Abstract:This article attempts to identify the key forces driving the successful digitalization of the energy sector, ensuring improvements in the energy triangle including sustainability, stability, and economic performance. The article sheds light on the diverse energy priorities at supra-, national, and managerial levels, and the role of digitalization in achieving these objectives. Catching up economies (such as Poland), being post-socialist EU member states, in order to transform its energetic sector, must overcom… Show more
“…Positive implications of applying digital technologies to various use cases throughout the economy and the value generated can come as economic gain (e.g., from improved efficiencies) or societal benefit (e.g., more reliable, decarbonized electricity generation) [2,6]. A recent study based on an E-survey [7] found that expected improvements in economic performance is the main driver for the uptake of digital technologies in the Polish energy sector. The EU's assessment and roadmap for the digital transformation of the energy sector summarizes the potential of digital technology applications along the energy value chain [69].…”
Section: Digitalization In the Electricity Systemmentioning
confidence: 99%
“…There is currently not a common set of definitions of digitization, digitalization and digital transformation in the electricity sector. Digitalization, for example, has been defined both from a data-centric perspective [36,37] ("digitalization as exploiting novel, large-scale data flows for optimizing some processes") and a rather process-centric perspective [2,7] ("digitalization as wide application and uptake of ICT converging physical and digital spheres").…”
Section: Defining Digitalizationmentioning
confidence: 99%
“…However, a clear, consistent definition is a fundamental basis for further analysis. Hence, building on previous findings of [2,7,38], and differentiating by process duration and involved agents, we define: •Digital transformation as large-scale, cross-sectoral networking of all economic and social agents towards an interlinked, digital system, which exploits enhanced data exchange, analysis, and decision capabilities. Over the period of years to decades, digital transformation changes the interactions between all market actors.…”
“…Positive implications of applying digital technologies to various use cases throughout the economy and the value generated can come as economic gain (e.g., from improved efficiencies) or societal benefit (e.g., more reliable, decarbonized electricity generation) [2,6]. A recent study based on an E-survey [7] found that expected improvements in economic performance is the main driver for the uptake of digital technologies in the Polish energy sector. The EU's assessment and roadmap for the digital transformation of the energy sector summarizes the potential of digital technology applications along the energy value chain [69].…”
Section: Digitalization In the Electricity Systemmentioning
confidence: 99%
“…There is currently not a common set of definitions of digitization, digitalization and digital transformation in the electricity sector. Digitalization, for example, has been defined both from a data-centric perspective [36,37] ("digitalization as exploiting novel, large-scale data flows for optimizing some processes") and a rather process-centric perspective [2,7] ("digitalization as wide application and uptake of ICT converging physical and digital spheres").…”
Section: Defining Digitalizationmentioning
confidence: 99%
“…However, a clear, consistent definition is a fundamental basis for further analysis. Hence, building on previous findings of [2,7,38], and differentiating by process duration and involved agents, we define: •Digital transformation as large-scale, cross-sectoral networking of all economic and social agents towards an interlinked, digital system, which exploits enhanced data exchange, analysis, and decision capabilities. Over the period of years to decades, digital transformation changes the interactions between all market actors.…”
“…Digitalization leads to the overall replacement and enhancement of energy use systems, creating a sustainable energy development platform that efficiently distributes energy resources (Fatai Adedoyin et al, 2021; Światowiec‐Szczepańska & Stępień, 2022). Consequently, a narrative implies that digitization enhances the working‐age population's efficiency, knowledge, and abilities, increasing productivity.…”
The agricultural sector holds paramount implications in the economies of BRICS (Brazil, Russia, India, China, and South Africa) countries. Nevertheless, the escalating effect of climate change shows a significant and alarming threat to the actual environmental conditions required to sustain agricultural production. This study examines the potential contribution of demographic dividends, digitalization, and energy intensity in facilitating the attainment of environmental sustainability and agricultural productivity by BRICS economies from 1996 to 2020. The study first tested cross‐sectional dependence, then unit roots, cointegration, and long‐run elasticities using suitable econometric approaches to explore possible links between the study variables. The empirical results from the long‐run estimators stated that digitalization improves agricultural production and the environment; contrarily, demographic dividend and energy intensity contribute to environmental degradation. Furthermore, the long‐term improvement of agricultural production is supported by demographic dividend, GDP per capita, energy intensity, and digitalization. Also, the study reached a broad inference emphasizing bidirectional causal associations between demographic dividend, energy intensity, GDP per capita, the environment, and agricultural production. In conclusion, the study has identified robust policy options for BRICS economies that can serve as valuable guidance for policymakers in making informed decisions and implementing effective practices.
“…One major challenge is the additional battery degradation incurred by the repeated charging and discharging cycles of bidirectional V2G implementation [281] . For the convenience and safety of their vehicles, drivers of electric vehicles usually charge in advance or ensure high charging levels for their electric vehicles [282] , which would preclude them from actively participating in two-way V2G services. Future researches should focus on intelligent scheduling and valuation technologies of V2G as well as digital battery management technologies.…”
Digitalization and decarbonization are projected to be two major trends in the coming decades. As the already widespread process of digitalization continues to progress, especially in energy and transportation systems, massive data will be produced, and how these data could support and promote decarbonization has become a pressing concern. This paper presents a comprehensive review of digital technologies and their potential applications in low-carbon energy and transportation systems from the perspectives of infrastructure, common mechanisms and algorithms, and system-level impacts, as well as the application of digital technologies to coupled energy and transportation systems with electric vehicles. This paper also identifies corresponding challenges and future research directions, such as in the field of blockchain, digital twin, vehicle-to-grid, low-carbon computing, and data security and privacy, especially in the context of integrated energy and transportation systems.
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