Exploring Flexibility Potential of Energy-Intensive Industries in Energy Markets

Author:

Luciani Laureana1ORCID,Cruz Juliana1ORCID,Ballestin Victor1ORCID,Mselle Boniface Dominick1ORCID

Affiliation:

1. CIRCE–Technology Center, Avenida Ranillas 3D 1ºA, 50018 Zaragoza, Spain

Abstract

The European Union, in pursuit of the goal of reducing emissions by at least 55% by 2030 and achieving climate neutrality by 2050, is deploying different actions, with industry decarbonization as a key strategy. However, increasing electricity demand requires an intensification of energy generation from clean technologies, and the energy system’s expansion is hindered by renewable generation’s climatic dependencies and the imperative for substantial electrical infrastructure investments. Although the transmission grid is expected to grow, flexibility mechanisms and innovative technologies need to be applied to avoid an overwhelming growth. In this context, this paper presents a thorough assessment, conducted within the FLEXINDUSTRIES project, of the flexibility potential across seven energy-intensive industries (automotive industry, biofuel production, polymer manufacturing, steel manufacturing, paper mills, pharmaceutical industry, and cement production). The methodology followed during the analysis entails reviewing the state-of-the-art existing flexibility mechanisms, industries’ energy markets engagement, and technical/operational readiness. The results highlight the feasibility of the proposed actions for enabling energy market flexibility through demand-response programs, quantifying energy opportunities, and pinpointing regulatory and technical barriers.

Funder

European Union’s Horizon Europe

Publisher

MDPI AG

Reference37 articles.

1. International Renewable Energy Agency (2024, May 22). Sector Coupling in Facilitating Integration of Variable Renewable Energy in Cities. Available online: www.irena.org.

2. Rathod, A.A., and Subramanian, B. (2022). Scrutiny of Hybrid Renewable Energy Systems for Control, Power Management, Optimization and Sizing: Challenges and Future Possibilities. Sustainability, 14.

3. Low-carbon optimal operation of distributed energy systems in the context of electricity supply restriction and carbon tax policy: A fully decentralized energy dispatch strategy;Zhang;J. Clean. Prod.,2023

4. International Renewable Energy Agency (2024, May 28). Power System Flexibility for the Energy Transition, Part. 1: Overview for Policy Makers. Available online: www.irena.org.

5. Renewable and sustainable energy saving strategies for greenhouse systems: A comprehensive review;Cuce;Renew. Sustain. Energy Rev.,2016

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