Satish V. Joshi

Dr. Satish V. Joshi


Research Focus & Metrics

Academic Career Length

22Years (2005-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 March 2011 in Journal of Architectural Engineering
Verified
Journal Article
Closed access
ASAmanjeet Singh
Amanjeet Singh
GBGeorge H. Berghorn
George H. Berghorn
SJSatish V. Joshi
Satish V. Joshi
M. G. Matt Madan SyalM. G. Matt Madan Syal
M. G. Matt Madan Syal
Life-cycle assessment (LCA) has been used to assess product development processes “from cradle to grave” for many years. With the current push toward sustainable construction, LCA has gained importance as an objective method to evaluate the environmental impact of construction practices. A substantial amount of construction-related LCA work has been published recently; however, most of this work has been fragmented and a systematic compilation of this literature has not been undertaken. This article presents a structured review of building construction-related LCA literature, classified under four categories: LCA applications for construction products selection; LCA applications for construction systems/process evaluation; LCA tools and databases related to the construction industry; and LCA methodological developments related to the construction industry. Current challenges for using LCA in construction are discussed and potential areas for future research are highlighted. This review and similar efforts...

1 June 2008 in Journal of Industrial Ecology
Verified
Journal Article
Open access
PDF file
SJSatish V. Joshi
Satish V. Joshi
Summary: Recent developments in nanotechnology, especially in the area of nanoclay composites, are improving the technical performance of biobased polymers and moving them toward technical and economic competitiveness with petroleum‐based polymers and conventional composites. We assess whether these developments also improve the environmental sustainability of biopolymers, by using a life cycle approach. We estimate energy use and emissions from the nanoclay production process and compare these with prior life cycle data for biopolymers as well as other fibers, and we find that nanoclay production results in lower energy use and greenhouse gas emissions than production of many common biopolymers and glass fibers. Nanoclay composites hence can improve the life cycle environmental performance of several common biopolymers. However, for some biopolymers the relative performance depends on the functional unit.

1 January 2010 in Environmental Research Letters
Verified
Journal Article
Open access
YZYimin Zhang
Yimin Zhang
SJSatish V. Joshi
Satish V. Joshi
Heather L MacLeanHeather L MacLean
Heather L MacLean


1 January 2005 in MRS Proceedings
Verified
Journal Article
Closed access
PDF file
DMDario Martino
Dario Martino
SSSusan Selke
Susan Selke
SJSatish V. Joshi
Satish V. Joshi