Maxim Shkurnikov

Dr. Maxim Shkurnikov


Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

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

Representative Publications

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1 November 2016 in Progress in Histochemistry and Cytochemistry
Verified
Journal Article
Closed access
JMJulia Makarova
Julia Makarova
MSMaxim Shkurnikov
Maxim Shkurnikov
DWDaniel Wicklein
Daniel Wicklein
TLTobias Lange
Tobias Lange
TSTimur R. Samatov
Timur R. Samatov
Alexander TonevitskyAlexander Tonevitsky
Alexander Tonevitsky

29 May 2023 in Pharmaceutics
Verified
Journal Article
Open access
PDF file
XZXuemei Zhong
Xuemei Zhong
GWGuoqing Wang
Guoqing Wang
FLFu Li
Fu Li
SFSixian Fang
Sixian Fang
SZSiai Zhou
Siai Zhou
FDFeiqing Ding
Feiqing Ding
β-glucan, one of the homopolysaccharides composed of D-glucose, exists widely in cereals and microorganisms and possesses various biological activities, including anti-inflammatory, antioxidant, and anti-tumor properties. More recently, there has been mounting proof that β-glucan functions as a physiologically active “biological response modulator (BRM)”, promoting dendritic cell maturation, cytokine secretion, and regulating adaptive immune responses—all of which are directly connected with β-glucan-regulated glucan receptors. This review focuses on the sources, structures, immune regulation, and receptor recognition mechanisms of β-glucan.

25 November 2010 in Bulletin of Experimental Biology and Medicine
Verified
Journal Article
Closed access
PDF file
DSD. A. Sakharov
D. A. Sakharov
MSMaxim Shkurnikov
Maxim Shkurnikov
MVMikhail Vagin
Mikhail Vagin
EYE. I. Yashina
E. I. Yashina
Arkady KaryakinArkady Karyakin
Arkady Karyakin
Alexander TonevitskyAlexander Tonevitsky
Alexander Tonevitsky

1 August 2021 in Trends in Biochemical Sciences
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Journal Article
Closed access
JMJulia Makarova
Julia Makarova
Andrey TurchinovichAndrey Turchinovich
Andrey Turchinovich
MSMaxim Shkurnikov
Maxim Shkurnikov
Alexander TonevitskyAlexander Tonevitsky
Alexander Tonevitsky

7 June 2013 in BMC Physiology
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Journal Article
Open access
PDF file
Alexander TonevitskyAlexander Tonevitsky
Alexander Tonevitsky
DMDiana Maltseva
Diana Maltseva
AAAsghar Abbasi
Asghar Abbasi
TSTimur R Samatov
Timur R Samatov
DSDmitry A Sakharov
Dmitry A Sakharov
HNHinnak Northoff
Hinnak Northoff
Background: MiRNAs are essential mediators of many biological processes. The aim of this study was to investigate the dynamics of miRNA-mRNA regulatory networks during exercise and the subsequent recovery period. Results: Here we monitored the transcriptome changes using microarray analysis of the whole blood of eight highly trained athletes before and after 30 min of moderate exercise followed by 30 min and 60 min of recovery period. We combined expression profiling and bioinformatics and analysed metabolic pathways enriched with differentially expressed mRNAs and mRNAs which are known to be validated targets of differentially expressed miRNAs. Finally we revealed four dynamically regulated networks comprising differentially expressed miRNAs and their known target mRNAs with anti-correlated expression profiles over time. The data suggest that hsa-miR-21-5p regulated TGFBR3, PDGFD and PPM1L mRNAs. Hsa-miR-24-2-5p was likely to be responsible for MYC and KCNJ2 genes and hsa-miR-27a-5p for ST3GAL6. The targets of hsa-miR-181a-5p included ROPN1L and SLC37A3. All these mRNAs are involved in processes highly relevant to exercise response, including immune function, apoptosis, membrane traffic of proteins and transcription regulation. Conclusions: We have identified metabolic pathways involved in response to exercise and revealed four miRNA-mRNA networks dynamically regulated following exercise. This work is the first study to monitor miRNAs and mRNAs in parallel into the recovery period. The results provide a novel insight into the regulatory role of miRNAs in stress adaptation.

1 January 2013 in Journal of Clinical Bioinformatics
Verified
Journal Article
Open access
PDF file
DMDiana Maltseva
Diana Maltseva
NKNadezda A Khaustova
Nadezda A Khaustova
NFNikita N Fedotov
Nikita N Fedotov
EMElona O Matveeva
Elona O Matveeva
ALAlexey E Lebedev
Alexey E Lebedev
Alexander TonevitskyAlexander Tonevitsky
Alexander Tonevitsky
Background Quantification and normalization of RT-qPCR data critically depends on the expression of so called reference genes. Our goal was to develop a strategy for the selection of reference genes that utilizes microarray data analysis and combines known approaches for gene stability evaluation and to select a set of appropriate reference genes for research and clinical analysis of breast samples with different receptor and cancer status using this strategy. Methods A preliminary search of reference genes was based on high-throughput analysis of microarray datasets. The final selection and validation of the candidate genes were based on the RT-qPCR data analysis using several known methods for expression stability evaluation: comparative ∆Ct method, geNorm, NormFinder and Haller equivalence test. Results A set of five reference genes was identified: ACTB, RPS23, HUWE1, EEF1A1 and SF3A1. The initial selection was based on the analysis of publically available well-annotated microarray datasets containing different breast cancers and normal breast epithelium from breast cancer patients and epithelium from cancer-free patients. The final selection and validation were performed using RT-qPCR data from 39 breast cancer biopsy samples. Three genes from the final set were identified by the means of microarray analysis and were novel in the context of breast cancer assay. We showed that the selected set of reference genes is more stable in comparison not only with individual genes, but also with a system of reference genes used in commercial OncotypeDX test. Conclusion A selection of reference genes for RT-qPCR can be efficiently performed by combining a preliminary search based on the high-throughput analysis of microarray datasets and final selection and validation based on the analysis of RT-qPCR data with a simultaneous examination of different expression stability measures. The identified set of reference genes proved to be less variable and thus potentially more efficient for research and clinical analysis of breast samples comparing to individual genes and the set of reference genes used in OncotypeDX assay.