The impact of intelligent cyber-physical systems on the decarbonization of energy

Inderwildi, Oliver R.; Zhang, Chuan; Wang, Xiaonan; Kraft, Markus

doi:10.1039/c9ee01919g

Cited by 126 publications

(55 citation statements)

References 128 publications

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“…[58] CPS P, T +++ [68] Big Data P ++ + [69] Industry 4.0 P +++ [70] Cloud P ++ ++ [71] Big Data P ++ [72] CPS P +++ +++ [73] CPS P ++ ++ [74] Big Data T ++ ++ [75] Cloud, CPS, IoT P +++ ++ [76] Big Data P ++ [77] IAI, Big Data P ++ + [78] CPS P +++ ++ [79] CPS, VR, AR, IoT P ++ ++ [80] CPS P ++ [81] CPS P ++ [82] AM T [83] Industry 4.0 P ++ + [17] Big Data T + [84] Industry Big Data P ++ + [69] Industry 4.0 P +++ [70] Cloud P ++ ++ [71] Big Data P ++ [72] CPS P +++ +++ [73] CPS P ++ ++ [74] Big Data T ++ ++ [75] Cloud, CPS, IoT P +++ ++ [76] Big Data P ++ [77] IAI, Big Data P ++ + [78] CPS P +++ ++ [79] CPS, VR, AR, IoT P ++ ++ [80] CPS P ++ [ [68] Big Data P ++ + [69] Industry 4.0 P +++ [70] Cloud P ++ ++ [71] Big Data P ++ [72] CPS P +++ +++ [73] CPS P ++ ++ [74] Big Data T ++ ++ [75] Cloud, CPS, IoT P +++ ++ [76] Big Data P ++ [77] IAI, Big Data P ++ + [78] CPS P +++ ++ [79] CPS, VR, AR, IoT P ++ ++…”

Section: Mapping Of Literature Analysismentioning

confidence: 99%

“…IoT and CPS enable manufacturing companies to schedule production with higher flexibility [73,113]. The case illustrated by [113] shows a possible reduction of up to 60% of energy consumption by suggesting manufacturing companies plan their production according to the power plants' natural overproduction of energy through wind or solar energy [113].…”

Section: Cps and Connection Level (Iiot)mentioning

confidence: 99%

“…The case illustrated by [113] shows a possible reduction of up to 60% of energy consumption by suggesting manufacturing companies plan their production according to the power plants' natural overproduction of energy through wind or solar energy [113]. Additionally, [73] argues that the CPS-based integrated energy management can reduce industrial energy use by 63%, contributing to the reduction of CO 2 emissions [73].…”

Section: Cps and Connection Level (Iiot)mentioning

confidence: 99%

“…As illustrated by [103], the level of CO 2 emissions can be decreased by approximately 22%, attributed to the information transparency and big data analytics [103]. Moreover, smart production enabled by CPS and IoT platforms could reduce transportation distances within a manufacturing plant by 43%, mainly attributed to outsourcing the module design to the supplier [73].…”

Section: Cps and Connection Level (Iiot)mentioning

confidence: 99%

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Environmental Sustainability of Digitalization in Manufacturing: A Review

2020

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The rapid development and implementation of digitalization in manufacturing has enormous impact on the environment. It is still unclear whether digitalization has positive or negative environmental impact from applications in manufacturing. Therefore, this study aims to discuss the overall implications of digitalization on environmental sustainability through a literature study, within the scope of manufacturing (product design, production, transportation, and customer service). The analysis and categorization of selected articles resulted in two main findings: (1) Digitalization in manufacturing contributes positively to environmental sustainability by increasing resource and information efficiency as a result of applying Industry 4.0 technologies throughout the product lifecycle; (2) the negative environmental burden of digitalization is primarily due to increased resource and energy use, as well as waste and emissions from manufacturing, use, and disposal of the hardware (the technology lifecycle). Based on these findings, a lifecycle perspective is proposed, considering the environmental impacts from both the product and technology lifecycles. This study identified key implications of digitalization on environmental sustainability in manufacturing to increase awareness of both the positive and negative impacts of digitalization and thereby support decision making to invest in new digital technologies.

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Section: Mapping Of Literature Analysismentioning

confidence: 99%

Section: Cps and Connection Level (Iiot)mentioning

confidence: 99%

Section: Cps and Connection Level (Iiot)mentioning

confidence: 99%

Section: Cps and Connection Level (Iiot)mentioning

confidence: 99%

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Environmental Sustainability of Digitalization in Manufacturing: A Review

2020

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“…Further opportunities arise regarding databases, frameworks, methodologies, and platforms for chemistry and reaction engineering [465] , [466] , [467] , [468] , [469] , [470] . Systematic and consistent approaches to numerical simulation of reacting systems [465] , preserving fundamental model details while saving computational time [466 , 467] , facile intercomparison of mechanisms and kinetic information [468 , 469] , recommendation of reaction routes to optimize synthesis strategies [470] , environmental information considering real-time combustion emissions and their local dispersion [469 , 472] are only a few examples that may spark off further ideas and applications for chemical processes and energy conversion systems [470] , [471] , [472] , [473] . The need for high-quality experimental data should, however, be stressed again in this context to ensure that simulations and models remain physically trustworthy.…”

Section: Final Thoughtsmentioning

confidence: 99%

Combustion in the future: The importance of chemistry

Kohse‐Höinghaus

2021

Proceedings of the Combustion Institute

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Combustion involves chemical reactions that are often highly exothermic. Combustion systems utilize the energy of chemical compounds released during this reactive process for transportation, to generate electric power, or to provide heat for various applications. Chemistry and combustion are interlinked in several ways. The outcome of a combustion process in terms of its energy and material balance, regarding the delivery of useful work as well as the generation of harmful emissions, depends sensitively on the molecular nature of the respective fuel. The design of efficient, low-emission combustion processes in compliance with air quality and climate goals suggests a closer inspection of the molecular properties and reactions of conventional, bio-derived, and synthetic fuels. Information about flammability, reaction intensity, and potentially hazardous combustion by-products is important also for safety considerations. Moreover, some of the compounds that serve as fuels can assume important roles in chemical energy storage and conversion. Combustion processes can furthermore be used to synthesize materials with attractive properties. A systematic understanding of the combustion behavior thus demands chemical knowledge. Desirable information includes properties of the thermodynamic states before and after the combustion reactions and relevant details about the dynamic processes that occur during the reactive transformations from the fuel and oxidizer to the products under the given boundary conditions. Combustion systems can be described, tailored, and improved by taking chemical knowledge into account. Combining theory, experiment, model development, simulation, and a systematic analysis of uncertainties enables qualitative or even quantitative predictions for many combustion situations of practical relevance. This article can highlight only a few of the numerous investigations on chemical processes for combustion and combustion-related science and applications, with a main focus on gas-phase reaction systems. It attempts to provide a snapshot of recent progress and a guide to exciting opportunities that drive such research beyond fossil combustion.

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