分布式SCADA发电优化系统

S. R. Valsalam, A. Sathyan, S. Shankar
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引用次数: 11

摘要

根据国际能源署(IEA)的数据,到2030年,全球能源需求将比现在高出50%以上,平均每年增长1.8%。在这种情况下,基于现代信息技术的监控和数据采集系统(SCADA)具有更大的意义,可以通过确保最佳利用可用资源来实现电厂运行的最高效率。在本文中,我们介绍了由Thiruvananthapuram高级计算发展中心开发的可扩展分布式智能SCADA系统的显著特征,该系统正在西孟加拉邦Teesta运河沿线的一系列水电站中实施。除了个别电厂的监测和控制外,该系统还可以从一个中央电站协调远程监测和控制三个发电厂及其相关的运河水流。我们的SCADA技术的构建模块在钢铁厂,热电厂,配电自动化系统,水处理厂和其他过程工业和运输系统中得到了很好的验证。系统开发和实现的总体理念是分布式结构,在所有级别都内置了冗余。现代计算机系统的先进人机界面、智能过程控制器、现场总线上的分布式控制节点和工厂优化模型等都体现了该系统的优越性。采用Hydel专用优化模块,提前识别和预测流体流动回路中的泄漏,以便在适当的时刻采取应对措施。该系统试图最优地利用运河中的水流,以最大限度地从工厂发电。实现的系统架构提供了自适应迁移到未来先进自动化系统技术的渐进路径。SCADA系统实施后,电站1、电站2、电站3最大限度地利用了水,实现了发电量的增加。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Distributed SCADA system for optimization of power generation
According to the International Energy Agency (IEA) the worldpsilas energy needs would be well over 50% higher in 2030 than today at an average annual rate of 1.8% per year. Modern Information Technology based Supervisory Control and Data Acquisition Systems (SCADA) assume greater significance in this context to derive maximum efficiency in power plant operations by ensuring optimal use of available resources. In this paper, we present the salient features of scalable, distributed Intelligent SCADA System developed by Centre for Development of Advanced Computing, Thiruvananthapuram and being implemented in a chain of hydel power stations along the Teesta canal in West Bengal. Besides individual plant monitoring and control, the system facilitates co-ordinated remote monitoring and control of three power stations and their associated canal water flow from a central station. The building blocks of our SCADA technology are well proven in Steel plants, Thermal power plants, Power Distribution Automation Systems, Water treatment plants and other Process industries and Transportation systems. The overall philosophy for system development and implementation is one of distributed structure with redundancy built in at all levels. Advanced Human Machine Interface on modern computer systems, Intelligent Process Controllers, Distributed Control Nodes over the field bus and the plant optimization models depict the superiority of the system. Hydel specific optimization modules are implemented to identify and predict in advance the leakage in fluid flow circuits, in order to take counter measures at the appropriate instants. The system tries to utilize optimally the water flow in the canal for maximum power generation from the plants. The implemented system architecture provides a progressive path of adaptive migration to tomorrow's advanced Automation Systems Technology. After the SCADA system implementation, Power Stations -I, II & III has achieved an increase in power generation by utilizing the water at its maximum.
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