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Monitoring and Control in Underground Coal Gasification: Current Research Status and Future Perspective

机译:地下煤气化监测与控制:当前研究现状和未来的视角

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摘要

By igniting in the coal seam and injecting gas agent, underground coal gasification (UCG) causes coal to undergo thermochemical reactions in situ and, thus, to be gasified into syngas for power generation, hydrogen production, and storage. Compared with traditional mining technology, UCG has the potential sustainable advantages in energy, environment, and the economy. The paper reviewed the development of UCG projects around the world and points out that UCG faces difficulties in the field of monitoring and control in UCG. It is expounded for the current research status of monitoring and control in UCG, and clarified that monitoring and control in UCG is not perfect, remaining in the stage of exploration. To improve the problem of low coal gasification rate and gas production, and then to make full use of the potential sustainable advantages, the paper offers a perception platform of a UCG monitoring system based on the Internet-of-Things (IoT) and an optimal control model for UCG based on deep learning, and has an outlook on breakthrough directions of the key technologies related to the package structure design for moisture-proof and thermal insulation, antenna design, the strategy for energy management optimization, feature extraction and classification design for the network model, network structure design, network learning augmentation, and the control of the network model, respectively.
机译:通过在煤层点燃和注入气体剂,煤炭地下气化(UCG)导致煤经历原位和热化学反应,因此,待气化成合成气用于发电,氢生产和存储。与传统的开采技术相比,UCG在能源,环境和经济的潜在优势,可持续。本文回顾了世界各地的UCG项目点的发展指出,UCG面临的UCG监测和控制领域的困难。它阐述了在UCG监视和控制的研究现状,并澄清说,UCG监测和控制是不完美的,留在探索阶段。为了提高低煤气化率和产气的问题,然后充分利用的潜在可持续的优势,本文提供了基于互联网的,事物的(IOT)一个UCG监控系统的感知平台和最佳基于深度学习的UCG控制模型,并且对相关的封装结构设计,防潮和保温,天线设计,在战略能源管理优化,特征提取和分类设计的关键技术突破方向进行了展望网络模型,网络结构设计,网络学习增强,和网络模型的控制下,分别。

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