太陽能作為一種清潔、可再生能源，在臺灣具有廣泛的應用前景。隨著國家發展目標和科技進步背景下，太陽能的發電成本持續下降，全球太陽能發展呈現穩定增長趨勢。
目前臺灣太陽能裝置支架多使用鋼構製造，鋼構廣泛應用於建築和工程領域，但高昂的成本和維護問題一直是工程師長期面臨的挑戰。鋼構常因國際原料價格波動造成開發商難以控制成本，製造運輸成本也難以降低，而許多太陽能支架位於沿海地帶，常會受到嚴重鏽蝕問題的影響。因此，我們需要進一步研究鋼構支架，或尋找其他替代材料。
超高性能混凝土（UHPC）是一種具有許多結構設計優勢的新型結構材料，如強度高、耐久性好、具有優異的抗腐蝕性。在橋梁和建築領域已有許多成功案例。玻璃纖維加強筋 (GFRP) 是一種由玻璃纖維和聚合物樹脂組成的複合材料，在建築和工程領域中廣泛應用。相較於傳統的鋼筋，玻璃纖維加強筋具有重量輕、不導電、不磁性、抗腐蝕和耐疲勞等優點。希望透過本研究進行超高性能混凝土搭配玻璃纖維加強筋作為鋼構支架替代方案的可行性分析。希望可以克服傳統鋼構支架所面臨的成本高、腐蝕風險大等問題，同時提高支架的穩定性和耐久性，降低維護成本。隨著太陽能產業的快速發展和政府對再生能源政策的支援，在採用超高性能混凝土太陽能支架方面將具有巨大的潛力和可持續性。

As a clean and renewable energy source, solar energy has broad application prospects in Taiwan. With the background of national development goals and scientific and technological progress, the cost of solar power generation continues to decline, and global solar energy development shows a steady growth trend.
At present, Taiwan's solar installation brackets are mostly made of steel structures. Steel structures are widely used in the construction and engineering fields. However, high costs and maintenance issues have always been a long-term challenge for engineers. Steel structures often suffer from fluctuations in international raw material prices, making it difficult for developers to control costs and reduce manufacturing and transportation costs. Many solar racks are located in coastal areas and are often affected by severe corrosion problems. Therefore, we need to further study steel supports or find other alternative materials.
Ultra high performance concrete (UHPC) is a new structural material with many structural design advantages, such as high strength, good durability, and excellent corrosion resistance. There are many successful cases in the bridge and construction fields. Glass fiber reinforced plastic (GFRP) is a composite material composed of glass fiber and polymer resin, which is widely used in the construction and engineering fields. Compared with traditional steel bars, fiberglass bars have the advantages of being lightweight, non-conductive, non-magnetic, corrosion-resistant and fatigue-resistant. Through this study, we hope to conduct a feasibility analysis on the feasibility of ultra high performance concrete combined with glass fiber bars as an alternative to steel supports.

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