太阳能光伏非碳高温冶炼实验及能量研究

特殊钢 ›› 2010, Vol. 31 ›› Issue (3): 16-19.

太阳能光伏非碳高温冶炼实验及能量研究

吴华峰¹，李士琦¹，袁海伦^1,2，钱刚³，朱荣¹，王玉刚¹，韩建军¹

1北京科技大学冶金与生态工程学院，北京100083；
2中信重工机械股份有限公司，洛阳471039；
3湖北新冶钢大冶特殊钢股份有限公司，黄石435001

收稿日期:2009-12-18 出版日期:2010-06-01 发布日期:2022-11-07
作者简介:吴华峰( 1980-),男，博士生，清洁能源冶金和系统工程研究。

A Study on Non-Carbon Smelting Experiment and Process Energy at High Temperature by Solar Photovoltaic Technology

Wu Huafeng¹ , Li Shiqi¹ , Yuan Hailun^1,2, Qian Gang³, Zhu Rong¹, Wang Yugang¹， Han Jianjun¹

1 Metallurgical and Ecological Engineering School, University of Science and Technology , Beijing 100083 ；
2 CITIC Heavy Industries Co Ltd, Luoyang 471039；
3 Daye Special Steel Corp Ltd, Hubei Xinyegang, Huangshi 435001

Received:2009-12-18 Published:2010-06-01 Online:2022-11-07

摘要/Abstract

摘要： 提出了"太阳能光伏非碳冶金"的概念,根据研究需要,确定了其实验系统构成及参数,设计制造了1kg公称容量的实验炉。进行了"太阳能光伏非碳冶金"高温冶炼实验,确定了工艺参数,并进行了冶炼过程物料和热量的衡算。实验结果表明,所设计的系统满足冶炼要求,有较好的稳定性及可操作性。通过砽的计算可知太阳能光伏技术利用是一个将其自身砽值提高的过程。

关键词: 太阳能光伏, 非碳冶金, 高温熔炼, 物料衡算, 能量衡算, 砽计算

Abstract: A new concept of "non-carbon metallurgy by solar energy photovoltaic technology" is proposed, according to the research requirement its experimental system structure and parameters are defined and I kg-capacity experimental furnace is designed and manufactured. With defined process parameters and balance-calculated charging mass and heat energy in smelting process, the high temperature smelting test of non-carbon metallurgy by solar energy photovoltaic technology '' has been carried out. Test results show that the designed system meets the requirement of smelting and has better stability and operability. With exergy calculation it is obtained that the utilization of solar photovoltaic technology' is a process to increase itself exergy value.

吴华峰, 李士琦, 袁海伦, 钱刚, 朱荣, 王玉刚, 韩建军. 太阳能光伏非碳高温冶炼实验及能量研究[J]. 特殊钢, 2010, 31(3): 16-19.

Wu Huafeng , Li Shiqi , Yuan Hailun, Qian Gang, Zhu Rong, Wang Yugang, Han Jianjun. A Study on Non-Carbon Smelting Experiment and Process Energy at High Temperature by Solar Photovoltaic Technology[J]. Special Steel, 2010, 31(3): 16-19.