Ganapati Yadav

Ganapati Yadav


Research Focus & Metrics

Academic Career Length

32Years (1995-Present)

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

Representative Publications

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14 July 2014 in Industrial & Engineering Chemistry Research
Verified
Journal Article
Closed access
CGChandrakanth Gadipelly
Chandrakanth Gadipelly
APAntía Pérez-González
Antía Pérez-González
GYGanapati Yadav
Ganapati Yadav
IOInmaculada Ortiz
Inmaculada Ortiz
RMRaquel Ibáñez Mendizabal
Raquel Ibáñez Mendizabal
KMKumudini V. Marathe
Kumudini V. Marathe

1 October 2015 in Journal of Environmental Management
Verified
Journal Article
Closed access
SJSachin V. Jadhav
Sachin V. Jadhav
EBEugenio Bringas
Eugenio Bringas
GYGanapati Yadav
Ganapati Yadav
VRVirendra K. Rathod
Virendra K. Rathod
IOInmaculada Ortiz
Inmaculada Ortiz
KMKumudini V. Marathe
Kumudini V. Marathe

4 January 2021 in Industrial & Engineering Chemistry Research
Verified
Journal Article
Closed access
ARApoorva M. Ranjekar
Apoorva M. Ranjekar
GYGanapati Yadav
Ganapati Yadav

21 September 2020 in Clean Technologies and Environmental Policy
Verified
Journal Article
Open access
PDF file
VYVikramaditya Ganapati Yadav
Vikramaditya Ganapati Yadav
GYGanapati Yadav
Ganapati Yadav
SPSaurabh C. Patankar
Saurabh C. Patankar
Energy and the environment are intimately related and hotly debated issues. Today’s crude oil-based economy for the manufacture of fuels, chemicals and materials will not have a sustainable future. The over-use of oil products has done a great damage to the environment. Faced with the twin challenges of sustaining socioeconomic development and shrinking the environmental footprint of chemicals and fuel manufacturing, a major emphasis is on either converting biomass into low-value, high-volume biofuels or refining it into a wide spectrum of products. Using carbon for fuel is a flawed approach and unlikely to achieve any nation’s socioeconomic or environmental targets. Biomass is chemically and geographically incompatible with the existing refining and pipeline infrastructure, and biorefining and biofuels production in their current forms will not achieve economies of scale in most nations. Synergistic use of crude oil, biomass, and shale gas to produce fuels, value-added chemicals, and commodity chemicals, respectively, can continue for some time. However, carbon should not be used as a source of fuel or energy but be valorized to other products. In controlling CO2emissions, hydrogen will play a critical role. Hydrogen is best suited for converting waste biomass and carbon dioxide emanated from different sources, whether it be fossil fuel-derived carbon or biomass-derived carbon, into fuels and chemicals as well as it will also lead, on its own as energy source, to the carbon negative scenario in conjunction with other renewable non-carbon sources. This new paradigm for production of fuels and chemicals not only offers the greatest monetization potential for biomass and shale gas, but it could also scale down output and improve the atom and energy economies of oil refineries. We have also highlighted the technology gaps with the intention to drive R&D in these directions. We believe this article will generate a considerable debate in energy sector and lead to better energy and material policy across the world.Graphic


1 January 2021 in Journal of the Indian Chemical Society
Verified
Journal Article
Closed access
ARApoorva M. Ranjekar
Apoorva M. Ranjekar
GYGanapati Yadav
Ganapati Yadav