Deepak Yadav

Deepak Yadav

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Deepak Yadav

Chemical Engineering Department, Harcourt Butler Technical University (Formerly HBTI), Kanpur, India

Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

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

Representative Publications

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1 June 2021 in Chemosphere
Verified
Journal Article
Closed access
DYDeepak Yadav
Deepak Yadav
SRS. Rangabhashiyam
S. Rangabhashiyam
PVPramit Verma
Pramit Verma
PSPardeep Singh
Pardeep Singh
PDPooja Devi
Pooja Devi
KKKuppusamy Sathish Kumar
Kuppusamy Sathish Kumar

1 March 2015 in Process Safety and Environmental Protection
Verified
Journal Article
Closed access
DYDeepak Yadav
Deepak Yadav
MKMeghna Kapur
Meghna Kapur
PKPradeep Kumar
Pradeep Kumar
MMMonoj Kumar Mondal
Monoj Kumar Mondal

1 January 2021
Verified
Book Chapter
Closed access
PSPratichi Singh
Pratichi Singh
DYDeepak Yadav
Deepak Yadav
SES. Pandian E
S. Pandian E

4 May 2018 in Environmental Progress & Sustainable Energy
Verified
Journal Article
Closed access
PDF file
DYDeepak Yadav
Deepak Yadav
PKPradeep Kumar
Pradeep Kumar
MKMeghna Kapur
Meghna Kapur
MMMonoj Kumar Mondal
Monoj Kumar Mondal

1 March 2018 in International Journal of Hydrogen Energy
Verified
Journal Article
Closed access
DYDeepak Yadav
Deepak Yadav
PSPratichi Singh
Pratichi Singh
RPRam Prasad
Ram Prasad

1 January 2016 in Procedia Technology
Verified
Journal Article
Open access
DYDeepak Yadav
Deepak Yadav
RPR. Prasad
R. Prasad
Over the past few decades, nitrogen oxides (NOx) from mobile and stationary sources have become a major environmental concern. Environmental regulations about NOx reduction are forced to become more stringent due to escalating global issues like respiratory diseases, photochemical smog, acid rain and stratospheric ozone depletion. Worldwide stringent legislations Euro 6/VI has been implemented recently in September 2014 to control the NOx emission from light and heavy duty vehicles respectively. Selective catalytic reduction (SCR) technology acquires its wide acceptance in mobile and stationary sources in catalytic NOx reduction with aqueous urea/ammonia. Most of the NOx abatement catalysts are able to reduce NOx under intermediate and high temperature ranges. At the low temperature (<523 K), during the engine start-up, active NOx abatement catalysts are the challenging area in this regard due to the presence of excess H2O and SO2. A low temperature noble metal free SCR catalyst has the benefit of lesser energy expenditure and low cost advantage. The aim of the present paper is to compile the various parameters like choice of precursor, oxidation states of active components, effect of different dopants, and structural stability affects. The catalyst efficiency verified by various surface characterization studies in structure-activity relationship is also reviewed. A low temperature SCR catalyst with broad operating temperature range in engine exhausts are the viable solutions to the current situation.