Dmitrii Pankratov

Dr. Dmitrii Pankratov

Department of Bioscience Engineering, University of Antwerp, Groenenborgerlaan 1 G.V.145, 2020 Antwerpen, Belgium

Research Focus & Metrics

Academic Career Length

30Years (1997-Present)

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

Representative Publications

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20 January 2016 in Electroanalysis
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Journal Article
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Dmitrii PankratovDmitrii Pankratov
Dmitrii Pankratov
EGElena González‐Arribas
Elena González‐Arribas
ZBZoltan Blum
Zoltan Blum
Sergey ShleevSergey Shleev
Sergey Shleev

1 March 2014 in Electrochimica Acta
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Journal Article
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GOGrigory Otrokhov
Grigory Otrokhov
Dmitrii PankratovDmitrii Pankratov
Dmitrii Pankratov
GSGalina Shumakovich
Galina Shumakovich
MKMaria Khlupova
Maria Khlupova
YZYulia Zeifman
Yulia Zeifman
AYAlexander Yaropolov
Alexander Yaropolov

11 December 2013 in ChemElectroChem
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Journal Article
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Dmitrii PankratovDmitrii Pankratov
Dmitrii Pankratov
ZBZoltan Blum
Zoltan Blum
DSDmitry B. Suyatin
Dmitry B. Suyatin
VPVladimir Popov
Vladimir Popov
Sergey ShleevSergey Shleev
Sergey Shleev

5 March 2014 in Langmuir
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Journal Article
Closed access
Dmitrii PankratovDmitrii Pankratov
Dmitrii Pankratov
JSJavier Sotres
Javier Sotres
ABAlejandro Barrantes
Alejandro Barrantes
TAThomas Arnebrant
Thomas Arnebrant
Sergey ShleevSergey Shleev
Sergey Shleev

12 December 2013 in Energy & Environmental Science
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Dmitrii PankratovDmitrii Pankratov
Dmitrii Pankratov
PFPeter Falkman
Peter Falkman
ZBZoltan Blum
Zoltan Blum
Sergey ShleevSergey Shleev
Sergey Shleev
We herein report on an entirely new kind of electric power device. In the hybrid device, chemical energy is directly converted into electric energy, which is capacitively stored within a singular contrivance. The device is built based on dual-function electrodes, viz. discrete electrodes manifesting simultaneous electrocatalytic and charge-storage features.

2 November 2016 in Angewandte Chemie International Edition
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Dmitrii PankratovDmitrii Pankratov
Dmitrii Pankratov
FCFelipe Conzuelo
Felipe Conzuelo
Piyanut PinyouPiyanut Pinyou
Piyanut Pinyou
SASabine Alsaoub
Sabine Alsaoub
WSWolfgang Schuhmann
Wolfgang Schuhmann
Sergey ShleevSergey Shleev
Sergey Shleev
We propose the very first “Nernstian biosupercapacitor”, a biodevice based on only one redox polymer: poly(vinyl imidazole‐co‐allylamine)[Os(bpy)2Cl], and two biocatalysts. At the bioanode PQQ‐dependent glucose dehydrogenase reduces the Os3+ moieties at the polymer to Os2+ shifting the Nernst potential of the Os3+/Os2+ redox couple to negative values. Concomitantly, at the biocathode the reduction of O2 by means of bilirubin oxidase embedded in the same redox polymer leads to the oxidation of Os2+ to Os3+ shifting the Nernst potential to higher values. Despite the use of just one redox polymer an open circuit voltage of more than 0.45 V was obtained during charging and the charge is stored in the redox polymer at both the bioanode and the biocathode. By connecting both electrodes via a predefined resistor a high power density is obtained for a short time exceeding the steady state power of a corresponding biofuel cell by a factor of 8.