DC Applications, Challenges, Opportunities and Evolution Scenarios
Zenodo (CERN European Organization for Nuclear Research)
Abstract
This document discusses the modern emerging Direct Current (DC) technologies and solutions. DC has emerged as a significant alternative in modern energy systems, offering diverse applications while also presenting unique challenges and promising opportunities for further evolution. From renewable energy integration to data centres and electric vehicles, the domain of DC spans various sectors, each with its own set of demands and potential for growth. The history of DC grids can be traced back to the pioneering efforts of Thomas Edison in the late 19th century, when he established the first commercial electric power distribution system using DC [1]. Initially, DC grids found success in urban areas, providing electricity for lighting and early industrial applications. However, inherent limitations such as voltage drop over long distances and the lack of efficient voltage conversion methods hindered widespread adoption for large-scale power distribution. In contrast, AC's ability to efficiently step up and down voltage levels using transformers, coupled with its capability for long-distance transmission, led to its dominance in power systems globally. The emergence of solid-state power electronics and advancements in High Voltage Direct Current (HVDC) technology sparked renewed interest in DC grids for long-distance transmission and interconnection of power systems [2]. Presently, DC grids play a critical role in modern energy infrastructure, facilitating the integration of Renewable Energy Sources (RES), enhancing grid stability, and enabling efficient transmission over vast distances. Ongoing research and development are continuously expanding the capabilities and applications of DC grids, shaping the future landscape of electric power distribution. Considering the recent breakthroughs in DC technology, this deliverable will prioritize the following topics: Understanding Diverse DC Applications: The primary objective is to comprehensively understand the breadth and depth of DC applications across different sectors, including renewable energy integration, data centres, electric vehicles, industry, ports and residential/commercial buildings. This involves analysing the specific requirements, challenges, and opportunities associated with each application area. Identifying Challenges: Another key objective is to identify the challenges hindering the widespread adoption of DC technology while simultaneously uncovering the opportunities it presents for innovation and growth. This entails examining issues such as standardization, grid integration, cost barriers, and safety concerns, as well as exploring potential areas for advancements and market expansion. Promoting Collaboration and Standardization: Facilitating collaboration among stakeholders and promoting standardization efforts is also a key objective. By fostering cooperation between industry players, research institutions, policymakers, and standards organizations, the aim is to accelerate innovation, streamline interoperability, and drive market growth. Standardization efforts play a pivotal role in ensuring the compatibility, reliability, and scalability of DC systems across different applications. Identifying Opportunities and Proposing Evolution Scenarios: A crucial aspect of the scope is to propose evolution scenarios that outline potential pathways for the future development of DC applications. These scenarios envision how DC technology could evolve in response to technological advancements, market dynamics, regulatory changes, and societal trends. They provide a strategic framework for stakeholders to navigate the evolving landscape of DC technology and infrastructure. Encouraging Research and Development: Lastly, it is important to keep fostering research and development initiatives to advance the state-of-the-art in DC technology. This involves supporting Research & Development (R&D) efforts focused on improving system efficiency, enhancing grid integration capabilities, developing novel applications, and addressing emerging challenges. By investing in innovation and knowledge creation, the goal is to unlock new possibilities and drive continuous improvement in DC applications. In summary, the scope objectives of DC applications encompass a comprehensive exploration of its diverse applications, identification of challenges and opportunities, proposition of evolution scenarios, promotion of collaboration and standardization, and encouragement of research and development. These objectives collectively aim to catalyse progress and innovation in the field of DC technology, paving the way for its widespread adoption and impact across various sectors.
Authors 21
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Fraunhofer Institute for Integrated Systems and Device Technology
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Fraunhofer Institute for Integrated Systems and Device Technology
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Energias de Portugal (Portugal)
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Energias de Portugal (Portugal)
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Energias de Portugal (Portugal)
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Energias de Portugal (Portugal)
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Katharina Hetzenecker Aachen
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RWTH Aachen University
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Schneider Electric (France)
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Instituto de Engenharia de Sistemas e Computadores Investigação e Desenvolvimento
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Instituto de Engenharia de Sistemas e Computadores Investigação e Desenvolvimento
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Instituto de Engenharia de Sistemas e Computadores Investigação e Desenvolvimento
Affiliation as printed
Instituto de Engenharia de Sistemas e Computadores Investigação e Desenvolvimento
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University of Lisbon · Instituto Superior Técnico
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Universidade de Lisboa Instituto Superior Técnico
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Phoenix Contact (Germany)
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Phoenix Contact (Germany)
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Schneider Electric (France)
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Nexans (France)
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Nexans (France)
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Eaton (Germany)
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Watt & Well
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Instituto de Engenharia de Sistemas e Computadores Investigação e Desenvolvimento
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Instituto de Engenharia de Sistemas e Computadores Investigação e Desenvolvimento
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Électricité de France (France)
Affiliation as printed
Électricité de France (France)
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Électricité de France (France)
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Électricité de France (France)
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APRAM
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Ficantieri SI
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