生物質燃料熱風爐煙氣餘熱利用技術實現節能減

生物質燃料熱風爐煙氣系統溫度利用技術是一種高效節能鍋爐，可將生物質燃料熱風爐產生成都收賬白煙回收利用到供暖當中，可以減少天然氣供熱成本。該項目以天然氣補燃料作為驅動熱源成都找人公司吸收式熱泵集成技術和成套裝備，充分回收鍋爐排放煙氣中水蒸汽冷凝熱，排煙溫度降到30℃以下，大幅提高鍋爐系統成都收賬能源利用效率。該項目實施後，單位供暖面積天然氣消耗量降低10%以上，節能減排效益顯著，在此基礎上，現有煙氣中二氧化硫排放量進一步提高25%以上。專傢認為該項目是生物質燃料熱風爐供熱領域節能改造收賬一個創新，在不增加鍋爐原負荷前提下，可同步提高供熱成都找人公司能力，明顯減少生物質燃料熱風爐天然氣消耗量，降低供熱成本，實現節能減排。
The technology of temperature utilization in flue gas system of biomass fuel hot blast stove is an efficient and energy-saving boiler, which can recycle the white smoke produced by biomass fuel hot blas透水地坪t stove into heating and reduce the heating cost of natural gas. The project uses natural gas fuel as the driving heat source of the absorption heat pump integration technology and complete equipment, fully recovers the steam condensation heat from the flue gas of the boiler, and the exhaust temperature drops below 30 C, which greatly improves the energy efficiency of the boiler system. After the implementation of this project, the consumption of natural gas per unit heating area has been reduced by more than 10%, and the benefits of energy saving and emission reduction have been remarkable. On this basis, the emission of sulfur dioxide in the existing flue gas has been further increased by more than 25%. Experts believe that this project is an innovation of energy saving transformation in the field of biomass fuel hot blast stove heating. Without increasing the original load of the boiler, it can simultaneously improve the heating capacity, significantly reduce the natural gas consumption of biomass fuel hot blast stove, reduce heating costs, and achieve energy saving and emission reduction. 據悉，生物質燃料熱風爐煙氣餘熱利用技術——鋰吸收式能量回收技術可高效回收生物質燃料熱風爐煙氣熱能，能夠提高供熱效率，降低天然氣消耗量，且投資回收較快，环境和經濟效益顯著。
It is reported that lithium absorption energy recovery technology, a waste heat utilization technology of biomass fuel hot blast stove flue gas, can efficiently recover the heat energy of biomass f彩色沥清地坪uel hot blast stove flue gas, can improve heating efficiency, reduce natural gas consumption, and the investment recovery is faster, with significant environmental and economic benefits.