CN

Mingyu YanYAN MINGYU

研究员(自然科学)    Supervisor of Doctorate Candidates    Supervisor of Master's Candidates

  • Professional Title:研究员(自然科学)
  • Gender:Male
  • Status:Employed
  • Department:School of Electrical and Electronic Engineering
  • Education Level:Postgraduate (Doctoral)
  • Degree:Doctoral Degree in Engineering

Paper Publications

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Decentralized optimization of multi-area electricity-natural gas flows based on cone reformulation

Release time:2018-07-01
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Journal paper
Document Code:
17857536
First Author:
Yubin He
Correspondence Author:
Mohammad Shahidehpour
Co-author:
Mingyu Yan,Zhiyi Li,Chuangxin Guo,Lei Wu,Yi Ding
Journal:
IEEE Transactions on Power Systems
Included Journals:
SCI
Place of Publication:
United States
Discipline:
Engineering
First-Level Discipline:
Electrical Engineering
Document Type:
J
Volume:
33
Issue:
4
Page Number:
4531-4542
ISSN No.:
0885-8950
Key Words:
Multi-area electricity-natural gas system, optimal energy flow, second-order cone programming, decentralized model, iterative ADMM.
DOI number:
10.1109/TPWRS.2017.2788052
Date of Publication:
2018-07-01
Impact Factor:
7.326
Abstract:
A large-scale integrated energy system can represent several subsystems representing areas that are tied by electricity and natural gas networks. Accordingly, we propose a decentralized optimal energy flow (DOEF) calculation as compared with a centralized solution method. The proposed approach demonstrates the merits of the decentralized operation and control of a multi-area integrated electricity-natural gas system (IEGS), in terms of large-scale modeling requirements, faster computations, and data management for local sensitivity analyses. Using the proposed decentralized structure, the communication burden is relatively light as individual area operators in a multi-area IEGS will make optimal dispatch decisions independently and the corresponding information is shared with adjacent subsystems. The reformulation of the second-order cone (SOC) is proposed using advanced sequential cone programming (SCP) to handle the nonlinear steady-state natural gas flow, which provides a feasible solution with a high degree of computational efficiency. Furthermore, an iterative alternating direction method of multipliers (I-ADMM) is adopted to manage the nonconvexity of integer variables, which guarantees a satisfactory convergence performance. Case studies on three multi-area IEGS validate the effectiveness of the proposed model in a multi-area IEGS.
Links to published journals:
https://ieeexplore.ieee.org/abstract/document/8241852