MANGO: A novel optimization model for the long-term, multi-stage planning of decentralized multi-energy systems

被引:43
|
作者
Mavromatidis, Georgios [1 ]
Petkov, Ivalin [1 ]
机构
[1] Swiss Fed Inst Technol, Grp Sustainabil & Technol, CH-8092 Zurich, Switzerland
关键词
Decentralized multi-energy systems; Multi-stage energy planning; Energy system design; Renewable energy; Techno-economic optimization; Mixed-integer linear programming; DISTRIBUTED-ENERGY-SYSTEMS; TYPICAL DEMAND DAYS; RENEWABLE-ENERGY; OPTIMAL-DESIGN; PROGRAMMING APPROACH; ETSAP-TIAM; STORAGE; HEAT; COST; UNCERTAINTY;
D O I
10.1016/j.apenergy.2021.116585
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
This study presents MANGO (Multi-stAge eNerGy Optimization), a novel optimization model that incorporates a multi-year planning horizon, along with flexible, multi-stage investment strategies for the effective, longterm design of decentralized multi-energy systems (D-MES). By considering the dynamic surrounding energy and techno-economic landscape that evolves over time, MANGO harnesses the strategic value of investment flexibility and can optimally phase D-MES investments in order to benefit, for instance, from projected future reduced technology costs and technical improvements. To achieve this, the model considers the most relevant dynamic aspects, such as year-to-year variations in energy demands, changing energy carrier and technology prices, technical improvements and equipment degradation. MANGO is also capable of optimizing the design of complex configurations composed of multiple, interconnected D-MES installed at different locations. Finally, the model?s formulation also addresses end-of-horizon effects that can distort solutions in multi-stage energy system models. Besides presenting the key aspects and the mathematical formulation of MANGO, this study also uses the model to develop a six-stage energy design plan, along a 30-year project horizon, for an urban district composed of 3 sites in Zurich, Switzerland. One candidate D-MES is considered per site and different scenarios are examined regarding building retrofitting and D-MES interconnections. Results overall show that retrofitting leads to lower emission levels, but significantly higher costs. On the other hand, D-MES interconnections improve both the economic and the environmental system performance. Finally, regarding optimal D-MES configurations, a variety of technologies is used, with combinations of air-source heat pumps and natural gas boilers leading to better economic performance and combinations of ground-source heat pumps and biomass boilers to more environmentally-friendly designs. Overall, MANGO facilitates D-MES decision-making at the strategic level by delivering flexible multi-stage investment strategies, at the economic level by providing detailed information about the systems? economic performance during each project year and, finally, at the technical level by specifying the optimal technical configurations of each D-MES and their optimal operating schedules. With its long-term perspective, MANGO can offer insights that closely match the dynamic class of real-world energy system design projects led by energy developers.
引用
收藏
页数:29
相关论文
共 50 条
  • [1] A rigorous optimization method for long-term multi-stage investment planning: Integration of hydrogen into a decentralized multi-energy system
    Bornemann, Luka
    Lange, Jelto
    Kaltschmitt, Martin
    ENERGY REPORTS, 2025, 13 : 117 - 139
  • [2] A multi-objective optimization model for the operation of decentralized multi-energy systems
    Adihou, Yolaine
    Mabrouk, Mohamed Tahar
    Haurant, Pierrick
    Lacarriere, Bruno
    CLIMATE RESILIENT CITIES - ENERGY EFFICIENCY & RENEWABLES IN THE DIGITAL ERA (CISBAT 2019), 2019, 1343
  • [3] Multi-stage Planning Based on Generalized Multi-energy Flow Model for Integrated Energy System
    Gong P.
    Zhu Y.
    Cai Q.
    Xia C.
    Yu Z.
    Xia R.
    Dianwang Jishu/Power System Technology, 2022, 46 (05): : 1849 - 1856
  • [4] A multi-stage stochastic optimization model for energy systems planning and risk management
    Cano, Emilio L.
    Moguerza, Javier M.
    Alonso-Ayuso, Antonio
    ENERGY AND BUILDINGS, 2016, 110 : 49 - 56
  • [5] A MILP model for the design of multi-energy systems with long-term energy storage
    Gabrielli, Paolo
    Gazzani, Matteo
    Martelli, Emanuele
    Mazzotti, Marco
    27TH EUROPEAN SYMPOSIUM ON COMPUTER AIDED PROCESS ENGINEERING, PT C, 2017, 40C : 2437 - 2442
  • [6] A novel approach for multi-stage investment decisions and dynamic variations in medium-term energy planning for multi-energy carriers community
    Pizzuti, Andrea
    Jin, Lingkang
    Rossi, Mosè
    Marinelli, Fabrizio
    Comodi, Gabriele
    Applied Energy, 2024, 353
  • [7] A novel approach for multi-stage investment decisions and dynamic variations in medium-term energy planning for multi-energy carriers community
    Pizzuti, Andrea
    Jin, Lingkang
    Rossi, Mose
    Marinelli, Fabrizio
    Comodi, Gabriele
    APPLIED ENERGY, 2024, 353
  • [8] Resilience enhancement strategy for multi-energy systems considering multi-stage recovery process and multi-energy coordination
    Sun, Qirun
    Wu, Zhi
    Ma, Zhoujun
    Gu, Wei
    Zhang, Xiao-Ping
    Lu, Yuping
    Liu, Pengxiang
    ENERGY, 2022, 241
  • [9] Regional integrated energy system long-term planning optimization based on multi-energy complementarity quantification
    Lin, Xiaojie
    Zhang, Nan
    Zhong, Wei
    Kong, Fanqi
    Cong, Feiyun
    JOURNAL OF BUILDING ENGINEERING, 2023, 68
  • [10] Multi-stage dynamic optimization method for long-term planning of the concentrate ingredient in copper industry
    Zhang, Hongqi
    Zhao, Jun
    Leung, Henry
    Wang, Wei
    INFORMATION SCIENCES, 2022, 605 : 333 - 350