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Wei Gao

Researcher at University of Denver

Publications -  23
Citations -  355

Wei Gao is an academic researcher from University of Denver. The author has contributed to research in topics: Microgrid & Computer science. The author has an hindex of 6, co-authored 16 publications receiving 101 citations. Previous affiliations of Wei Gao include Hebei University of Technology.

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Double-Mode Energy Management for Multi-Energy System via Distributed Dynamic Event-Triggered Newton-Raphson Algorithm

TL;DR: A novel distributed dynamic event-triggered Newton-Raphson algorithm is proposed to solve the double-mode energy management problem in a fully distributed fashion and it is proved that each participant can asymptotically converge to the global optimal point.
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A Distributed Double-Newton Descent Algorithm for Cooperative Energy Management of Multiple Energy Bodies in Energy Internet

TL;DR: It is proved that the proposed distributed double-Newton descent (DDND) algorithm can asymptotically converge to the global optimal point and the correctness of the DDND algorithm can be guaranteed in theory.
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Data-driven Optimal Control Strategy for Virtual Synchronous Generator via Deep Reinforcement Learning Approach

TL;DR: A decentralized deep policy gradient algorithm, which features model-free and faster convergence, is developed and employed to find the optimal control policy for virtual synchronous generator and simulation results validate the feasibility and effectiveness of the proposed methodology.
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Enabling and Evaluation of Inertial Control for PMSG-WTG Using Synchronverter With Multiple Virtual Rotating Masses in Microgrid

TL;DR: A synchronverters with multiple virtual rotating masses is proposed in order to improve the active power tracking performance as well as to boost inertial control of the synchronverter.
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Implementations and Evaluations of Wind Turbine Inertial Controls With FAST and Digital Real-Time Simulations

TL;DR: A novel simulation approach to evaluate new ancillary service controls in the context of large-scale wind power integration and results indicate that the inertial controls tend to reduce the out-of-plane mechanical loadings in region 2, while such loadings are dominated by the pitch actions in region 3.