Modelling synergistic action of laccase-based biosensor utilizing simultaneous substrates conversion

Gaidamauskaitė, Evelina; Baronas, Romas; Kulys, Juozas

doi:10.1007/s10910-011-9844-1

Use this URL to cite this publication: https://hdl.handle.net/20.500.14911/148439

Modelling synergistic action of laccase-based biosensor utilizing simultaneous substrates conversion

Details

Publication Type (CRIS)

Straipsnis Web of Science duomenų bazėje / Article in Web of Science database (S1a)

Publication Type (eLABa)

Straipsnis Web of Science DB / Web of Science DB article (S1)

Author(s)

Author	Affiliation
Gaidamauskaitė, Evelina	Vilniaus universitetas
Baronas, Romas	Vilniaus universitetas
Kulys, Juozas	Chemijos ir bioinžinerijos katedra / Department of Chemistry and Bioengineering (1032)

Title

Modelling synergistic action of laccase-based biosensor utilizing simultaneous substrates conversion

[en]

Evelina Gaidamauskaitė, Romas Baronas, Juozas Kulys

Is part of

Journal of mathematical chemistry

Published In

Year	Volume	Issue	Start Page	End Page
2011	49	8	1573	1586

Publisher

Dordrecht : Springer Netherlands

Publisher (trusted)

Springer Netherlands

Referenced in Database(s)(DBs)

Science Citation Index Expanded (Web of Science)

SpringerLink

MetaPress

Ingenta Connect

Extent

p. 1573-1586

URI

URI
https://hdl.handle.net/20.500.14911/148439

DOI

10.1007/s10910-011-9844-1

Cited references

Science / Art Area

Gamtos mokslai / Natural Sciences (N)

Field of Science / Art

Informatika / Informatics (N009)

Chemijos inžinerija / Chemical engineering (T005)

Biochemija / Biochemistry (N004)

Keywords (en)

Abstract (en)

The response of a laccase-based amperometric biosensor that acts in a synergistic manner was modelled digitally. A mathematical model of the biosensor is based on a system of non-linear reaction diffusion equations. The modelling biosensor comprises three compartments, an enzyme layer, a dialysis membrane and an outer diffusion layer. By changing input parameters the biosensor action was analysed with a special emphasis to the influence of the species concentrations on the synergy of the simultaneous substrates conversion. The digital simulation was carried out using the finite difference technique.