How can Urban Manufacturing contribute to a more sustainable energy system in cities?

Tötzer, Tanja; Stollnberger, Romana; Krebs, Roland; Haas, Mara

doi:10.5278/ijsepm.3347

Cited by 3 publications

(4 citation statements)

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“…A key element in the transition of the industrial sector is the electrification of the sector as explored by Sorknaes [13] and for which Johannsen and co-authors [14] developed European pathways. Appiah investigated the uptake of renewable energy sources in the Ghanese industry [15], Tötzer investigated Urban Manufacturing [16] and Østergaard and co-authors [17] investigated the energy system effects of changing compositions of industry and…”

Section: Contentsmentioning

confidence: 99%

Sustainable Energy Planning and Management Vol 37

Østergaard

Johannsen

2023

IJSEPM

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This 37th volume of the International Journal of Sustainable Energy Planning and Management present novel analyses on the Nigerian electricity sector with focus on stakeholders in centralised and decentralised electricity supply. Analyses of Berlin-Brandenburg in Germany shows the prospects of 100 % renewable energy systems here. Industry is an important target in the energy transition, so a model is developed to analyse energy savings potentials. Within the heating sector, much of the individual dwellings in Central and Eastern Europe are impacted by a fuel trap, trapping them between two essentially undesirable options – biomass and natural gas. Also, within the residential sector, a new analysis probes in the feasibility of installing photo voltaics in India, and lastly, an interesting article investigates the local economic and employment effects of increased biofuel production.

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Section: Contentsmentioning

confidence: 99%

Sustainable Energy Planning and Management Vol 37

Østergaard

Johannsen

2023

IJSEPM

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“…Due to their nature, urban factories, located in an urban area, face major challenges, such as spatial issues, regulations, emissions and pollutants, smells, noise and vibration, and logistics and traffic. Limited and lack of affordable spaces, outdated land-use and zoning regulations, political limitations and regulations, planning and construction regulations, high emissions (succeeding the energy sector, the highest emitting sector ahead of the transportation sector), and transportation of materials, components, and products in urban areas are major issues [11,15,[43][44][45][46].…”

Section: Urban Factorymentioning

confidence: 99%

“…This roadmap has seven perspectives, with five steps each. The final state of the fourth perspective (manufacturing) is self-organization through CPS that control product flow and manufacturing parameters [44]. Singh et al mentioned Wittenstein bastian that attempted to develop a future gearing system through integrated CPS.…”

Section: Application Of Sf Core Technologies and Key Manufacturing Sy...mentioning

confidence: 99%

“…Lentes et al considered the decentralized manufacturing approach as the final state of the second perspective (i.e., factory) of the proposed roadmap for urban manufacturing. It involves one or more factories manufacturing customer-neutral pre-products (i.e., common and optional modules) focusing on economies of scale, and urban factories devoted to the production of customer-specific goods (e.g., personalized modules) and final assembly [44]. Juraschek mentioned that results of the life cycle evaluation show that decentralized manufacturing methods can have a lower environmental effect under suitable conditions than centralized mass production systems [67,68].…”

Section: Application Of Sf Core Technologies and Key Manufacturing Sy...mentioning

confidence: 99%

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A Conceptual Definition and Future Directions of Urban Smart Factory for Sustainable Manufacturing

2022

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Today, megatrends such as individualization, climate change, emissions, energy, and resource scarcity, urbanization, and human well-being, impact almost every aspect of people’s lives. Transformative impacts on many sectors are inevitable, and manufacturing is not an exception. Many studies have investigated solutions that focus on diverse directions, with urban production being the focus of many research efforts and recent studies concentrating on Industry 4.0 and smart manufacturing technologies. This study investigated the integration of smart factory technologies with urban manufacturing as a solution for the aforementioned megatrends. A literature review on related fields, mass personalization, sustainable manufacturing, urban factory, and smart factory was conducted to analyze the benefits, challenges, and correlations. In addition, applications of smart factory technologies in urban production with several case studies are summarized from the literature review. The integration of smart factory technologies and urban manufacturing is proposed as the urban smart factory which has three major characteristics, human-centric, sustainable, and resilient. To the best of the author’s knowledge, no such definition has been proposed before. Practitioners could use the conceptual definition of an urban smart factory presented in this study as a reference model for enhancement of urban production while academics could benefit from the mentioned future research directions.

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Sustainable, Smart, and Sensing Technologies for Cyber-Physical Manufacturing Systems: A Systematic Literature Review

et al. 2021

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With growing evidence of the operational performance of cyber-physical manufacturing systems, there is a pivotal need for comprehending sustainable, smart, and sensing technologies underpinning data-driven decision-making processes. In this research, previous findings were cumulated showing that cyber-physical production networks operate automatically and smoothly with artificial intelligence-based decision-making algorithms in a sustainable manner and contribute to the literature by indicating that sustainable Internet of Things-based manufacturing systems function in an automated, robust, and flexible manner. Throughout October 2020 and April 2021, a quantitative literature review of the Web of Science, Scopus, and ProQuest databases was performed, with search terms including “Internet of Things-based real-time production logistics”, “sustainable smart manufacturing”, “cyber-physical production system”, “industrial big data”, “sustainable organizational performance”, “cyber-physical smart manufacturing system”, and “sustainable Internet of Things-based manufacturing system”. As research published between 2018 and 2021 was inspected, and only 426 articles satisfied the eligibility criteria. By taking out controversial or ambiguous findings (insufficient/irrelevant data), outcomes unsubstantiated by replication, too general material, or studies with nearly identical titles, we selected 174 mainly empirical sources. Further developments should entail how cyber-physical production networks and Internet of Things-based real-time production logistics, by use of cognitive decision-making algorithms, enable the advancement of data-driven sustainable smart manufacturing.

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How can Urban Manufacturing contribute to a more sustainable energy system in cities?

Cited by 3 publications

References 0 publications

Sustainable Energy Planning and Management Vol 37

Sustainable Energy Planning and Management Vol 37

A Conceptual Definition and Future Directions of Urban Smart Factory for Sustainable Manufacturing

Sustainable, Smart, and Sensing Technologies for Cyber-Physical Manufacturing Systems: A Systematic Literature Review

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