Plastic waste as an alternative sustainable fuel in internal combustion (IC) engines – A comprehensive review

IF 6 Q1 ENGINEERING, MULTIDISCIPLINARY
Pitchaiah Sudalaimuthu , Ravishankar Sathyamurthy , Ammar H. Elsheikh , Abdul Gani Abdul Jameel
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Abstract

Pyrolysis offers a sustainable solution to address pressing environmental deterioration and energy deficiency problems. Valorization of pyrolysis gives improved results in terms of Carbon sequestration, Value-added chemicals, Energy recovery, waste minimization, and soil amendment. In addition, it reduces greenhouse gas emissions related to incineration and other plastic waste management methods. The objective of this review is to explore the various pyrolysis techniques and catalysts for the improvement of plastic pyrolysis. First, basic plastic pyrolytic oil extraction methods relevant to recent pyrolysis techniques are examined. Results showed that pyrolysis technology is moving forward and is very close to commercialization. Catalysts play a vital role in the plastic pyrolytic oil extraction process. Catalysts push the pyrolysis process to the next level by reducing energy input to the pyrolysis process, shortening the desalination process of oil after extraction, adding value, and reducing solid char quantity through the process of effective cracking. However, catalyst usage raises trouble, such as reusability, acting at a different phase, cost, availability, and surface /volume ratio. Nano catalyst overcomes the troubles. This review comprehensively discusses the pyrolysis type's subsequent section, catalytic pyrolysis, and different catalyst reaction reviewed; the incorporative section nano catalyst usage in pyrolysis is discussed. The last section shares the results of plastic oil-fueled internal combustion (IC) engines along with nano additive impact. This evaluation gives a clear vision to create strong environmental stewardship with the local community through better waste management practices.
塑料废物作为内燃机中可替代的可持续燃料——综述
热解为解决紧迫的环境恶化和能源短缺问题提供了可持续的解决方案。热解的增值在固碳、增值化学品、能源回收、废物最小化和土壤修复方面取得了更好的结果。此外,它还减少了与焚烧和其他塑料废物管理方法相关的温室气体排放。本文综述的目的是探讨各种热解技术和催化剂,以提高塑料的热解。首先,研究了与最新热解技术相关的基本塑料热解油提取方法。结果表明,热解技术正在向前发展,离商业化已经很近了。催化剂在塑料热解油提取过程中起着至关重要的作用。催化剂通过减少热解过程的能量输入,缩短萃取后油的脱盐过程,增加附加值,通过有效裂解过程减少固体炭的数量,将热解过程推进到一个新的水平。然而,催化剂的使用带来了一些问题,如可重复使用性、在不同的阶段起作用、成本、可用性和表面/体积比。纳米催化剂克服了这些麻烦。本文综合论述了热解类型的后继部分,催化热解,并对不同的催化剂反应进行了综述;讨论了纳米催化剂在热解过程中的应用。最后一节分享了塑料燃油内燃机(IC)发动机的结果以及纳米添加剂的影响。这项评估提供了一个清晰的愿景,即通过更好的废物管理做法,与当地社区建立强有力的环境管理。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Results in Engineering
Results in Engineering Engineering-Engineering (all)
CiteScore
5.80
自引率
34.00%
发文量
441
审稿时长
47 days
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