about
Making glucose oxidase fit for biofuel cell applications by directed protein evolution.High-throughput liberation of water-soluble yeast content by irreversible electropermeation (HT-irEP).Effects of temperature acclimation on lactate dehydrogenase of cod (Gadus morhua): genetic, kinetic and thermodynamic aspects.Environmentally low-temperature kinetic and thermodynamic study of lactate dehydrogenase from Atlantic cod (G. morhua) using a 96-well microplate technique.Purification of glucose oxidase from complex fermentation medium using tandem chromatography.An in vitro study of the effect of reactive oxygen species on subcellular distribution of deposited cadmium in digestive gland of mussel Crenomytilus grayanus.Metabolic efficiency in yeast Saccharomyces cerevisiae in relation to temperature dependent growth and biomass yield.Relationship between shell weight and cadmium content in whole digestive gland of the Japanese scallop Patinopecten yessoensis (Jay).Temperature compensation through systems biology.‘Domino’ systems biology and the ‘A’ of ATPDifferential expression of duplicated LDH-A genes during temperature acclimation of weatherfish Misgurnus fossilisThermal physiology of the common eelpout (Zoarces viviparus)Fast sampling for quantitative microbial metabolomics: new aspects on cold methanol quenching: metabolite co-precipitationSimplified absolute metabolite quantification by gas chromatography–isotope dilution mass spectrometry on the basis of commercially available source materialMiniaturized device for agitating a high-density yeast suspension that is suitable for in vivo nuclear magnetic resonance applicationsThe adaptation of mussels Crenomytilus grayanus to cadmium accumulation result in alterations in organization of microsomal enzyme–membrane complex (non-specific phosphatase)
P50
Q33230692-947AC350-968D-4224-AAE6-A9943103122CQ33269001-1C67B2B2-982F-4A22-8924-04A948F8D1C0Q44669170-36E85685-5BB7-40D4-93EB-AFC9B4576BB7Q44926545-9B23A4CE-A16C-4B6E-B6F6-701A5CFDD8D4Q46482043-E7208B65-4FB6-4CFA-8238-2E767E27BDE5Q46510343-2BBF4F56-4104-4C93-B219-4E64A9985E52Q46685228-9B519CDC-5C19-42F8-ACFD-5AAD290A9A86Q47352481-6C5E8AC6-28CE-4CAD-B150-57DC22BE3A9BQ51925125-A98A0C23-6474-4E8B-B628-26912D6C8106Q57393824-E187F8D7-ED4D-41A8-9A7F-6D22B2366D69Q57525400-857D64F6-DD4D-4FC4-9B37-EDB44312FDBEQ57525514-5D9FFBD0-D2F0-4A05-9894-7885E7E9E943Q57991545-E6D286B4-8177-4986-B3B8-D07980E13221Q57991549-B84D93B3-1181-4C81-96D5-D8318C750E0BQ57991555-604959CC-8B95-499E-B182-B6420013B309Q57991570-1A68B0BB-C2E2-4B8E-B93E-95160B14CCBE
P50
description
hulumtues
@sq
onderzoeker
@nl
researcher
@en
ricercatore
@it
հետազոտող
@hy
name
Maxim Zakhartsev
@ast
Maxim Zakhartsev
@en
Maxim Zakhartsev
@es
Maxim Zakhartsev
@nl
Maxim Zakhartsev
@sl
type
label
Maxim Zakhartsev
@ast
Maxim Zakhartsev
@en
Maxim Zakhartsev
@es
Maxim Zakhartsev
@nl
Maxim Zakhartsev
@sl
altLabel
Maxim Zakhartsev
@en
prefLabel
Maxim Zakhartsev
@ast
Maxim Zakhartsev
@en
Maxim Zakhartsev
@es
Maxim Zakhartsev
@nl
Maxim Zakhartsev
@sl
P214
P1053
J-7000-2012
P106
P1153
6506177848
P21
P214
P31
P3829
P496
0000-0002-7973-9902
P7859
viaf-309653359