Plastic To Fuel Conversion System Using Renewable Energy Assisted Pyrolysis

Sagariga M R, Sarada Balaram, P. Menon, A. B, Devika Pramod, B. R
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引用次数: 3

Abstract

In the current world, huge amounts of plastic are generated every year. Improper management of plastics like burning it in the open air creates hazardous problems in the environment. Though there has been numerous attempts for repossession of plastics using the present technological advancement, it predominantly emits greenhouse gases and the usage of power for the entire recycling process is sky-high. Pyrolysis technique is another nature friendly attempt to convert plastic to inflammable gas. But this process is an energy intensive mechanism which requires anaerobic decomposition of plastic in presence of catalyst and at very high temperature. To minimise energy intensive nature of the process, renewable technologies are taken in to provide the extreme temperature levels to enable pyrolysis. Fractional Open Circuit Voltage based maximum power point tracking mechanism is adopted in order to convert incident solar energy on solar panels to electric power, and then transforming to heat using appropriate heating element and power conversion system. Proposed method is simulated and implemented using 1kW SPV system and results indicate a considerable reduction in non-renewable energy usage for plastic to fuel conversion as compared with conventional methods.
利用可再生能源辅助热解的塑料燃料转换系统
在当今世界,每年都会产生大量的塑料。对塑料的不当管理,如在露天焚烧,会给环境带来危险问题。尽管利用目前的技术进步已经有了许多回收塑料的尝试,但它主要排放温室气体,整个回收过程的电力使用量非常高。热解技术是另一种将塑料转化为可燃气体的自然友好尝试。但该工艺耗能大,需要在催化剂和高温条件下对塑料进行厌氧分解。为了最大限度地减少该过程的能源密集型性质,采用了可再生技术来提供极端温度水平以实现热解。采用基于分数开路电压的最大功率点跟踪机构,将入射到太阳能板上的太阳能转化为电能,再通过合适的发热元件和功率转换系统转化为热能。采用1kW SPV系统对所提出的方法进行了模拟和实施,结果表明,与传统方法相比,塑料到燃料转换的不可再生能源使用量显著减少。
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