檢視夏德宏的原始碼

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|<center>''' 夏德宏  '''<br><img src=" http://seee.ustb.edu.cn/attach/file/shiziduiwu/quantijiaoshi/2018-10-24/ed839a2890927d5863b34c37ddd0e5d2.jpg " width="180"></center><small>[http://seee.ustb.edu.cn/shiziduiwu/quantijiaoshi/2018-10-24/111.html  北京科技大学能源与环境工程学院]

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'''夏德宏'''，男，北京科技大学能源与环境工程学院教授。

==人物简历==
=== 教育经历 ===

1979.9~1983.7 北京科技大学（原北京钢铁学院）冶金系 冶金炉专业 工学学士

1983.9~1985.12 北京科技大学（原北京钢铁学院）冶金系 热能工程专业 工学硕士

1990.03~1992.09 作为联合国开发计划署（UNDP）选派的高级访问学者， 在The Catholic University of America从事煤炭清洁利用国际合作研究

=== 工作经历 ===

2016.04~至今 北京科技大学能源与环境工程学院 教授、副院长

2009.10~2016.04 北京科技大学机械工程学院 教授、副院长

2001.10~2009.10 北京科技大学热能工程系 教授、系副主任

1992.10~2001.10 北京科技大学热能工程系 副教授

1985.12~1992.10 北京科技大学热能工程系 讲师

==研究方向==

1）工业节能与低碳技术

2）清洁能源开发与能源高效利用

3）[[非线性热科学理论]]与应用

4）废弃物全资源化利用

5）污染物形成机制与控制

==社会兼职==

[[北京热物理与能源工程学会]]常务理事。

国家水煤浆工程技术中心工业炉窑燃烧技术中心主任

==科研项目==

[1] 2017~2020，小颗粒页岩干馏技术研发（企业合作）

[2] 2017~2019，蓄热式轧钢加热炉能效数据的测试与收集（中国标准化研究院）

[3] 2015~2018，节能环保型轻烧氧化镁新技术研发（企业合作）

[4] 2015~2018：立式石墨化炉配套余热回收系统设计（企业合作）

[5] 2015~2018，褐煤全循环提质技术研究与关键设备开发（企业合作）

[6] 2014~2017，直接还原中的焙烧与还原热工工艺设计、仿真与优化研究（中国钢研）

[7] 2014~2017，中国油页岩全资源循环利用开发研究（企业合作）

[8] 2014~2017，基于贫氧燃烧和高温热回收技术节能工业炉的开发（企业合作）

[9] 2014~2017，油页岩干馏炉及其配套干馏工艺系统设计、软件包的开发（企业合作）
==获奖情况==

[1] 2018年，获国务院政府特殊津贴

[2] 1993年，“工业炉窑水煤浆燃烧成套技术”获国家科学技术进步三等奖

[3] 2016年，获评北京市高等学校教学名师

[4] 2014年，获评宝钢优秀教师奖

[5] 2004年，“烧结机水煤浆点火新技术”获得中国冶金矿山科学技术奖

[6] 2002年，“烧结机用乳化及再辐射聚焦点火技术”获北京市科学技术三等奖
==学术成果==
=== 论文 ===
[1] Jiang B, Xia D*, Yu B, Xiong R, Ao W, Zhang P, Cong L, An environment-friendly process for limestone calcination with CO2 looping and recovery. Journal of Cleaner Production, 2019, 240: 188147. (SCI, 5-Year IF: 7.051)

[2] Jiang B, Xia D*, Guo H, Xiao L, Qu H, Liu X, Efficient waste heat recovery system for high-temperature solid particles based on heat transfer enhancement. Applied Thermal Engineering, 2019, 155: 166-174. (SCI, 5-Year IF: 4.022)

[3] Jiang B, Xie Y, Xia D*, Liu X, A potential source for PM2.5: Analysis of fine particle generation mechanism in Wet Flue Gas Desulfurization System by modeling drying and breakage of slurry droplet. Environmental Pollution, 2019, 246: 249-256. (SCI, 5-Year IF: 6.152)

[4] Jiang B, Xia D*, Zhai F, Zhang R, Liu X, Theoretical heat conduction equation based on micro particle vibration fundamental. International Journal of Thermal Sciences, 2019, 140: 521-529. (SCI, 5-Year IF: 3.623)

[5] Jiang B, Xie Y, Xia D*, Liu X, Effect of the molecular structure of volatile organic compounds on atmospheric nucleation: A modeling study based on gas kinetic theory and graph theory, Atmospheric Environment, 2019, 213: 215-222. (SCI, 5-Year IF: 4.459)

[6] Yan S, Xia D*, Zhang X, Jiang B, A complete depolymerization of scrap tire with supercritical water participation: A molecular dynamic simulation study. Waste Management, 2019, 93:83-90. (SCI, 5-Year IF: 5.993)

[7] Jiang B, Xia D*, Zhang X. A multicomponent kinetic model established for investigation on atmospheric new particle formation mechanism in H2SO4-HNO3-NH3-VOC system. Science of the Total Environment, 2018, (616-617): 1414-1422. (SCI, 5-Year IF: 5.727)

[8] Wen Y, Xia D*. Particle size prediction of magnesium nanoparticle produced by inert gas condensation method. Journal of Nanoparticle Research, 2018, 20(1):4.

[9] Jiang B, Wen Y, Li Z, Xia D*, Liu X.Theoretical Analysis on the Removal of Cyclic Volatile Organic Compounds by Non-Thermal Plasma. Water, Air, & Soil Pollution, 2018, 229(2):35. (SCI, 5-Year IF: 1.774)

[10] Jiang B, Xia D*. Role identification of NH3 in atmospheric secondary new particle formation in haze occurrence of China, Atmospheric Environment, 2017, (163): 107-117. (SCI, 5-Year IF: 4.459)

[11] Wen Y, Xia D*, Xuan W. Modeling for particle size prediction and mechanism of silicon nitride nanoparticle synthesis by chemical vapor deposition. Aerosol Science and Technology, 2017, 51(7): 845-855. (SCI, 5-Year IF: 1.960)

[12] Wen Y, Xia D*. Particle size prediction of magnesium nanoparticle produced by inert gas condensation method. Journal of Nanoparticle Research, 2018, 20：4. (SCI, 5-Year IF: 2.009)

[13] Xia D*, Jiang B, Xie Y. Modeling and analysis of PM 2.5, generation for key factors identification in China. Atmospheric Environment, 2016, 134:208-216. (SCI, 5-Year IF: 4.459)

[14] Xia D*, Li Z, Xie Y, Zhang X. Kinetic Simulations of Volatile Organic Compounds Decomposition by Non-thermal Plasma Treatment. Water, Air, & Soil Pollution. 2016, 227:463. (SCI, 5-Year IF: 1.774)

[15] Xia D*, Zhang Q, Wu H, Xuan W. New Process of High-Quality Syngas Production through Sequential Oxidation−Reduction Cycles of Pulverized Coals. Energy & Fuel, 2016, 30, 864-870. (SCI, 5-Year IF: 2.983)

[16] Wen Y, Xia D*. Influence of thermal process on particle size distribution of ultrafine magnesium powder prepared by inert gas condensation method. Powder Technology, 2015, 286:16-21. (SCI, 5-Year IF: 3.476)

[17] Xia D*, Wen Y, Ren L, Hu X. Mechanisms of thermal process of zinc ultrafine powder preparation by inert gas condensation. Powder Technology, 2014, 257(5):175-180. (SCI, 5-Year IF: 3.476)

[18] Xia D*, Wu H, Lei X. A sequential cycle of coal gas production with high heating value consisting of reduction and oxidation reactions. Fuel, 2014, 133(1):123-128. (SCI, 5-Year IF: 5.223)

[19] Xia D*, Shen, L., Ren, L., Guo, S. A binary array method for calculating thermal conductivity of porous materials. Journal of Thermal Analysis and Calorimetry, 2014, 117 (2):825-829. (SCI, 5-Year IF: 1.981)

[20] Zhu F., Zhou Y., Feng Q., Xia D*. Moisture diffusivity in structure of random fractal fiber bed. Physics Letters, Section A: General, Atomic and Solid State Physics, 2013, 377 (37):2324-2328. (SCI, 5-Year IF: 1.910)

[21] Xia D*, Zhang G，Guo L. Numerical Simulation and Innovation on Magnesium Reduction Process, Journal of Thermal Science, 2006(3): 15. (SCI, 5-Year IF: 0.633)

[22] Wu Y, Xia D*, Research on the Thermal Radiation Characteristics of Ionic Crystals, Heat Transfer—-Asian Research, 2006, 35(2).

[23] Xia D*, Wu Y. Heat Radiative Characteristics of Ultra-attenuated Materials，Journal of University of Science & Technology Beijing, 2004, 11 (4).

[24] Xia D*, Wu Y. A Mathematical Model for the Heat Radiation Characteristics of Materials, Journal of Thermal Science, 2004, 13(1). (SCI, 5-Year IF: 0.633)

[25] Xia D*, Wu Y. Enhancement of Heat radioactive characteristics of Coatings by Ultra-attenuation，Journal of University of Science & Technology Beijing, 2004, 11(2).

[26] Xia D*, Yu T. A Study on the Interaction Mechanism between Thermal Radiation and materials, 2005, 14(4).

=== 发明专利 ===

[1] 夏德宏，蒋滨繁，郭梁，赵栗，王杏坤，袁晓强，一种难浸金矿氧化热解耦预处理方法

[2] 蒋滨繁，敖雯青，夏德宏，张培昆，一种产物气循环煅烧石灰石与二氧化碳资源化回收工艺

[3] 蒋滨繁，郭浩，曲恒宇，刘向军，夏德宏，一种针对宽粒径散料的自然分级和均衡布料方法及装置

[4] 夏德宏,曲恒宇,刘向军,蒋滨繁,一种对高温含尘烟气的除尘换热一体化处理装置及方法

[5] 夏德宏,郭梁，一种废轮胎收油系统及收油方法

[6] 雷晓平，夏德宏，王旭佳，郭梁，赵栗，粉煤热解联合气化的系统及方法

[7] 夏德宏，张艳，胡枭，一种同心环式弹性金属蜂巢及热交换装置

[8] 雷晓平，夏德宏，徐元博，赵栗，一种高效块状油页岩提油的装置及方法

[9] 夏德宏，陈良泽，利用镁还原炉炉渣生产高效钙镁硫硅肥的新工艺

[10] 夏德宏，舒斌，李一帆，一种碳化钙常压还原煅烧菱镁矿的方法

[11] 夏德宏，邬婕，吴永红，一种聚焦辐射式烧结机节能点火炉

[12] 夏德宏，高庆昌，吴永红，一种内置中心换热装置导热油加热炉

[13] 夏德宏等，大型锻造加热炉水煤浆燃烧与应用技术

[14] 夏德宏等，高浓度水煤浆燃烧器

[15] 王世均，夏德宏，卓长生等，水煤浆贮罐<ref>[http://seee.ustb.edu.cn/ 北京科技大学能源与环境工程学院]</ref>
==参考资料== 
{{reflist}}

[[Category:教授]]