новости компании о Natural Gas Generator Sets and Combined Heat and Power (CHP) – A "Golden Combination" for Efficient Energy Utilization

Natural Gas Generator Sets and Combined Heat and Power (CHP) – A "Golden Combination" for Efficient Energy Utilization

Combining natural gas generator sets with combined heat and power (CHP) is a crucial method for efficient energy utilization. Its core principle is to simultaneously produce electricity and heat from a primary energy input, significantly improving overall efficiency.

1. Core Concept: What is Natural Gas Combined Heat and Power?

Natural gas combined heat and power (CHP) uses natural gas as fuel to generate electricity through natural gas generator sets, while simultaneously recovering the high-temperature waste heat generated during power generation (such as engine cylinder liner water and exhaust waste heat), converting it into usable heat energy such as steam and hot water to meet heating and industrial heat needs.

It differs from the traditional "decentralized energy supply" model, in which power generation and heating are independent. In the traditional model, approximately 60%-70% of the energy generated during power generation is wasted as waste heat, while CHP can recover and utilize this energy.

2. Key Advantages: Why Choose Natural Gas Combined Heat and Power?

1) Extremely High Energy Efficiency: The efficiency of ordinary natural gas power generation is approximately 35%-45%, while the overall energy efficiency of CHP can reach 80%-90%, significantly reducing energy waste.

2) Excellent Environmental Performance: Natural gas is a clean fuel, with carbon and nitrogen oxide emissions far lower than coal and heavy oil after combustion. Furthermore, improved efficiency further reduces pollutant emissions per unit of production capacity.

3) Flexible and Stable Energy Supply: Output can be adjusted according to electricity and heat demand. It can function as a large-scale energy station supplying energy to a region, or as a distributed system providing localized energy to factories, commercial parks, and communities, reducing transmission losses.

3. Typical Application places

· District Heating/Cooling: Providing winter heating and summer air conditioning for new urban areas and large communities (using waste heat to drive absorption chillers).

· Industrial Sector: Providing energy to industries requiring stable electricity and steam, such as chemicals, food, and textiles, reducing energy costs for businesses.

· Commercial and Public Buildings: Providing electricity, hot water, and air conditioning heat for hotels, hospitals, data centers, etc., ensuring reliable energy supply.