Abstract
Demand response in energy is an indispensable side of energy governance, including energy efficiency (EE), resilience in energy resource management, design of new energy developments, and governmental applications. Therefore, all further attempts to create applicable EE management would be noteworthy to reduce energy consumption to make a zero-net society and catch the Paris Agreement’s proposes. Developing and developed countries have started progressing rapidly regarding the impact and demand response in the EE context. These approaches, seen as the positive external effect of the last 20 years of climate data and the consciousness created by natural disasters, have made EE a trend in today. That is why the development of various approaches for every instrument that can be controlled in terms of energy consumption has accelerated the integration of energy science with other fields of science. Building energy management systems (BEMS), home energy management systems (HEMS), and for legacy process load (FLPL)—legacy management in energy are core elements of conventional and residential energy consumption control mechanisms in energy technology and sciences. The effect of these systems is undeniable in the energy transition and economic process. This article aims to indicate how the demand response in energy affects BEMS, HEMS, and the legacy process loads and to show which technology roadmap controls the problems that the effect will create. The research uses the Bonneville Power Administration demand response technology project to adapt Turkey’s new energy demand response–based technology roadmap. In conclusion, the article will demonstrate the technology roadmap process of the proposed approach and its analytical systems.
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The authors thank Ebru ACUNER TÜRET for her valuable support.
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Sözer, H., Kılınç, A., Sönmez, L., Özkan, F.Ö., Daim, T.U. (2023). Designing a Technology Roadmap Through Demand Response Management in Energy. In: Daim, T.U., Phaal, R., Meissner, D., Kerr, C. (eds) Next Generation Roadmapping. Science, Technology and Innovation Studies. Springer, Cham. https://doi.org/10.1007/978-3-031-38575-9_12
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