1 |
DC Current and Voltage Droop Control Method of Hybrid HVDC Systems for an Offshore Wind Farm Connection to Enhance AC Voltage Stability Lee GS, Kwon DH, Moon SI IEEE Transactions on Energy Conversion, 36(1), 468, 2021 |
2 |
A new coupled model for the equivalent roughness heights of wind farms Zhang H, Ge MW, Liu YQ, Yang XIA Renewable Energy, 171, 34, 2021 |
3 |
A case study of space-time performance comparison of wind turbines on a wind farm Ding Y, Kumar N, Prakash A, Kio AE, Liu X, Liu L, Li QC Renewable Energy, 171, 735, 2021 |
4 |
Pricing bundled renewable energy credits using a modified LCOE for power purchase agreements Bruck M, Sandborn P Renewable Energy, 170, 224, 2021 |
5 |
Regulatory aspects and electricity production analysis of an offshore wind farm in the Baltic Sea Sobotka A, Rowicki M, Badyda K, Sobotka P Renewable Energy, 170, 315, 2021 |
6 |
Modeling dynamic wind direction changes in large eddy simulations of wind farms Stieren A, Gadde SN, Stevens RJAM Renewable Energy, 170, 1342, 2021 |
7 |
An Offshore Wind Farm With DC Collection System Featuring Differential Power Processing Pape M, Kazerani M IEEE Transactions on Energy Conversion, 35(1), 222, 2020 |
8 |
Modeling of Wind Speeds Inside a Wind Farm With Application to Wind Farm Aggregate Modeling Considering LVRT Characteristic Jin YQ, Wu DM, Ju P, Rehtanz C, Wu F, Pan XP IEEE Transactions on Energy Conversion, 35(1), 508, 2020 |
9 |
A cross-European efficiency assessment of offshore wind farms: A DEA approach Akbari N, Jones D, Treloar R Renewable Energy, 151, 1186, 2020 |
10 |
Economic planning of wind farms from a NBI-RSM-DEA multiobjective programming Aquila G, Rocha LCS, Rotela P, Saab JY, Lima JDB, Balestrassi PP Renewable Energy, 158, 628, 2020 |