Elena A. Tsavkelova

Dr. Elena A. Tsavkelova


Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

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

Representative Publications

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1 January 2007 in Microbiological Research
Verified
Journal Article
Closed access
ETElena A. Tsavkelova
Elena A. Tsavkelova
TCTatiana A. Cherdyntseva
Tatiana A. Cherdyntseva
SBSvetlana G. Botina
Svetlana G. Botina
Alexander NetrusovAlexander Netrusov
Alexander Netrusov

9 August 2007 in Archives of Microbiology
Verified
Journal Article
Closed access
PDF file
ETElena A. Tsavkelova
Elena A. Tsavkelova
TCTatiana A. Cherdyntseva
Tatiana A. Cherdyntseva
SKSvetlana Yu. Klimova
Svetlana Yu. Klimova
ASAndrey I. Shestakov
Andrey I. Shestakov
SBSvetlana G. Botina
Svetlana G. Botina
Alexander NetrusovAlexander Netrusov
Alexander Netrusov


1 January 2005 in Microbiology
Verified
Journal Article
Closed access
PDF file
ETElena A. Tsavkelova
Elena A. Tsavkelova
TCT. A. Cherdyntseva
T. A. Cherdyntseva
ANA. I. Netrusov
A. I. Netrusov

30 May 2017 in Journal of Applied Microbiology
Verified
Journal Article
Closed access
PDF file
APA.S. Pavlova
A.S. Pavlova
MLM.R. Leontieva
M.R. Leontieva
TST.A. Smirnova
T.A. Smirnova
GKG.L. Kolomeitseva
G.L. Kolomeitseva
ANA.I. Netrusov
A.I. Netrusov
ETElena A. Tsavkelova
Elena A. Tsavkelova

5 September 2012 in Applied Biochemistry and Microbiology
Verified
Journal Article
Closed access
PDF file
ETElena A. Tsavkelova
Elena A. Tsavkelova
ANA. I. Netrusov
A. I. Netrusov
Anaerobic microbial conversion of organic substrates to various biofuels is one of the alternative energy sources attracting the greatest attention of scientists. The advantages of biogas production over other technologies are the ability of methanogenic communities to degrade a broad range of substrates and concomitant benefits: neutralization of organic waste, reduction of greenhouse gas emission, and fertilizer production. Cellulose-containing materials are good substrate, but their full-scale utilization encounters a number of problems, including improvement of the quality and amount of biogas produced and maintenance of the stability and high efficiency of microbial communities. We review data on microorganisms that form methanogenic cellulolytic communities, enzyme complexes of anaerobes essential for cellulose fiber degradation, and feedstock pretreatment, as biodegradation is hindered in the presence of lignin. Methods for improving biogas production by optimization of microbial growth conditions are considered on the examples of biogas formation from various types of plant and paper materials: office paper and cardboard.