Wind power performance assessment at high plateau region: A case study of the wind farm field test on the Qinghai-Tibet plateau

Gyatso, Ngawang; Gao, Zhiteng; Wang, Qiang; Li, Ye; Yin, Qiang; Chen, Junbo; Jin, Peng; Liu, Zhengshu; Ma, Zhongqing; Chen, Xuefeng; Feng, Jiajia; Dorje,

doi:10.1016/j.apenergy.2023.120789

Cited by 16 publications

(2 citation statements)

References 44 publications

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“…In fact, as early as the twentieth and eighteenth centuries, wind energy has been rapidly . This phrase can also be concluded with fragmented technology and development through piecemeal and fragmented experimentation [3].…”

Section: Historical Development Of Wind Power In Chinamentioning

confidence: 99%

Wind Power Development in China Case in Qinghai-Tibet Plateau

2023

AEMPS

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As the technology develops, coal becomes the most popular energy source with its low price. The burning of the coal produces greenhouse gas which can severely polluted the environment. Policies were made for countries to reach their fore emission reduction. Wind power is a good replacement for coal burning to China, one of the largest consumer countries for coal. China been through 3 stages in developing wind energy, from 1986-2005, China mainly focuses on introducing foreign technology; From 2005-2010, Chinese government begins to develop its own wind energy technology. Since 2010 China has developed of a complete wind energy industry chain. Till today, China already has mature wind energy technology and is starting to implement it, after. et al. investigation, the Tibetan Plateau is a very suitable area for building wind energy, they have higher altitude areas, and the wind speed can be as high as 14m/s, the local area also possesses environmental pollution problems due to the burning of cow dung in winter as fuel. DFIGs and DDPMGs are two models that leading team found capable of working in the wind speed instability area. With Zhang et als research shows the construction of the wind power factory to reach zero emission needs twos times copper and nickel materials that earth has. The environmental impact of constructing wind factories and the availability of different metals will also be a concern in the future.

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Section: Historical Development Of Wind Power In Chinamentioning

confidence: 99%

Wind Power Development in China Case in Qinghai-Tibet Plateau

2023

AEMPS

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“…While providing 86% of the global energy supply, fossil fuel contributes around 75% of CO 2 emissions worldwide . Therefore, clean energy sources are promoted worldwide to reduce carbon emissions, including solar energy, , wind energy, , hydropower, , bioenergy, , and geothermal energy. , Nonetheless, these energy sources have seasonal and geographical dependencies comprising their reliability. As a clean energy carrier, hydrogen (H 2 ) can store the excess renewable energy for future use, solving the spatial and temporal imbalance of renewable energy.…”

Section: Introductionmentioning

confidence: 99%

Integrating Capacity and Efficiency for Optimal Hydrogen Storage Site Selection in Saline Aquifers

Chen,

Mao

et al. 2024

Energy Fuels

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Hydrogen (H 2 ) energy is a promising transition pathway from conventional fossil fuels to sustainable clean energy. However, H 2 requires a large storage capacity because of its low volumetric energy−density nature. Underground H 2 storage sites provide ample space for H 2 storage. In this work, we proposed a general workflow to select saline aquifers' optimal H 2 storage sites, considering the capacity and operational efficiency. We developed a comprehensive data set of high-fidelity numerical simulations to quantify the effects of geologic and operating parameters on H 2 storage performance. The simulation results are used to train a robust reduced-order model (ROM) to estimate H 2 storage performance. Due to its high accuracy and flexibility, we selected the multilayer perceptron to develop our ROM. The mean squared errors of all ROMs are less than 0.0001, and the coefficients of determination (R 2 ) were higher than 0.99. Integrating the performance estimations from the ROMs with volumetric calculations of H 2 storage capacity, we quantitatively evaluated the H 2 storage in saline aquifers using a designed objective function. We applied our workflow in the Intermountain-West (I-WEST) region, which is the central mountain area in the United States, including Arizona, Colorado, New Mexico, Montana, Utah, and Wyoming. We identified the top three promising saline aquifers for H 2 storage from 12 potential storage sites. Our workflow and ROMs are agnostic to the region and could be applied to other areas. Generally, this work supports safe and efficient H 2 storage operations in saline aquifers in the I-WEST region.

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