From prosumer to flexumer: Case study on the value of flexibility in decarbonizing the multi-energy system of a manufacturing company

被引:12
|
作者
Fleschutz, Markus [1 ,2 ]
Bohlayer, Markus [3 ]
Braun, Marco [1 ]
Murphy, Michael D. [2 ]
机构
[1] Univ Appl Sci Karlsruhe, Inst Refrigerat Air Conditioning & Environm Engn, Moltkestr 30, D-76133 Karlsruhe, Germany
[2] Munster Technol Univ, Dept Proc Energy & Transport Engn, Bishopstown, Cork, Ireland
[3] Path Zero GmbH, Weinbrennerstr 35, D-76185 Karlsruhe, Germany
关键词
Demand response; Multi energy system; Hourly carbon emission factors; Distributed energy resources; Flexibility metrics; Decarbonization; DEMAND RESPONSE; INDUSTRIAL DEMAND; MARKET PRICES; OPTIMIZATION; GENERATION;
D O I
10.1016/j.apenergy.2023.121430
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
Digitalization and sector coupling enable companies to turn into flexumers. By using the flexibility of their multi-energy system (MES), they reduce costs and carbon emissions while balancing the electricity grid. However, to identify the necessary investments in energy conversion and storage technologies to leverage demand response (DR) potentials, companies need to assess the value of flexibility. Therefore, this study quantifies the flexibility value of a production company's MES by optimizing the synthesis, design, and operation of a decarbonizing MES considering self-consumption optimization, peak shaving, and integrated DR based on hourly prices and carbon emission factors (CEFs). The detailed case study of a beverage company in northern Germany considers vehicle-to-X of electrical industrial forklifts, power-to-heat on multiple temperatures, wind turbines, photovoltaic systems, and energy storage systems (thermal, electrical, and hydrogen). We propose and apply novel data-driven metrics to evaluate the intensity of price-based and CEFbased DR. The results reveal that flexibility usage reduces decarbonization costs (by 19%-80% depending on electricity and carbon removal prices), total annual costs, operational carbon footprint, energy-weighted average prices and CEFs, and fossil energy dependency. The results also suggest that a net-zero operational carbon emission MES requires flexibility, which, in an economic case, is provided by a combination of different flexible technologies and storage systems that complement each other. While the value of flexibility depends on various market and consumer-specific factors such as electricity or carbon removal prices, this study highlights the importance of demand flexibility for the decarbonization of MESs.
引用
收藏
页数:23
相关论文
共 50 条
  • [1] Flexibility is the key to decarbonizing heat supply: A case study based on the German energy system
    Schlemminger, Marlon
    Peterssen, Florian
    Lohr, Clemens
    Niepelt, Raphael
    Bensmann, Astrid
    Brendel, Rolf
    Hanke-Rauschenbach, Richard
    Breitner, Michael H.
    ENERGY CONVERSION AND MANAGEMENT, 2025, 324
  • [2] Modelling and Valuing Multi-Energy Flexibility from Community Energy Systems
    Wang, Han
    Good, Nicholas
    Mancarella, Pierluigi
    2017 AUSTRALASIAN UNIVERSITIES POWER ENGINEERING CONFERENCE (AUPEC), 2017,
  • [3] Residential Prosumer Energy Management System with Renewable Integration Considering Multi-Energy Storage and Demand Response
    Ali, Asjad
    Aftab, Abdullah
    Akram, Muhammad Nadeem
    Awan, Shoaib
    Muqeet, Hafiz Abdul
    Arfeen, Zeeshan Ahmad
    SUSTAINABILITY, 2024, 16 (05)
  • [4] Multi-time-scale Optimal Scheduling of Integrated Energy System Considering Multi-energy Flexibility
    Tang X.
    Hu Y.
    Geng Q.
    Xu X.
    Dianli Xitong Zidonghua/Automation of Electric Power Systems, 2021, 45 (04): : 81 - 90
  • [5] Flexibility Evaluation Method of Power System Considering the Impact of Multi-energy Coupling
    Zhao, Yufei
    Wang, Chengfu
    Zhang, Zhenwei
    Lv, Huacan
    2021 IEEE/IAS 57TH INDUSTRIAL AND COMMERCIAL POWER SYSTEMS TECHNICAL CONFERENCE (I&CPS), 2021,
  • [6] Flexibility Evaluation Method of Power System Considering the Impact of Multi-Energy Coupling
    Zhao, Yufei
    Wang, Chengfu
    Zhang, Zhenwei
    Lv, Huacan
    IEEE TRANSACTIONS ON INDUSTRY APPLICATIONS, 2021, 57 (06) : 5687 - 5697
  • [7] Development of renewable energy multi-energy complementary hydrogen energy system (A Case Study in China): A review
    Li, Zheng
    Zhang, Wenda
    Zhang, Rui
    Sun, Hexu
    ENERGY EXPLORATION & EXPLOITATION, 2020, 38 (06) : 2099 - 2127
  • [8] Flexibility in distribution systems - Modelling a thermal-electric multi-energy system in FLEDGE
    Kleinschmidt, Verena
    Troitzsch, Sebastian
    Hamacher, Thomas
    Peric, Vedran
    2021 IEEE PES INNOVATIVE SMART GRID TECHNOLOGY EUROPE (ISGT EUROPE 2021), 2021, : 1022 - 1026
  • [9] Research on Multi-energy Interaction Mode and Value System under the Background of Energy Internet
    Li, Junhui
    Zhou, Haiming
    Han, Xiao
    Zhang, Jing
    Yu, Rong
    Ma, Yujie
    2020 5TH INTERNATIONAL CONFERENCE ON COMPUTER AND COMMUNICATION SYSTEMS (ICCCS 2020), 2020, : 547 - 551
  • [10] Implementation of a price-driven demand response in a distributed energy system with multi-energy flexibility measures
    Niu, Jide
    Tian, Zhe
    Zhu, Jie
    Yue, Lu
    ENERGY CONVERSION AND MANAGEMENT, 2020, 208