Results 31 to 40 of about 51,988 (242)

Power Generation Prediction Method of Offshore Wind Turbines Based on Cascaded Deep Learning

International Transactions on Electrical Energy Systems, 2022
Aiming at the problems of low prediction accuracy, long time, and poor results in current wind turbine generation power prediction methods, an offshore wind turbine generation power prediction method based on cascaded deep learning is proposed.
Zhen’ao Sun, Zhe Chen
doaj   +1 more source

Technology for offshore wind turbines [PDF]

WIT Transactions on The Built Environment, Vol 92, 2007
A selective and incomplete review of the status of the development of offshore wind turbines is given. The main focus is on state of the art and emerging solutions, and emphasis is on solutions for deep water.
G. Moe, J. M. Niedzwecki, H. Long, R. Lubbad, S.-P. Breton   +4 more
openaire   +1 more source

Current Status and Future Trends in Installation, Operation and Maintenance of Offshore Floating Wind Turbines

Journal of Marine Science and Engineering
The installation and operation phases are critical stages in the lifecycle of offshore wind turbines, with costs associated with the installation and maintenance of floating wind turbines accounting for approximately 50% of the total investment.
Mingfeng Hu, Jinkun Shi, Sheng Yang, Mingsheng Chen, Yichang Tang, Suqian Liu   +5 more
doaj   +1 more source

CO-LOCATED WAVE AND OFFSHORE WIND FARMS: A PRELIMINARY CASE STUDY OF AN HYBRID ARRAY [PDF]

, 2014
In recent years, with the consolidation of offshore wind technology and the progress carried out for wave energy technology, the option of co-locate both technologies at the same marine area has arisen.
Abanades, J, Astariz, S, Greaves, D, Iglesias, G, Perez Collazo, C   +4 more
core   +3 more sources

Verification of Tilt Effect on the Performance and Wake of a Vertical Axis Wind Turbine by Lifting Line Theory Simulation

Energies, 2022
Renewable energy has received a lot of attention. In recent years, offshore wind power has received particular attention among renewable energies. Fixed-type offshore wind turbines are now the most popular.
Hidetaka Senga, Hiroki Umemoto, Hiromichi Akimoto   +2 more
doaj   +1 more source

Foundation Types for Land and Offshore Sustainable Wind Energy Turbine Towers [PDF]

E3S Web of Conferences, 2020
Wind energy is the renewable sources of energy and it is used to generate electricity. The wind farms can be constructed on land and offshore where higher wind speeds are prevailing.
Lavanya C, Kumar Nandyala Darga
doaj   +1 more source

Dynamics of Offshore Wind Turbine Foundation: A Critical Review and Future Directions

Journal of Marine Science and Engineering
Offshore wind turbines (OWTs) are being developed with larger capacities for deeper waters, facing complex environmental loads that challenge structural safety. In contrast to onshore turbines, OWT foundations must withstand combined hydrodynamic forces (
Jiaojie Xie, Hao Wang, Xin Cai, Hongjian Zhang, Lei Ren, Maowen Cai, Zhiqiang Xin   +6 more
doaj   +1 more source

Selection and Design of Wind Turbine Foundation for an Offshore Wind Farm

南方能源建设, 2023
[Introduction] From 2022, the state subsidies for offshore wind power has been fully withdrawn. The foundation of offshore wind turbines is the supporting structure of wind turbines and plays a crucial role in the safe operation of offshore wind farms ...
Baoyang LI
doaj   +1 more source

An equivalent modeling method for Offshore Wind Farms based on fault characteristics analysis [PDF]

E3S Web of Conferences, 2019
A large offshore wind farm usually consists of dozens or even hundreds of wind turbines. Due to the limitation of the simulation scale, it is necessary to develop an equivalent model of offshore wind farms for power system studies.
Tang Haiyan, Li Guanglei, Qu Linan, Li Yan   +3 more
doaj   +1 more source

Valuing the manufacturing externalities of wind energy: assessing the environmental profit and loss of wind turbines in Northern Europe [PDF]

, 2016
This study draws from a concept from green accounting, lifecycle assessment, and industrial ecology known as 'environmental profit and loss” (EP&L) to determine the extent of externalities across the manufacturing lifecycle of wind energy.
Abbasi, Agarwala, Ahlroth, Bilgili, Bolinger, Bradley, Bright, Chen, Crawford, Cutler, D'Souza, D'Souza, Dai, Danish Environmental Protection Agency, Dumitru, Erik, European Commission Directorate General Environment, European Environment Agency, European Environment Agency, Guezuragaa, Guezuragaa, Guezuragaa, Guo, Hirsh, International Energy Agency, Kaldellis, Knoepfel, Koomey, Krewitt, Kuehr, Ladenburg, Lankoski, Lee, Lenzen, Leung, Magoha, Manwell, Martínez, Martínez, Martínez, McCubbin, McKinnon, Moscardo, Nadaï, National Research Council, Noelia Romero Castro and Juan Piñeiro Chousa, Nugent, Ottinger, Owen, Peste, Porter, Porter, Porter, Rabl, Rabl, Roques, Rowe, Saidur, Schleisner, Sherman, Sovacool, Sundqvist, Tabassum-Abbasi, Tabassum-Abbasi, Thomsen, Tremeac, U.S. Department of Energy and the Commission of the European Communities, U.S. Department of Energy and the Commission of the European Communities, U.S. Office of Technology Assessment, Wang, Wizelius, Zink   +71 more
core   +1 more source