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  • 吳華峰, 李士琦, 朱榮, 王玉剛, 劉潤藻. 太陽能光伏非碳冶金實驗研究[J]. 工程科學學報, 2009, 31(S1): 22-27. DOI: 10.13374/j.issn1001-053x.2009.s1.037
    引用本文: 吳華峰, 李士琦, 朱榮, 王玉剛, 劉潤藻. 太陽能光伏非碳冶金實驗研究[J]. 工程科學學報, 2009, 31(S1): 22-27. DOI: 10.13374/j.issn1001-053x.2009.s1.037
    WU Hua-feng, LI Shi-qi, ZHU Rong, WANG Yu-gang, LIU Run-zao. Experimental research on non-carbon metallurgy by solar photovoltaic technology[J]. Chinese Journal of Engineering, 2009, 31(S1): 22-27. DOI: 10.13374/j.issn1001-053x.2009.s1.037
    Citation: WU Hua-feng, LI Shi-qi, ZHU Rong, WANG Yu-gang, LIU Run-zao. Experimental research on non-carbon metallurgy by solar photovoltaic technology[J]. Chinese Journal of Engineering, 2009, 31(S1): 22-27. DOI: 10.13374/j.issn1001-053x.2009.s1.037

    太陽能光伏非碳冶金實驗研究

    Experimental research on non-carbon metallurgy by solar photovoltaic technology

    • 摘要: 通過現有鐵源利用及碳冶金流程分析,提出了太陽能光伏非碳冶金概念.太陽能光伏非碳冶金研究包括高溫冶煉、非碳還原介質的選擇及還原-熔融三個方面.自主設計制造了1kg容量的太陽能非碳冶金系統,進行了三類非碳冶金實驗.實驗結果表明太陽能光伏非碳冶金在技術上可行,自主設計制造的太陽能光伏非碳冶金系統均能滿足冶煉要求.高溫冶煉實驗光伏電池轉換率9.8%,鋼水熱焓占總能量消耗5%;非碳還原制鐵實驗電解法電流效率平均為85.1%,最高可達97.6%;氫還原Fe2O3還原度影響因素由強到弱依次為:氣氛、溫度、時間、粒度.根據實驗結果,研究還需深化,以尋求太陽能光伏非碳冶金系統更好的經濟性、穩定性及可操作性.

       

      Abstract: A new concept named "non-carbon metallurgy by solar energy photovoltaic technology" was put forward through the analysis of the iron source usage and the carbon metallurgy process. The main study included smelting at high temperature, no-carbon reduction, and melting-reduction. The experimental system with 1-kg capacity was designed and manufactured. Three kinds of experiments were carried out. It shows that the concept of "non-carbon metallurgy by solar energy photovoltaic technology" is feasible and the system can meet the needs of smelting. The conversion rate of the photovoltaic cell is 9.8% and the steel enthalpy accounts for 5% of the total energy consumption in the high temperature smelting experiment. The current efficiency is 85.1% with the highest being 97.6% during the electrolysis process. The decrease order of influence on the reduction degree of Fe2O3 is atmosphere temperature, time, and particle size in the hydrogen reduction process. According to the results, further study is needed to get better economy, stability, and operability of this system.

       

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