用热脉冲等离子体技术处理危险废物和回收有价值的产品

S. Wald, A. Pokryvailo, G. Appelboim, M. Katz, E. Weiss
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引用次数: 3

摘要

物质裂解或分解是化学工业中一个基本的、必不可少的过程。这个过程是一个主要的能源消耗和环境污染的原因。提出了一种新的、高效的、环保的、可用于材料处理和回收闭环过程的技术和设备。这个想法是使用高能脉冲等离子体射流来分解材料。等离子体的特性使最有效的辐射热传递到处理过的材料床。因此,增强的能量转移到选定的化学键实现。这个过程可以定义为一个高效的光解过程。对1,2-二氯乙烷(DCE)进行了概念验证试验。原料分批进料,每批进料几克。DCE的完全分解以低于传统处理所需能耗的60%实现。一个模块化的可移动实验室已经在4个欧洲Brite Euram研发计划的框架内建成。它包括一个30千瓦的脉冲电源,具有全固态开关系统,密闭等离子放电注入器,反应器和气体处理和监测系统。预计处理能力为5-10公斤/小时的液体废物。等离子体注入器可在重复模式下工作,预期寿命为10/sup / 5/脉冲。给出了主要部件的仿真和实验表征。预计所提出的方法将是许多流体废物的最佳可用技术。
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Hazardous waste treatment and valuable products recovery with a thermal pulsed-plasma technology
Material cracking, or decomposition, is a basic and essential process in chemical industries. This process is a major energy consumer and a cause of environmental pollution. A new, efficient and environmentally friendly technique and equipment that can be used in a closed-loop process for the treatment and recovery of materials is proposed. The idea is to decompose a material using a high-energy pulsed-plasma jet. The plasma specific features enable a most efficient radiative heat transfer to the treated material bed. Therefore, enhanced energy transfer to selected chemical bonds is achieved. The process can be defined as a highly efficient photolysis. Proof-of-concept tests were carried out on 1,2-Dichloroethane (DCE). The material was fed in batches of a few grams each. A total decomposition of the DCE was achieved with less than 60% of the energy consumption required in a conventional treatment. A modular transportable laboratory has been constructed in the framework of 4 European Brite Euram R and D program. It comprises a 30 kW pulsed power supply featuring an all-solid state switching system, confined plasma discharge injector, reactor and gas handling and monitoring systems. The expected treatment capacity is 5-10 kg/hour of fluid waste. The plasma injector is designed to operate in repetitive mode with expected lifetime of 10/sup 5/ pulses. Simulations and experimental characterization of major components are presented. It is expected that the proposed method will be the best available technology for many fluid wastes.
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