激光诱导气泡爆炸反应对铝合金棒除冰的影响

Wenjun Xu, Jian Zhang, Yifeng Chen, Wei Xue, Yu Cao
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引用次数: 0

摘要

在寒冷的冬季,结冰是电力系统输电线路的主要安全隐患。传统的除冰方法如机械除冰、热熔丝除冰等,具有能源成本高、耗时长、不可避免地对输电线路外表面造成明显损伤等特点。提出了一种利用激光诱导气泡爆炸反应(LIBER)消除输电线路上结冰的新方法。研究了激光功率、扫描速度、泡沫层厚度和冰层厚度对激光除冰的影响,结果表明,扫描速度为10 ~ 20mm/s,激光功率为1000 ~ 2000W时,可以实现除冰。成功去除了厚度为3 ~ 7mm的冰积物,对基板表面无损伤或可忽略不计的损伤,验证了这种基于lib的新型除冰方法的可行性,在电网实际除冰场景中具有重要应用价值。
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Deicing of aluminum alloy rod by laser induced bubble explosion reaction
Icing is a major security risk for transmission line of power systems in the cold winter. Traditional deicing methods such as mechanical deicing and thermos-fuse methods are characterized by high energy cost, time consuming and inevitable obvious damage to the external surface of transmission line. A novel method of laser induced bubble explosion reaction (LIBER) to remove ice accretion on transmission line is promoted in this work. The effects of laser power, scanning speed, thickness of foaming layer and ice layer on laser deicing were studied and the results showed that the removal of ice accretion could be achieved with scanning speed of 10 ∼ 20mm/s and laser power ranging from 1000 to 2000W. Ice accretions with the thickness from 3 to 7mm were successfully removed with no damage or negligible damage to the substrate surface, which validated the feasibility of this new LIBER-based deicing method that would have significant applications to the actual deicing scenarios of power grid.
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