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dc.contributor.authorWalsh, Michael J.en_US
dc.contributor.authorFox-Penner, Peteren_US
dc.contributor.authorZheng, Kevinen_US
dc.contributor.authorPollack, Adamen_US
dc.contributor.authorCleveland, Cutler J.en_US
dc.date.accessioned2020-01-30T21:01:24Z
dc.date.available2020-01-30T21:01:24Z
dc.date.issued2019-05-15
dc.identifier.citationWalsh, Michael J., Peter Fox-Penner, Kevin Zheng, Adam Pollack, and Cutler J. Cleveland. 2019. Carbon Free Boston: Energy Technical Report (Boston University Institute for Sustainable Energy, Boston, MA, USA). Available at http://sites.bu.edu/cfb/technical-reports.
dc.identifier.urihttps://hdl.handle.net/2144/39216
dc.descriptionPart of a series of reports that includes: Carbon Free Boston: Summary Report; Carbon Free Boston: Social Equity Report; Carbon Free Boston: Technical Summary; Carbon Free Boston: Buildings Technical Report; Carbon Free Boston: Transportation Technical Report; Carbon Free Boston: Waste Technical Report; Carbon Free Boston: Offsets Technical Report; Available at http://sites.bu.edu/cfb/en_US
dc.description.abstractINTRODUCTION: The adoption of clean energy in Boston’s buildings and transportation systems will produce sweeping changes in the quantity and composition of the city’s demand for fuel and electricity. The demand for electricity is expected to increase by 2050, while the demand for petroleum-based liquid fuels and natural gas within the city is projected to decline significantly. The city must meet future energy demand with clean energy sources in order to meet its carbon mitigation targets. That clean energy must be procured in a way that supports the City’s goals for economic development, social equity, environmental sustainability, and overall quality of life. This chapter examines the strategies to accomplish these goals. Improved energy efficiency, district energy, and in-boundary generation of clean energy (rooftop PV) will reduce net electric power and natural gas demand substantially, but these measures will not eliminate the need for electricity and gas (or its replacement fuel) delivered into Boston. Broadly speaking, to achieve carbon neutrality by 2050, the city must therefore (1) reduce its use of fossil fuels to heat and cool buildings through cost-effective energy efficiency measures and electrification of building thermal services where feasible; and (2) over time, increase the amount of carbon-free electricity delivered to the city. Reducing energy demand though cost effective energy conservation measures will be necessary to reduce the challenges associated with expanding the electricity delivery system and sustainably sourcing renewable fuels.en_US
dc.relation.ispartofseriesCarbon Free Boston Technical Reports
dc.rights© Copyright 2019 Institute for Sustainable Energy, Boston University.en_US
dc.subjectClimate changeen_US
dc.subjectEnergy policiesen_US
dc.subjectBostonen_US
dc.subjectCarbon Free Bostonen_US
dc.subjectMassachusettsen_US
dc.subjectRenewable energyen_US
dc.subjectClean Power Planen_US
dc.subjectCity energy planningen_US
dc.titleCarbon Free Boston: Energy Technical Reporten_US
dc.typeTechnical Reporten_US
dc.description.versionPublished versionen_US
pubs.elements-sourcemanual-entryen_US
pubs.notesEmbargo: Not knownen_US
pubs.organisational-groupBoston Universityen_US
pubs.organisational-groupBoston University, College of Arts & Sciencesen_US
pubs.organisational-groupBoston University, College of Arts & Sciences, Department of Earth & Environmenten_US
dc.identifier.mycv482428


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