Process Design and Sustainable Development

Process design deals with the most important long-term engineering decisions in the chemical and process industries. It determines process economics, environmental impacts, and workers' wellbeing—the three pillars of sustainable development. The United Nations’ resolution of 2015 defined 17 Sustaina...

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Հրապարակվել է: MDPI - Multidisciplinary Digital Publishing Institute 2024
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Առցանց հասանելիություն:ONIX_20240514_9783725807079_410
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collection Directory of Open Access Books
description Process design deals with the most important long-term engineering decisions in the chemical and process industries. It determines process economics, environmental impacts, and workers' wellbeing—the three pillars of sustainable development. The United Nations’ resolution of 2015 defined 17 Sustainable Development Goals (SDGs); among the most important ones is Goal No. 12: “Ensure sustainable consumption and production patterns.” It includes 11 targets to be achieved over the next decade. Three of these targets are of utmost importance to industrial development by 2030: achieving the sustainable management and efficient use of natural resources; achieving the environmentally sound management of chemicals and all types of waste throughout their life cycle and significantly reducing their release into air, water, and soil; substantially reducing waste generation through prevention, reduction, recycling, and reuse. SDG 12 includes the consumption of raw materials, energy, water, and other resources used in process industries and their value chains. It is embracing the circular economy, resource efficiency, zero waste, and design for the environment (eco-design) by investing in innovation, research, and education to redesign the economy and update pollution strategies and industrial policies. Industry 4.0 brings about artificial intelligence, the Internet of Things, big data, automation, robotics, and process intensification. All these changes require a rapid adaptation of process design for sustainable development, which is the topic covered in this reprint.
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spelling doab-20.500.12854ir-1378142024-05-14T14:34:07Z Process Design and Sustainable Development Glavič, Peter rheometer quality function deployment design Fischer Tropsch syngas CFD entrapped cobalt catalyst thermal management design process innovation responsible design sustainable design sustainable innovation slime fluidized bed mechanism model boiler thermal efficiency simulation cooperative optimization maintenance scheduling fouling flexibility heat exchanger process design sustainable development chemical industry process industry megatrends design tools Europe 2020 sustainable growth resource efficiency IO analysis CO2 emission ICT service ICT manufacturing electrostatic desalting droplet collision mathematical model emulsion breakage natural convection solar dryer electric convective dryer brewer’s spent grains waste valorization artificial neural networks computational fluid dynamics soft computing genetic algorithms product scheduling heuristic methods sustainability engineering principle responsibility project management maturity business excellence Industry 4.0 EFQM watermelon rind by-product multiobjective optimization neural network modeling electrical vehicle transition multi-criteria decision making ANP DEMATEL SDG 12 waste heat recovery damage detection non-destructive testing thermal filming digital twin optimization influencing factors n/a Process design deals with the most important long-term engineering decisions in the chemical and process industries. It determines process economics, environmental impacts, and workers' wellbeing—the three pillars of sustainable development. The United Nations’ resolution of 2015 defined 17 Sustainable Development Goals (SDGs); among the most important ones is Goal No. 12: “Ensure sustainable consumption and production patterns.” It includes 11 targets to be achieved over the next decade. Three of these targets are of utmost importance to industrial development by 2030: achieving the sustainable management and efficient use of natural resources; achieving the environmentally sound management of chemicals and all types of waste throughout their life cycle and significantly reducing their release into air, water, and soil; substantially reducing waste generation through prevention, reduction, recycling, and reuse. SDG 12 includes the consumption of raw materials, energy, water, and other resources used in process industries and their value chains. It is embracing the circular economy, resource efficiency, zero waste, and design for the environment (eco-design) by investing in innovation, research, and education to redesign the economy and update pollution strategies and industrial policies. Industry 4.0 brings about artificial intelligence, the Internet of Things, big data, automation, robotics, and process intensification. All these changes require a rapid adaptation of process design for sustainable development, which is the topic covered in this reprint. 2024-05-14T14:34:04Z 2024-05-14T14:34:04Z 2024 book ONIX_20240514_9783725807079_410 9783725807079 9783725807086 https://directory.doabooks.org/handle/20.500.12854/137814 eng application/octet-stream Attribution-NonCommercial-NoDerivatives 4.0 International https://mdpi.com/books/pdfview/book/9049 https://mdpi.com/books/pdfview/book/9049 MDPI - Multidisciplinary Digital Publishing Institute 10.3390/books978-3-7258-0708-6 10.3390/books978-3-7258-0708-6 46cabcaa-dd94-4bfe-87b4-55023c1b36d0 9783725807079 9783725807086 332 open access
spellingShingle rheometer
quality function deployment
design
Fischer Tropsch
syngas
CFD
entrapped cobalt catalyst
thermal management
design process
innovation
responsible design
sustainable design
sustainable innovation
slime fluidized bed
mechanism model
boiler thermal efficiency
simulation
cooperative optimization
maintenance
scheduling
fouling
flexibility
heat exchanger
process design
sustainable development
chemical industry
process industry
megatrends
design tools
Europe 2020
sustainable growth
resource efficiency
IO analysis
CO2 emission
ICT service
ICT manufacturing
electrostatic desalting
droplet collision
mathematical model
emulsion breakage
natural convection solar dryer
electric convective dryer
brewer’s spent grains
waste valorization
artificial neural networks
computational fluid dynamics
soft computing
genetic algorithms
product scheduling
heuristic methods
sustainability
engineering
principle
responsibility
project management maturity
business excellence
Industry 4.0
EFQM
watermelon rind
by-product
multiobjective optimization
neural network modeling
electrical vehicle transition
multi-criteria decision making
ANP
DEMATEL
SDG 12
waste heat recovery
damage detection
non-destructive testing
thermal filming
digital twin
optimization
influencing factors
n/a
Process Design and Sustainable Development
title Process Design and Sustainable Development
title_full Process Design and Sustainable Development
title_fullStr Process Design and Sustainable Development
title_full_unstemmed Process Design and Sustainable Development
title_short Process Design and Sustainable Development
title_sort process design and sustainable development
topic rheometer
quality function deployment
design
Fischer Tropsch
syngas
CFD
entrapped cobalt catalyst
thermal management
design process
innovation
responsible design
sustainable design
sustainable innovation
slime fluidized bed
mechanism model
boiler thermal efficiency
simulation
cooperative optimization
maintenance
scheduling
fouling
flexibility
heat exchanger
process design
sustainable development
chemical industry
process industry
megatrends
design tools
Europe 2020
sustainable growth
resource efficiency
IO analysis
CO2 emission
ICT service
ICT manufacturing
electrostatic desalting
droplet collision
mathematical model
emulsion breakage
natural convection solar dryer
electric convective dryer
brewer’s spent grains
waste valorization
artificial neural networks
computational fluid dynamics
soft computing
genetic algorithms
product scheduling
heuristic methods
sustainability
engineering
principle
responsibility
project management maturity
business excellence
Industry 4.0
EFQM
watermelon rind
by-product
multiobjective optimization
neural network modeling
electrical vehicle transition
multi-criteria decision making
ANP
DEMATEL
SDG 12
waste heat recovery
damage detection
non-destructive testing
thermal filming
digital twin
optimization
influencing factors
n/a
topic_facet rheometer
quality function deployment
design
Fischer Tropsch
syngas
CFD
entrapped cobalt catalyst
thermal management
design process
innovation
responsible design
sustainable design
sustainable innovation
slime fluidized bed
mechanism model
boiler thermal efficiency
simulation
cooperative optimization
maintenance
scheduling
fouling
flexibility
heat exchanger
process design
sustainable development
chemical industry
process industry
megatrends
design tools
Europe 2020
sustainable growth
resource efficiency
IO analysis
CO2 emission
ICT service
ICT manufacturing
electrostatic desalting
droplet collision
mathematical model
emulsion breakage
natural convection solar dryer
electric convective dryer
brewer’s spent grains
waste valorization
artificial neural networks
computational fluid dynamics
soft computing
genetic algorithms
product scheduling
heuristic methods
sustainability
engineering
principle
responsibility
project management maturity
business excellence
Industry 4.0
EFQM
watermelon rind
by-product
multiobjective optimization
neural network modeling
electrical vehicle transition
multi-criteria decision making
ANP
DEMATEL
SDG 12
waste heat recovery
damage detection
non-destructive testing
thermal filming
digital twin
optimization
influencing factors
n/a
url ONIX_20240514_9783725807079_410