000 04114naaaa2200925uu 4500
001 https://directory.doabooks.org/handle/20.500.12854/76723
005 20220714184643.0
020 _abooks978-3-0365-1566-3
020 _a9783036515656
020 _a9783036515663
024 7 _a10.3390/books978-3-0365-1566-3
_cdoi
041 0 _aEnglish
042 _adc
072 7 _aGP
_2bicssc
072 7 _aTB
_2bicssc
100 1 _aTrianni, Andrea
_4edt
_91598134
700 1 _aTrianni, Andrea
_4oth
_91598134
245 1 0 _aEnhancement of Industrial Energy Efficiency and Sustainability
260 _aBasel, Switzerland
_bMDPI - Multidisciplinary Digital Publishing Institute
_c2021
300 _a1 electronic resource (294 p.)
506 0 _aOpen Access
_2star
_fUnrestricted online access
520 _aIndustrial energy efficiency has been recognized as a major contributor, in the broader set of industrial resources, to improved sustainability and circular economy. Nevertheless, the uptake of energy efficiency measures and practices is still quite low, due to the existence of several barriers. Research has broadly discussed them, together with their drivers. More recently, many researchers have highlighted the existence of several benefits, beyond mere energy savings, stemming from the adoption of such measures, for several stakeholders involved in the value chain of energy efficiency solutions. Nevertheless, a deep understanding of the relationships between the use of the energy resource and other resources in industry, together with the most important factors for the uptake of such measures-also in light of the implications on the industrial operations-is still lacking. However, such understanding could further stimulate the adoption of solutions for improved industrial energy efficiency and sustainability.
540 _aCreative Commons
_fhttps://creativecommons.org/licenses/by/4.0/
_2cc
_4https://creativecommons.org/licenses/by/4.0/
546 _aEnglish
650 7 _aResearch & information: general
_2bicssc
_9928234
650 7 _aTechnology: general issues
_2bicssc
_9928609
653 _acontaminated soil
653 _apolluted soil
653 _athermal desorption
653 _athermal remediation
653 _aenergy analysis and exergy analysis
653 _aenergy saving
653 _aheat integration
653 _aoperability
653 _aretrofit
653 _aoil refinery
653 _ainterviews
653 _aheat transfer
653 _awaste heat recovery
653 _adusty flue gas
653 _agranular bed
653 _aburied tubes
653 _airon and steel industry
653 _atechno-economic pathways
653 _adecarbonization
653 _aCO2 emissions
653 _acarbon abatement measures
653 _aconstruction
653 _abuilding
653 _asupply chain
653 _aroadmap
653 _aheavy industry
653 _acarbon abatement
653 _aemissions reduction
653 _aclimate transition
653 _amulti-agent cooperation
653 _areduced-dimension Q(λ)
653 _aoptimal carbon-energy combined-flow
653 _aenergy efficiency
653 _acompressed air systems
653 _aenergy efficiency measures
653 _anonenergy benefits
653 _aassessment factors
653 _aindustrial energy efficiency
653 _aenergy efficiency culture
653 _aenergy efficiency practices
653 _aenergy management
653 _acogeneration
653 _atrigeneration
653 _asustainability
653 _atropical climate country
653 _abiomass
653 _aadvanced exergoeconomic analysis
653 _aspray dryer
653 _aexergy destruction cost rate
653 _aenergy management practices
653 _aassessment model
856 4 0 _awww.oapen.org
_uhttps://mdpi.com/books/pdfview/book/4172
_70
_zDOAB: download the publication
856 4 0 _awww.oapen.org
_uhttps://directory.doabooks.org/handle/20.500.12854/76723
_70
_zDOAB: description of the publication
999 _c3006542
_d3006542