CO2 emission mitigation of a hybrid photovoltaic and cogeneration system in computer hardware manufacturing industry: A case study in Thailand

D. Manirampa, P. Chaiwiwatworakul
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Abstract

In the wake of COP26 and the growing urgency of addressing climate change, achieving carbon neutrality by 2050 has become a central global objective. This imperative extends to industries like computer hardware manufacturing, which are now actively pursuing decarbonization strategies through the strategic adoption of renewable energy sources and energy efficiency enhancements. This research paper assessed the CO2 emission mitigation potential of a hybrid system of photovoltaic (PV) roof and cogeneration where a large factory of computer hardware manufacturing in tropical Thailand was selected as a study site. On one hand, a one-Megawatt photovoltaic system was installed over the roof of the production building to generate electricity from solar radiation to serve the building. On the other hand, a twenty-four-Megawatt cogeneration system of gas engines as the prime mover was used to supply power to meet the building’s electricity demand. Waste heat from the gas engine was used by the absorption chiller to generate chilled water for cooling inside the building. Based on the system equipment specifications, the annual simulation using Thailand’s solar radiation showed that the installed photovoltaic system could generate electricity of 1,412.4 MWhelec/year while the implementation of the absorption chillers for cooling helped to reduce the electrical energy consumed by the traditional electric chiller by 10,211.4 MWhelec/year. In our study case where the CO2 emission of the grid power was 0.4758 kgCO2/kWhelec in the year 2022 and was reduced to 0.350 kgCO2/kWhelec in the year 2050, the total CO2 emission mitigation from the hybrid photovoltaic and cogeneration system with the genset efficiency of 50% and the waste heat recovery of 60% could reduce approximately 207,388.5TonCO2 for over 20 years as compared to the scenario where the grid electricity alone powered the building. These findings underscored the critical role of the proposed hybrid system in addressing the climate crisis and exemplified how the industry could make meaningful strides toward more environmental sustainability.
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计算机硬件制造业中光伏与热电联产混合系统的二氧化碳减排:泰国案例研究
随着 COP26 的召开以及应对气候变化的日益紧迫性,到 2050 年实现碳中和已成为全球的核心目标。计算机硬件制造等行业也面临着这一紧迫性,这些行业目前正通过战略性地采用可再生能源和提高能效来积极推行去碳化战略。本文以泰国热带地区的一家大型计算机硬件制造厂为研究对象,评估了光伏屋顶和热电联产混合系统的二氧化碳减排潜力。一方面,在生产大楼的屋顶上安装了一个一兆瓦的光伏系统,利用太阳辐射发电,为大楼提供服务。另一方面,以燃气发动机为原动机的 24 兆瓦热电联产系统提供电力,以满足大楼的用电需求。吸收式冷却器利用燃气发动机的余热产生冷冻水,用于大楼内部的冷却。根据系统设备规格,利用泰国的太阳辐射进行的年度模拟显示,安装的光伏系统每年可产生 1,412.4 兆瓦电能,而吸收式冷水机组的使用则有助于将传统电冷水机组的电能消耗减少 10,211.4 兆瓦电能/年。在我们的研究案例中,2022 年电网电力的二氧化碳排放量为 0.4758 kgCO2/kWhelec,到 2050 年降至 0.350 kgCO2/kWhelec,与仅由电网电力驱动建筑的情景相比,在发电机组效率为 50%、余热回收率为 60% 的情况下,光伏和热电联产混合系统在 20 多年内可减少约 207388.5 吨二氧化碳排放。这些研究结果突显了拟议的混合动力系统在应对气候危机方面的关键作用,并体现了该行业如何在环境可持续发展方面取得有意义的进步。
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