Deepak PANT

Dr. Deepak PANT

VITO, 200 Boeretang, 2400 Mol, Belgium;
orcid

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 April 2016 in Applied Energy
Verified
Journal Article
Closed access
PPPrashant Pandey
Prashant Pandey
VSVikas N. Shinde
Vikas N. Shinde
RDRajendra L. Deopurkar
Rajendra L. Deopurkar
SKSharad P. Kale
Sharad P. Kale
SPSunil Patil
Sunil Patil
Deepak PANTDeepak PANT
Deepak PANT

23 December 2011 in RSC Advances
Verified
Journal Article
Closed access
PDF file
Deepak PANTDeepak PANT
Deepak PANT
ASAnoop Singh
Anoop Singh
GBGilbert Van Bogaert
Gilbert Van Bogaert
SOStig Olsen
Stig Olsen
Poonam Singh NigamPoonam Singh Nigam
Poonam Singh Nigam
KVKarolien Vanbroekhoven
Karolien Vanbroekhoven
Bioelectrochemical systems (BESs) are unique systems capable of converting the chemical energy of organic waste including low-strength wastewaters and lignocellulosic biomass into electricity or hydrogen/chemical products in microbial fuel cells (MFCs) or microbial electrolysis cells (MECs) respectively, or other products formed at the cathode by an electrochemical reduction process. As compared to conventional fuel cells, BESs operate under relatively mild conditions, use a wide variety of organic substrates and mostly do not use expensive precious metals as catalysts. The recently discovered use of BES for product synthesis via microbial electrosynthesis have greatly expanded the horizon for these systems. Newer concepts in application as well as development of alternative materials for electrodes, separators, and catalysts, along with innovative designs have made BESs very promising technologies. This article discusses the recent developments that have been made in BESs so far, with an emphasis on their various applications beyond electricity generation, resulting performances and current limitations.

1 October 2017 in Bioresource Technology
Verified
Journal Article
Closed access
Abdul-Sattar NizamiAbdul-Sattar Nizami
Abdul-Sattar Nizami
Mohammad RehanMohammad Rehan
Mohammad Rehan
MWM. Waqas
M. Waqas
MNMuhammad Naqvi
Muhammad Naqvi
OOO.K.M Ouda
O.K.M Ouda
Deepak PANTDeepak PANT
Deepak PANT

1 December 2016 in Renewable Energy
Verified
Journal Article
Closed access
SBSuman Bajracharya
Suman Bajracharya
MSMohita Sharma
Mohita Sharma
GMGunda Mohanakrishna
Gunda Mohanakrishna
XBXochitl Dominguez Benneton
Xochitl Dominguez Benneton
DSDavid P.B.T.B. Strik
David P.B.T.B. Strik
Deepak PANTDeepak PANT
Deepak PANT

1 September 2007 in Bioresource Technology
Verified
Journal Article
Closed access
Deepak PANTDeepak PANT
Deepak PANT
AAAlok Adholeya
Alok Adholeya

1 September 2019 in iScience
Verified
Journal Article
Open access
MKMaximilian König
Maximilian König
JVJan Vaes
Jan Vaes
EKElias Klemm
Elias Klemm
Deepak PANTDeepak PANT
Deepak PANT
Different electrolytes applied in the aqueous electrocatalytic CO2 reduction reaction (CO2RR) considerably influence the catalyst performance. Their concentration, species, buffer capacity, and pH value influence the local reaction conditions and impact the product distribution of the electrocatalyst. Relevant properties of prospective solvents include their basicity, CO2 solubility, conductivity, and toxicity, which affect the CO2RR and the applicability of the solvents. The complexity of an electrochemical system impedes the direct correlation between a single parameter and cell performance indicators such as the Faradaic efficiency; thus the effects of different electrolytes are often not fully comprehended. For an industrial application, a deeper understanding of the effects described in this review can help with the prediction of performance, as well as the development of scalable electrolyzers. In this review, the application of supporting electrolytes and different solvents in the CO2RR reported in the literature are summarized and discussed.