1 00:00:00,000 --> 00:00:01,330 GW22型 2 00:00:01,330 --> 00:00:06,350 110千伏隔离开关是三相一体柱式垂直断口双臂折叠式高压 3 00:00:06,350 --> 00:00:07,280 电压电器 4 00:00:07,280 --> 00:00:09,440 在110千伏线路中 5 00:00:09,440 --> 00:00:11,270 它往往配合断路器 6 00:00:11,270 --> 00:00:13,210 用于分合和隔离线路 7 00:00:13,210 --> 00:00:15,090 以及对线路可靠接地 8 00:00:15,093 --> 00:00:18,483 保证了倒闸操作的严谨性和安全性 9 00:00:18,483 --> 00:00:20,203 上端触头为进线 10 00:00:20,203 --> 00:00:21,483 中间为出线 11 00:00:21,483 --> 00:00:24,633 折叠运动和夹紧运动复合协同设计 12 00:00:24,640 --> 00:00:27,746 兼顾了操作效率与电气稳定性 13 00:00:27,747 --> 00:00:31,127 它由隔离刀闸系统和接地系统组成 14 00:00:31,127 --> 00:00:33,397 隔离刀闸用于分合线路 15 00:00:33,397 --> 00:00:36,133 接地系统用于给线路做可靠接地 16 00:00:36,133 --> 00:00:39,563 隔离刀闸又分为操作机构和执行机构 17 00:00:39,563 --> 00:00:42,800 他俩之间通过机械的紧密配合去实现 18 00:00:42,800 --> 00:00:47,627 操作机构是将电能 通过电机旋转转换成机械能 19 00:00:47,627 --> 00:00:50,447 电机运转带动涡轮减速机运转 20 00:00:50,447 --> 00:00:54,107 减速后经齿盘带动竖轴及旋转瓷瓶旋转 21 00:00:54,107 --> 00:00:57,587 联动水平横杆和其他俩旋转瓷瓶运动 22 00:00:57,587 --> 00:00:59,797 迫使大臂向上做切线运动 23 00:00:59,800 --> 00:01:02,070 并压缩内部的弹簧储能 24 00:01:02,070 --> 00:01:05,020 经齿盘带动二臂同样向上伸展 25 00:01:05,020 --> 00:01:07,040 夹头碰到上端线路后 26 00:01:07,040 --> 00:01:09,780 大臂指尖压缩二臂里面的触杆 27 00:01:09,780 --> 00:01:11,940 从而让夹头夹紧线路 28 00:01:11,940 --> 00:01:13,907 并压缩内部弹簧储能 29 00:01:13,907 --> 00:01:15,747 从而完成合闸 30 00:01:15,747 --> 00:01:16,817 分闸时 31 00:01:16,817 --> 00:01:18,657 电机会反方向运转 32 00:01:18,657 --> 00:01:21,747 在机械能和里面储能弹簧的能量下 33 00:01:21,747 --> 00:01:23,187 夹紧触头分开 34 00:01:23,187 --> 00:01:24,887 展臂向下收缩 35 00:01:24,887 --> 00:01:28,287 通过齿轮箱驱动上导电管做复合运动 36 00:01:28,287 --> 00:01:32,007 连杆系统改变力的方向并带动下导电管转动 37 00:01:32,013 --> 00:01:34,827 形成有明显垂直断口的分闸 38 00:01:34,827 --> 00:01:36,717 当线路需要检修时 39 00:01:36,717 --> 00:01:39,217 可将接地刀闸做可靠接地 40 00:01:39,217 --> 00:01:40,987 通过操作机构的电机 41 00:01:40,987 --> 00:01:44,037 将电能转换成执行机构的机械能 42 00:01:44,037 --> 00:01:47,453 电机转动经涡轮减速机转换成竖杆转动 43 00:01:47,453 --> 00:01:49,953 带动接地刀闸做切线运动 44 00:01:49,953 --> 00:01:51,663 到达接地静触点 45 00:01:51,663 --> 00:01:53,253 实现明显可靠接地 46 00:01:53,814 --> 00:01:57,194 为实现线路的冷储备形成了完美闭环 47 00:01:57,194 --> 00:01:59,544 更为我们的安全保驾护航 48 00:01:59,544 --> 00:02:01,507 它三相一体式设计方案 49 00:02:01,507 --> 00:02:05,107 可以确保在电力系统中进行开关操作时 50 00:02:05,107 --> 00:02:07,907 三个相位的开关状态始终保持一 51 00:02:07,907 --> 00:02:09,627 提高了操作效率 52 00:02:09,627 --> 00:02:11,447 增强了系统稳定性 53 00:02:11,447 --> 00:02:13,974 降低了故障风险和维护成本 54 00:02:13,974 --> 00:02:18,414 其垂直式结构也减小了体积 可节省安装空间