste heat boilers, steam turbines, and steam (flue gas) heat pumps. After completing the energy utilization cycle of gas turbines, flue gas turbines, waste heat boilers, steam turbines, and other equipment, the system further utilizes heat pumps to deeply recover and utilize the waste heat from flue gas, steam, hot water, and cooling water, or directly drives the heat pump with power. This process can be used for cogeneration, thermoelectric cooling cogeneration, heat cooling cogeneration, electric cooling cogeneration, direct heating or direct cooling. The system has extremely high thermal efficiency, and if used for direct heating, the thermal efficiency can reach 150%, which is one of the main trends in future energy utilization.

The traditional high-pressure gas and high-pressure water flushing effect is not significant. For a long time, this situation was helpless. However, recently, CHEMETALL, a global chemical supplier giant, has developed a compressor cleaning agent for gas turbines that can effectively clean without corroding the base metal and dismantling it. It is said that some power plants abroad have already been used with significant results.

A factory that uses high-temperature gas as the working fluid and converts the chemical energy in the fuel into mechanical and electrical energy through an equal pressure heating cycle. Gas turbine power plants convert liquid and gas fuels into mechanical energy through gas turbines, which then drive generators to generate electricity. Adiabatic compression and isobaric of gas turbines.