Ashish Bohre

Dr. Ashish Bohre


Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

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

Representative Publications

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5 June 2015 in ACS Sustainable Chemistry & Engineering
Verified
Journal Article
Closed access
ABAshish Bohre
Ashish Bohre
SDSaikat Dutta
Saikat Dutta
BSBasudeb Saha
Basudeb Saha
MAMahdi M. Abu-Omar
Mahdi M. Abu-Omar

4 May 2017 in ACS Catalysis
Verified
Journal Article
Closed access
SDSaikat Dutta
Saikat Dutta
ABAshish Bohre
Ashish Bohre
WZWeiqing Zheng
Weiqing Zheng
GJGlen R. Jenness
Glen R. Jenness
MNMarcel Núñez
Marcel Núñez
DVDionisios Vlachos
Dionisios Vlachos

1 June 2017 in Journal of Industrial and Engineering Chemistry
Verified
Journal Article
Closed access
ABAshish Bohre
Ashish Bohre
KAKalpana Avasthi
Kalpana Avasthi
VPVladimir Pet'kov
Vladimir Pet'kov


1 November 2020 in Applied Catalysis B: Environment and Energy
Verified
Journal Article
Closed access
ABAshish Bohre
Ashish Bohre
IAImteyaz Alam
Imteyaz Alam
KAKalpana Avasthi
Kalpana Avasthi
FRFrancisco Ruiz-Zepeda
Francisco Ruiz-Zepeda
BLBlaž Likozar
Blaž Likozar

2 July 2020 in Catalysis Science & Technology
Verified
Journal Article
Closed access
PDF file
KAKalpana Avasthi
Kalpana Avasthi
ABAshish Bohre
Ashish Bohre
MGMiha Grilc
Miha Grilc
Blaž LikozarBlaž Likozar
Blaž Likozar
Basudeb SahaBasudeb Saha
Basudeb Saha
Plastic industries currently source the majority of monomers from crude oil substances. Although we have witnessed a significant interest of companies in the utilization of sustainable feedstock materials for bio-based compound synthesis in the past decade, the transition to photosynthetic or chemosynthetic plant-based production in a circular carbon economy is largely slow due to complex biomass processing, costs and related reaction factors. The upgrade of the separated platform chemicals with a deeper supporting understanding of processes, models and a root–cause analysis about the underlying distribution challenges of engineered transformation mechanisms, catalyzed conversion pathways and selectivity would be beneficial to advance applied scientific development, bio-refining and manufacturing output amount. This review provides a summary, assessment and perspective for three important polymer-forming vinyl molecules, i.e. acrylic acid, methacrylic acid and styrene. These provide a backbone to produce acrylates, polystyrene, resins, rubbers, protective surface coatings, adhesives, textiles and other obtained copolymers. A succinct analytical overview on the thermo-catalytic intermediate routes for property-wise drop-in alternatives is presented. Sugars, acrolein, allyl alcohol, ethylbenzene, glycerol, 3-hydroxypropionic acid, isobutene, itaconic acid and lactic acid are considered as the main starting reactants. Catalysts span mixed metal oxides, silicates, native or impregnated zeolite frameworks (HBEA, HZSM, and MFI) and hetero-poly acids as well as homogeneous base hydroxides or platinum group metals, supported on carbon, alumina and sulfates. The article concludes with a brief state sum-up of the results, topics and opportunities for systematic future research or scaling.