面向商业化的碳纳米管增强复合材料网格线优化

A. Chávez, B. Rummel, Nicolas Dowdy, Sangmok Han, N. Bosco, B. Rounsaville, A. Rohatgi
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引用次数: 0

摘要

光伏组件中的太阳能电池在野外运行过程中受到环境压力的影响,包括极端天气事件,如冰雹和飓风。这些裂缝可导致逐渐或立即的急性功率退化。为了直接解决细胞裂纹引起的降解问题,我们为商业丝网印刷银浆配制了一种碳纳米管添加剂。我们在之前的研究中已经表明,这些金属基复合材料对电池的效率几乎没有影响,但却提高了金属化的断裂韧性和电隙桥接能力。在这项工作中,我们的重点是优化复合金属化,以达到最佳的性能。我们发现,减少碳纳米管在膏体中的团聚不仅提高了窄网格线的印刷性,而且还使金属化的韧性模量提高了500%以上。
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Optimization of Carbon-Nanotube-Reinforced Composite Gridlines Towards Commercialization
Solar cells in PV modules crack during field operation from environmental stressors, including extreme weather events, such as hailstorms and hurricanes. These cracks can lead to gradual or immediate acute power degradation. To directly address cell-crack-induced degradation, we have formulated a carbon nanotube additive for commercial screen printed silver pastes. We have shown in previous work that these metal matrix composites have little to no effect on the cell’s efficiency while enhancing the metallization’s fracture toughness and electrical gap-bridging capability. In this work, we focus on optimizing the composite metallization to achieve the best possible performance. We discover that reducing carbon nanotube agglomerations in the paste not only improves the printability for narrow gridlines, but also increases the modulus of toughness of the metallization by over 500%.
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