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司风琪

领域:新能源产业 学校:东南大学职称:教授

智慧电厂及电力大数据、大型火电机组运行特性、热工自动控制、优化及故障诊断...

具体了解该专家信息,请致电:027-87555799 邮箱 haizhi@uipplus.com

教育背景

工作经历

项目课题经历

近年来承担的部分项目

国家自然基金:烟塔合一系统流场耦合与热羽扩散机理及优化调控研究,主持,2020.1-2023.12;

江苏省教育厅:江苏省青蓝工程中青年学术带头人,主持,2017.6-2020.6;

江苏省科技厅:燃气机组大数据分析理论及运行优化技术研究,主持,2015.7-2017.6; 

南京市科技局:钒钛板式SCR催化剂延寿增效及脱销系统协调优化运行技术研究,主持,2014.1-2015.12; 

国家自然基金:热工过程海量实时数据流信息熵分析与协调处理方法研究,主持,2012.1-2015.12; 

科技部863计划专题项目:生物质化学催化制备含氧燃料新技术,参加,2012.1-2014.12; 

国家发改委火电机组振动国家工程研究中心创新能力建设项目:发电机组控制与运行优化技术,主持,2010.7-2012.12; 

国际合作项目:中试规模循环流化床空气和富氧燃烧试验,参加,2010.1-2010.8;

西门子公司: 华润电力CSASS平台分析专家系统,主持,2018.6-2020.12;

浙江能源集团:火电机组状态诊断及评估系统研发(系统平台、汽机岛),主持,2017.5-2019.12;

中国大唐集团公司:基于大数据的脱硝催化剂两化融合平台研究与示范,主持,2017.5-2019.12;

中电国际:600MW间接空冷机组大数据分析技术研究与应用,主持,2016.7-2018.12; 

北京京西热电:机组能效监测分析与小指标管理系统,主持,2016.5-2018.12; 

中国大唐集团公司:环保设施生产运营监控平台,主持,2016.5-2018.12; 

中国大唐集团公司:脱硝催化剂寿命预测模型的建立与研究,主持,2015.6-2017.12; 

中国大唐集团公司:脱硝催化剂寿命管理数据库平台开发与研究,主持,2015.6-2017.12; 

大唐淮北电厂:优化运行与绩效考核系统,主持,2014.5-2017.12; 

中国大唐集团公司:燃气机组“两化融合”关键技术研究,主持,2013.9-2016.12; 

皖能集团:机组厂级监控信息系统开发,主持,2013.6-2016.12; 

中电国际:600MW超临界机组“三塔合一”间接空冷系统运行特性与优化,主持,2013.3-2015.12; 

中国大唐集团公司:脱硝催化剂延寿及低负荷运行研究,主持,2013.6-2014.12; 

中电国际:600MW超临界机组汽动引风机优化运行及其深度节能研究,主持,2013.3-2015.12; 

中国大唐集团公司:600MW超临界机组炉内燃烧与SCR系统协调优化技术研究与示范,主持,2013.9-2016.12; 

中国大唐集团公司:火电机组汽机岛整体优化关键技术研究及示范,主持,2013.12-2017.12; 

其它企事业项目:耗差分析平台开发,主持,2012.12-2013.12; 

其它企事业项目:机组水循环真空泵密封水冷却系统,主持,2012.7-2013.12; 

其它企事业项目:#2锅炉SCR系统性能诊断与锅炉运行参数优化,主持,2012.9-2013.12; 

其它企事业项目:旋转机械在线振动监测、同步采集与故障诊断分析系统,主持,2012.1-2013.12; 

其它企事业项目:300MW机组循环水泵优化运行,主持,2013.3-2016.12; 

其它企事业项目:内蒙古岱海发电有限责任公司节能调度研究与系统开发,参加,2015.3-2016.12; 

其它企事业项目:贵州盘南电厂厂级AGC负荷分配系统,主持,2016.3-2017.12;



论文、成果、著作等

Selected papers


[1]Ma H, Si F, Zhu K, Wang J. Quantitative research of spray cooling effects on thermo-flow performance of the large-scale dry cooling tower with an integrated numerical model[J]. International Journal of Heat and Mass Transfer, 2019,141: 799-817. SCI收录号:000480665000068

[2]Qiao Z, Tang Y, et al. Design and performance analysis of a supercritical CO2 (sCO2)-water separator for power generation systems using hot sCO2 from geothermal reservoirs[J]. Geothermics, 2019, 81:123-132. SCI收录号:000472689800010

[3]Qiao Z, Wang X, Gu H, Tang Y, Si F, et al. An investigation on data mining and operating optimization for wet flue gas desulfurization systems[J]. Fuel, 2019.

[4]Qiao Z, Tang Y, et al. Performance analysis and optimization design of an axial-flow vane separator for supercritical CO2 (sCO2)-water mixtures from geothermal reservoirs[J]. International Journal of Energy Research, 2019, 43(6): 2327-2342.SCI收录号:000465092800024

[5]Ma H, Si F, Zhu K, et al. Utilization of partial through-flow tower shell to cope with the excess cooling capacity of dry cooling tower in extremely cold days with crosswind[J]. International Journal of Thermal Sciences, 2019, 136:70-85. SCI收录号:000467003100008

[6]Yu H, Zhou J, Ma H, et al. Performance analysis and optimization of a NGCC-CHP plant with low pressure economizer partial recirculation system[J]. Energy Conversion and Management, 2019, 180: 524-532. (SCI收录号:000457666700040)

[7]Zhou J, Ma H, Si F, et al. To broaden safe operation range of the indirect dry cooling system with internal annular windbreak cloth in extremely cold days[J]. Applied Thermal Engineering, 2019, 152:420-429.  SCI收录号:000465058700038

[8]Yu C, Xiong W, Ma H, Zhou J, Si F, et al. Numerical investigation of combustion optimization in a tangential firing boiler considering steam tube overheating[J]. Applied Thermal Engineering, 2019, 154:87-101. SCI收录号:000469892000009

[9]Ma H, Si F, Zhu K, et al. The adoption of windbreak wall partially rotating to improve thermo-flow performance of natural draft dry cooling tower under crosswind[J]. International Journal of Thermal Sciences, 2018, 134: 66-88. (SCI收录号:000447572700006)

[10]Dong Y, Qiao Z, Si F, et al. A Novel Method for the Prediction of Erosion Evolution Process Based on Dynamic Mesh and Its Applications[J]. Catalysts, 2018, 8(10):432. (SCI收录号:000448543300028)

[11]Gu H, Zhu H, Cui Y, et al. Optimized scheme in coal-fired boiler combustion based on information entropy and modified K-prototypes algorithm[J]. Results in Physics, 2018, 9: 1262-1274. (SCI收录号:000435611100168)

[12]Gu H, Cui Y, Zhu H, et al. A new approach for clustering in desulfurization system based on modified framework for gypsum slurry quality monitoring[J]. Energy, 2018, 148: 789-801. (SCI收录号:000429764000059)

[13]Ren S, Si F, Zhou J, et al. A new reconstruction-based auto-associative neural network for fault diagnosis in nonlinear systems[J]. Chemometrics and Intelligent Laboratory Systems, 2018, 172: 118-128. (SCI收录号:000426026400013)

[14]Gu H, Ren S, Si F, et al. Evolved FCM framework for working condition classification in furnace system[J]. Soft Computing, 2017, 21(21): 6317-6329. (SCI收录号:000412458000008)

[15]Yu C, Si F, Ren S, et al. Experimental and numerical predictions of ash particle erosion in SCR monolithic catalysts for coal-fired utility boilers[J]. Korean Journal of Chemical Engineering, 2017, 34(5): 1563-1575. (SCI收录号:000400661600033)

[16]Ren S, Si F, Gu H. Multiple Sensor Validation for Natural Gas Combined Cycle Power Plants Based on Robust Input Training Neural Networks[J]. Journal of Chemical Engineering of Japan, 2017, 50(3): 186-194. (SCI收录号:000398125000004)

[17]Ma H, Si F, Kong Y, et al. Wind-break walls with optimized setting angles for natural draft dry cooling tower with vertical radiators[J]. Applied Thermal Engineering, 2017, 112: 326-339. (SCI收录号:000394831500033)

[18]Gu H, Ren S J, Si F Q, et al. Evolved clustering analysis of 300 MW boiler furnace pressure sequence based on entropy characterization[J]. Science China Technological Sciences, 2016, 59(4): 647-656. (SCI收录号:000373853400015)

[19]Ma H, Si F, Kong Y, et al. A new theoretical method for predicating the part-load performance of natural draft dry cooling towers[J]. Applied Thermal Engineering, 2015, 91: 1106-1115. (SCI收录号:000365053200111)

[20]Ronquillo-Lomeli G, Romero C E, Yao Z, et al. On-line flame signal time series analysis for oil-fired burner optimization[J]. Fuel, 2015, 158: 416-423. (SCI收录号:000357670100048)

[21]Ma H, Si F, Li L, et al. Effects of ambient temperature and crosswind on thermo-flow performance of the tower under energy balance of the indirect dry cooling system[J]. Applied Thermal Engineering, 2015, 78: 90-100. (SCI收录号:000350096700010)

[22]Pan Y, Si F, Xu Z, et al. DEM simulation and fractal analysis of particulate fouling on coal-fired utility boilers' heating surfaces[J]. Powder technology, 2012, 231: 70-76. (SCI收录号:000309370800009)

[23]Liang H, Xu Z, Si F. Economic analysis of amine based carbon dioxide capture system with bi-pressure stripper in supercritical coal-fired power plant[J]. International journal of greenhouse gas control, 2011, 5(4): 702-709. (SCI收录号:000294700900012)

[24]Pan Y, Si F, Xu Z, et al. An integrated theoretical fouling model for convective heating surfaces in coal-fired boilers[J]. Powder technology, 2011, 210(2): 150-156. (SCI收录号:000291287700009)

[25]Si F, Romero C E, Yao Z, et al. A new approach for function approximation in boiler combustion optimization based on modified structural AOSVR[J]. Expert Systems with Applications, 2009, 36(4): 8691-8704. (SCI收录号:000264528600153)

[26]Si F, Romero C E, Yao Z, et al. Optimization of coal-fired boiler SCRs based on modified support vector machine models and genetic algorithms[J]. Fuel, 2009, 88(5): 806-816. (SCI收录号:000264087300006)

[27]Si F, Romero C E, Yao Z, et al. Inferential sensor for on-line monitoring of ammonium bisulfate formation temperature in coal-fired power plants[J]. Fuel Processing Technology, 2009, 90(1): 56-66. (SCI收录号:000262206800006)

[28]喻聪,司风琪,熊尾,周建新,江晓明. 电站锅炉低氮燃烧与高温受热面换热的联合模拟及分析[J]. 中国电机工程学报,201939(13):3842-3850.EI: 20193607395962

[29]喻聪,司风琪,董云山,江晓明.燃煤电站SCR系统气固流动与催化剂磨损的混合数值模拟与优化[J].东南大学学报(自然科学版)201949(01)133-140.(EI20191506748463

[30]雷丽君,司风琪,邵壮,白德龙.表面式三段给水加热器简化传热模型[J].中国电机工程学报,201939(01)204-211+334.(EI: 20191606801346

[31]乔宗良,汤有飞,张蕾,董云山,司风琪.超临界CO_2-水分离器性能数值模拟[J].东南大学学报(自然科学版)201848(05)781-788.(EI20184706122053

[32]李萍,王鹏,周建新,王晓东,司风琪.基于自适应模型的热电联产机组循环水系统运行优化[J].中国电机工程学报,201838(18)5500-5509.(EI20191006611544

[33]张贝,马欢,司风琪,白德龙,解冠宇.计及集群效应的直接空冷机组经济背压研究[J].中国电机工程学报,201838(19)5779-5786+5934.(EI20184706088163

[34]周卫庆,司风琪,徐治皋,黄葆华,仇晓智.基于K

专利、著作版权等

喻聪;司风琪;江晓明;设置于气体通道中的气体混合器及其组成的气体混合装置;国家发明专利;CN103894082A
顾慧;司风琪;桂汉生;一种基于特征提取与模糊C均值聚类的燃烧监测与诊断的方法;国家发明专利;CN103886316A
顾慧;司风琪;吕晓明;基于pyramid时间框架的电站锅炉运行状态监测方法;国家发明专利;CN103927431A
司风琪;喻聪;徐治皋;一种设置在气体通道内的涡流对冲式气体混合器;国家发明专利;CN103816801A
司风琪;顾慧;王传奇;一种基于信息熵特征和概率神经网络的锅炉燃烧工况识别方法;国家发明专利;CN103886405A
司风琪;朱正香;顾慧;吴跃明;一种基于流量校正的电站主蒸汽流量在线计算方法;国家发明专利;CN104748807A
司风琪;马欢;祝康平;一种垂直布置可切换单双流程的空冷散热器;国家发明专利;CN104315899A
司风琪;邵壮;郭俊山;阎文生;基于CPSO-LSSVM的汽动引风机全工况在线监测模型建模方法;国家发明专利;CN103902813A
喻聪;司风琪;桂汉生;一种提高SCR系统入口烟气温度的省煤器;国家发明专利;CN103900072A
司风琪;喻聪;桂汉生;王传奇;一种切向式双涡流SCR混合器;国家发明专利;CN103933858A
马欢;司风琪;祝康平;基于水温反馈的间接干式空冷机组循环水优化调度方法;国家发明专利;CN103900398A
任少君;黄志军;司风琪;一种基于鲁棒输入训练神经网络的多传感器故障诊断系统及方法;国家发明专利;CN104142680A
司风琪;郭俊山;邵壮;祝康平;一种基于BP神经网络的汽动引风机全工况在线监测方法;国家发明专利;CN103903087A
魏子栋;司风琪;乔宗良;一种脱硫塔喷淋装置;国家发明专利;CN104815548A
司风琪;喻聪;徐治皋;一种设置在气体通道内的涡流对冲式气体混合器;国家发明专利;CN103816801B
司风琪;顾慧;蒋周进;基于灰度聚类的火电机组经济指标评价方法;国家发明专利;CN103886512A
司风琪;王玺;吕晓明;一种用于电站循环水泵启停时背压数据的预估方法;国家发明专利;CN104153981A
周建新;司风琪;徐治皋.基于KKT条件和最近邻法的支持向量回归机自适应建模方法.国家发明专利,ZL200910029371.1
邱凤翔;司风琪;徐治皋. 基于矩阵奇异值关联规则挖掘的传感器数据校验方法. 国家发明专利,ZL200910028013.9
邱凤翔,司风琪,徐治皋. 基于关联规则的火电厂传感器互冗余数据检验装置. 实用新型专利,ZL200920038800.7

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