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Catalytic Microwave Process for Upgrading of Pyrolysis Liquids from Ubiquitous Plastic Wastes

Catalytic Microwave Process for Upgrading of Pyrolysis Liquids from Ubiquitous Plastic Wastes
催化微波工艺对无处不在的塑料废物中的热解液进行升级
批准号:
EP/Y001168/1
负责人:
Joseph Wood
金额:
$67.97万
依托单位:
依托单位国家:
英国
项目类别:
Research Grant
财政年份:
2024
资助国家:
英国
项目状态:
未结题
起止时间:
2024 至 --

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中文摘要
翻译
塑料在现代生活中无处不在,全球年产量约为2.6亿吨,2019年仅回收9%。8.3全球总共生产了10亿吨塑料,预计到2050年,垃圾填埋场或环境中的塑料将达到120亿吨,需要400年才能自然降解。未来,预计塑料的需求和生产将强劲增长,而对温室效应的担忧需要减少二氧化碳排放和对化石燃料的依赖以满足立法要求。塑料可以通过一系列机械、热和化学技术进行回收,每种方法都有优点和缺点。一些化学回收技术,如糖酵解,只适用于特定类型的聚合物。其他途径,如机械回收,生产较低等级的产品,而热技术需要高能量输入。包括聚氯乙烯等卤化聚合物在内的混合废物是一个挑战,因为氯是一种潜在的催化剂毒物。因此,需要一种回收和升级工艺,可以处理作为混合废物流的一部分的聚合物衍生的一系列不同的热解油,可以处理污染物并生产增值产品。在Catawave,我们的目标是解决上述问题,并开发一种强大的和节能的工艺,以升级来自一系列塑料废物流的热解液体。为此,我们汇集了几种新的必要技术,其中包括开发定制催化剂,以有效地升级热解油。这些将由工业金属加工或采矿废物副产品(如“红泥”)和已知的烃裂化催化剂(如ZSM-5沸石)配制而成,选择的样品将包含对微波敏感的碳颗粒,以帮助加热。我们将评估与传统的电阻加热相比,流动反应器中的微波或感应加热是否可以提供更有效和节能的过程,并结合开发的催化剂。升级后的石油产品将使用一系列技术进行表征,目的是升级以提高产品的价值,包括升级以满足直接使用燃料所需的标准。将使用一系列技术来表征新鲜和废催化剂,以了解其催化行为和失活。实验研究的结果将被应用于开发一个动力学模型,使用集总方法包括组件组,这将被用来通知工业化过程的反应器的设计和放大。将开发技术经济模型,以告知流程的可扩展性和盈利能力,例如吨位吞吐量的选择,废物的分布式或集中处理。我们已经聘请了来自废物生产、回收、燃料和过程模拟领域的项目合作伙伴,包括Sabien Technology Plc、Halocycle、塞文特伦特绿色电力、Pressvess和三菱化学。他们将提供热解油样品用于升级,就催化剂配方提供建议,协助工艺设计和经济评估,就工作计划提供技术咨询,并帮助制定支持信中概述的商业化和影响交付路线。
英文摘要
Plastics are ubiquitous in modern life, with global production of ~260 million tonnes per year and only 9 % recycled in 2019. 8.3 billion tonnes of plastic have been produced in total and predicted 12 billion tonnes in landfill or environment by 2050, taking 400 years to degrade naturally. In future, a strong growth in demand for and production of plastics is expected, whilst concerns for the greenhouse effect necessitate that carbon dioxide emissions and reliance on fossil fuels are decreased to meet legislation. Plastics can be recycled via a range of mechanical, thermal and chemical techniques, each route having advantages and disadvantages. Some chemical recycling techniques, such as glycolysis, are applicable only to particular types of polymer. Other routes, such as mechanical recycling, produce a lower grade product, whilst thermal techniques require a high energy input. Mixed waste, including halogenated polymers such as polyvinyl chloride presents a challenge, as the chlorine is a potential catalyst poison. A recycling and upgrading process is thus required that can process a range of different pyrolysis oils derived from polymers as part of a mixed waste stream, can deal with contaminants and produce a value-added product.In Catawave we aim to address the above issues and develop a robust and energy efficient process to upgrade pyrolysis liquids derived from a range of plastic waste streams. To do this we bring together several novel requisite technologies, which will include the development of bespoke catalysts to effectively upgrade the pyrolysis oils. These will be formulated from industrial metal processing or mining waste by-products such as 'red mud' and known hydrocarbon cracking catalysts such as zeolite ZSM-5, and select samples will incorporate microwave susceptible carbon particles to aid their heating. We will assess whether microwave or induction heating in a flow reactor can deliver a more effective and energy efficient process compared with conventional resistive heating, in conjunction with the developed catalysts. The upgraded oil products will be characterised using a range of techniques, with aim of upgrading to increase the value of products, including upscaling to meet standards required for drop-in fuels. Fresh and spent catalyst will be characterised using a range of techniques to understand their catalytic behaviour and deactivation. The results of the experimental studies will be applied to develop a kinetic model using lumped approach comprising component groups, which would be used to inform the design and scale-up of reactors for an industrialised process. Techno-economic modelling will be developed to inform the process scalability and profitability, for example the selection of tonnage throughput, distributed or centralised processing of waste. We have engaged Project Partners from across the waste producing, recycling, fuels and process simulation sectors including Sabien Technology Plc, Halocycle, Severn Trent Green Power, Pressvess and Mitsubishi Chemical. They will provide samples of pyrolysis oil for upgrading, advise on catalyst formulations, assist with process design and economic evaluation, give technical consultation on the work plan and help setup routes to commercialisation and impact delivery as outlined in their letters of support.
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Thermally Responsive Supports for Enhanced Efficiency in PET Depolymerisation
  • 批准号:
    EP/Y003667/1
  • 项目类别:
    Research Grant
  • 资助金额:
    $117.7万
  • 财政年份:
    2024
  • 负责人:
    Joseph Wood
  • 依托单位:
A Scalable Process for the Chemical Recycling of PET using Ionic Organocatalysts
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  • 项目类别:
    Research Grant
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    $119.95万
  • 财政年份:
    2022
  • 负责人:
    Joseph Wood
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Novel Membrane Catalytic Reactor for Waste Polylactic Acid Recycling and Valorisation
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    EP/P016405/1
  • 项目类别:
    Research Grant
  • 资助金额:
    $94.29万
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    Joseph Wood
  • 依托单位:
DIVA: Data Intensive Visual Analytics - Provenance and Uncertainty in Human Terrain Analysis
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    EP/J020443/1
  • 项目类别:
    Research Grant
  • 资助金额:
    $21.96万
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    2012
  • 负责人:
    Joseph Wood
  • 依托单位:
海外基金