Journal paper: [1] Quanrui hao*, zheng Li, chenjing yue, feng gao, shuying Wang. Small-Signal Model and Dynamics of MMC-HVDC Grid UNDERARANCED GRID CONDINS [J]. IEEE Trans. Power Del., 2020 (Early Access). [2] Quanrui hao*, Bowei li, Yifan Sun, Linlin Wu, shuying Wang. Operating Region and Boundary Control of Modular Multilevelly Converter Station UNDERALANCED GRID CONDITIONS [J]. Ieee Trans. ., Vol. 35, NO. 3, PP. 1146-1157, jun. 2020. [3] Quanrui hao*, dong li, Bowei Li, shuying Wang. Operating AND Control of MMC Station with Constrains of Internet, Transmission and Distribution, Vol. 14, NO. 10, PP. 1829-1840, May 2020. [4] Quanrui hao*, zheng Li, FENG GAO and jing Zhang. Reduced-Order Small-Signal Models of Modular Multilevel Converter (MMC) and MMC-BASED HVDC Grid [J]. IND. Electron., Vol. 66, no. 3, pp. 2257-2268, mar. 2019. [5] zheng Li, Quanrui hao*, feng gao, Linlin Wu, MINYUAN GUAN. Nonlinear DECOUPLING Control of Two-Terminal MMC-HVDC Based on Feedback Linearization [j]. IEEE Trans. Power Del., Vol. 34, no. 1, PP. 376-386, Feb. 2019. [6] Quanrui hao*, jiufang man, feng gao, mingyuan guan. Voltage Limit Control of Modular Multilevel Converter Based Unify Flow Controller UNDERARANCED GRINCED GRINCED GRINCED CRRIDED CRIDED COND. IEEE Trans. Power Del., Vol. 33, NO. 3, PP. 1319-1327, jun. 2018. [7] q. Hao*, b. T. OOI, f. Gao. Three-PHASE Series-Connected Modilevelly Converter for HVDC Application [J]. IEEE Trans. Power Del., Vol. 31, NO. 1, PP. 50-58, Feb. 2016. [8] q. Hao*, g. Li, b. T. OOI. APProximate Model and Low-Order Harmonic Reduction for High-Voltage Direct Current Tap Based on Series Single-Phase Multileveel converter [j]. IET Generation, Transmission and Distribution, 2013, 7 (9): 1046-1054. [9] q. Hao*, b. T. OOI. Tap for Classical HVDC Based on Multilevel Current-Source Inverters [J]. IEEE Trans. Power Delivery, 2010, 25 (4): 2626-2632. [10] C. Wang, q. Hao, b. T. OOI. Reduction of Low Frequency Harmonics in Modular Multilevel Converters (MMCS) by Harmonic Function Analysis [J]. IET Generation, Transmission and Distribution, 2014, 8 (2): 328-338. [11] Li Zheng, Hao Quanrui*, Wang Shuying, etc.. Status -based feedback accurate linearizationMMCResearch on non -linearly decoupling control[j]. Newspaper of China Electrical Engineering, 2019, 39 (12): 3646-3658. [12] Li Zheng, Hao Quanrui*, Yin Xiaodong, etc.. Modern multi -level stream replacement reduction small signal model research[j]. Newspaper of China Electrical Engineering, 2018, 38 (12): 3638-3650. [13] Full Nine Fang, Hao Quanrui*, Gao Houlei, etc.. Based onUPFC-MMCThe transmission lines of symmetrical component control three -phase imbalance governance[j]. Newspaper of China Electrical Engineering, 2017, 37 (24): 7143-7153. [14] Yin Xiaodong, Hao Quanrui*, Li Zheng, etc.. MMC improved rapid simulation algorithm with DC fault current blocking ability[j]. High voltage technology, 2017, 43 (7): 2183-2193. [15] Li Bowei,Hao Quanrui*, Yin Xiaodong, Wang Shuying. Consider the fast leaky -type hybrid DC circuit breaker of the fast -closing gate[J]. High voltage technology, 2020, 46 (10): 3688-3698. [16] Han Xiaoyun,Hao Quanrui*, Xu Yan, Li Dong. Modern multi -level stream replacement reliability maintenance cycle optimization[J]. High voltage technology, 2020, 46 (10): 3429-3439. [17] Chen Yu, Hao Quanrui*, Zhang Jing. includeVSC-HVDCDynamic trend calculation method of the DC hybrid network[j]. Grid Technology, 2018, 42 (9): 2892-2899. [18] Wang Chunyi, Hao Quanrui*, Peak, etc.. Three series linkMMCResearch on the control strategy of DC stood under the fault of communication[j]. Power system protection and control, 2016, 44 (11): 16-25. [19] Li Bowei, Hao Quanrui*, Yin Xiaodong. Based onIGBTDC circuit breakers of the load model of transient characteristics research[j]. Global Energy Internet, 2018, 1 (4): 437-444. Translation: [1] Hao Quanrui Translation. The voltage source variable flow in the power system-modeling, control and application[m]. Machinery Industry Press, Beijing, 2017. [2] Hao Quanrui Translation. Control and automation of the power distribution system[m]. Machinery Industry Press, Beijing, 2019. |
Vertical project: 1)National Natural Science Fund Fund Fund,Asymmetric AC voltageMMCand Flexible DC Power Grid based on the stability of the small signal method (51877125),2019.01-2022.12,Host; 2) National Natural Science Foundation Youth Fund, based on three series linksMMCDC transmission line control strategy research (51507093),2016.01-2018.12Host; 3) National Key R & D Plan Subtitent Project,500KVDC the topology of the topology and adaptability (2017YFB0902402), 2017.07- 2020.06Host; 4) National Key R & D Plan Subtitent Project,Multi -physical fields of large -capacity power electronic equipment、Multi -time -scale joint modeling and simulation method(2018YFB0905804),2018.07-2021.06Host; 5) Shandong Natural Internal Science Fund Youth Fund,Multi -end hybrid transmission key technology research based on three -phase series module multi -level stream replacers (ZR2014EEQ033),2014.12-2017.12Host; Horizontal project: 1) Southern Power Grid Company Project,Super (special) high -voltage multi -end DC transmission engineering main circuit parameter calculation software development,2019.06-2021.12, Host 2)National Grid Company Project,Research on the application method of flexible transmission technology suitable for Xinjiang power grid,2019.06-2019.12Host; 3)National Grid Headquarters ProjectTitle,Zhang Beirou Direct Power Grid send a large -scale new energy island system voltage coordination control technology research,2018.04-2019.12Host; 4)National Grid Company ProjectAnalysis of the operating characteristics of the new energy access soft grid,2017.09- 2017.12Host; 5)National Grid Company Project,Active distribution network ultra -high -speed intelligent power distribution technology research and key equipment development,2014.12- 2015.12Host; Patent: 1) Based onmmc-upfcThe transmission line three -phase imbalance governance system and method, ZL 2016 1 1196987.4, 2018.11.27 2) A current -limiting fast -closing of the DC Turner Top Turple Tourism and Control Method, ZL 2018 1 1061030.8, 2019.12.27 |