...
首页> 外文期刊>Innovative Systems Design and Engineering >Power Loss Reduction in Radial Distribution System by Using Plant Growth Simulation Algorithm
【24h】

Power Loss Reduction in Radial Distribution System by Using Plant Growth Simulation Algorithm

机译:利用植物生长模拟算法减少径向配电系统的功率损耗

获取原文

摘要

The availability of an adequate amount of electricity and its utilization is essential for the growth and development of the country. The demand for electrical energy has outstripped the availability causing widespread shortages in different areas. The distribution network is a crucial network, which delivers electrical energy directly to the doorsteps of the consumer. In India the distribution networks are contributing to a loss of 15% against total system loss of 21%. Hence, optimal capacitor placement in electrical distribution networks has always been the concern of electric power utilities. As Distribution Systems are growing large and being stretched too far, leading to higher system losses and poor voltage regulation, the need for an efficient and effective distribution system has therefore become more urgent and important. In this regard, Capacitor banks are added on Radial Distribution system for Power Factor Correction, Loss Reduction and Voltage profile improvement. As Distribution Systems are growing large and being stretched too far, leading to higher system losses and poor voltage regulation, the need for an efficient and effective distribution system has therefore become more urgent and important. In this regard, Capacitor banks are added on Radial Distribution system for Power Factor Correction, Loss Reduction and Voltage profile improvement. Therefore it is important to find optimal location and sizes of capacitors required to minimize feeder losses. Reactive power compensation plays an important role in the planning of an electrical system. Reactive power compensation plays an important role in the planning of an electrical system. Capacitor placement & sizing are done by Loss Sensitivity Factors and Plant Growth Simulation Algorithm respectively. Loss Sensitivity Factors offer the important information about the sequence of potential nodes for capacitor placement. These factors are determined using single base case load flow study. Plant Growth Simulation Algorithm is well applied and found to be very effective in Radial Distribution Systems. The proposed method is tested on 33 and 34 bus distribution systems. The objective of reducing the losses and improvement in voltage profile has been successfully achieved. The main advantage of the proposed approach in relation to previously published random algorithms is that it does not require any external parameters such as barrier factors, crossover rate, mutation rate, etc. These parameters are hard to be effectively determined in advance and affect the searching performance of the algorithm new approach based on a plant growth simulation algorithm (PGSA) is presented for reactive power optimization. PGSA is a random search algorithm inspired by the growth process of plant phototropism. The objective function for optimization is to minimize the system active power loss.
机译:充足的电力供应和利用对于该国的成长和发展至关重要。对电能的需求超过了可用性,导致了不同地区的普遍短缺。配电网络是至关重要的网络,可将电能直接输送到消费者的家门口。在印度,配电网络造成的损失为15%,而整个系统的损失为21%。因此,配电网络中的最佳电容器布置一直是电力公司关注的问题。随着配电系统的不断壮大和延伸范围过大,导致更高的系统损耗和不良的电压调节,因此对高效有效配电系统的需求变得更加紧迫和重要。在这方面,在径向分布系统上增加了电容器组,以进行功率因数校正,降低损耗和改善电压曲线。随着配电系统的不断壮大和延伸范围过大,导致更高的系统损耗和不良的电压调节能力,对高效有效配电系统的需求因此变得更加紧迫和重要。在这方面,在径向分布系统上增加了电容器组,以进行功率因数校正,降低损耗和改善电压曲线。因此,找到使馈线损耗最小化所需的最佳电容器位置和尺寸非常重要。无功补偿在电气系统规划中起着重要作用。无功补偿在电气系统规划中起着重要作用。电容器的放置和大小分别由损耗敏感度因子和植物生长模拟算法完成。损耗灵敏度因子提供了有关电容器放置的潜在节点顺序的重要信息。这些因素是通过单基本案例潮流研究确定的。植物生长模拟算法得到了很好的应用,并且在径向分布系统中非常有效。该方法在33和34总线分配系统上进行了测试。已经成功实现了减少损耗和改善电压曲线的目的。相对于先前发布的随机算法,该方法的主要优点是它不需要任何外部参数,例如障碍因子,交叉率,变异率等。这些参数很难预先有效地确定并影响搜索。算法的性能提出了一种基于植物生长模拟算法(PGSA)的新方法,用于无功优化。 PGSA是一种受植物光敏性生长过程启发的随机搜索算法。优化的目标功能是使系统有功功率损耗最小。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号