Rena A Zinchenko

Prof. Dr. Rena A Zinchenko

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Research Focus & Metrics

Academic Career Length

28Years (1999-Present)

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

Representative Publications

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10 November 2006 in Science
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AKAnastasiya Kazantseva
Anastasiya Kazantseva
AGAndrey Goltsov
Andrey Goltsov
RZRena A Zinchenko
Rena A Zinchenko
AGAnastasia P. Grigorenko
Anastasia P. Grigorenko
AAAnna V. Abrukova
Anna V. Abrukova
EREvgeny Rogaev
Evgeny Rogaev
The molecular mechanisms controlling human hair growth and scalp hair loss are poorly understood. By screening about 350,000 individuals in two populations from the Volga-Ural region of Russia, we identified a gene mutation in families who show an inherited form of hair loss and a hair growth defect. Affected individuals were homozygous for a deletion in the LIPH gene on chromosome 3q27, caused by short interspersed nuclear element–retrotransposon–mediated recombination. The LIPH gene is expressed in hair follicles and encodes a phospholipase called lipase H (alternatively known as membrane-associated phosphatidic acid–selective phospholipase A1α), an enzyme that regulates the production of bioactive lipids. These results suggest that lipase H participates in hair growth and development.

28 January 2009 in European Journal of Human Genetics
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Journal Article
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EBElena Bliznetz
Elena Bliznetz
STSvetlana M Tverskaya
Svetlana M Tverskaya
RZRena A Zinchenko
Rena A Zinchenko
AAAnna V Abrukova
Anna V Abrukova
ESEkaterina N Savaskina
Ekaterina N Savaskina
APAlexander V Polyakov
Alexander V Polyakov

21 March 2017 in Clinical Genetics
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TVTatyana Vasilyeva
Tatyana Vasilyeva
AVA.A. Voskresenskaya
A.A. Voskresenskaya
BKBarbara Käsmann-Kellner
Barbara Käsmann-Kellner
OKO.V. Khlebnikova
O.V. Khlebnikova
NPNadezhda A Pozdeyeva
Nadezhda A Pozdeyeva
RZRena A Zinchenko
Rena A Zinchenko

15 January 2015 in Annals of Human Genetics
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TMTatiana I. Meshcheryakova
Tatiana I. Meshcheryakova
RZRena A Zinchenko
Rena A Zinchenko
TVTatyana Vasilyeva
Tatyana Vasilyeva
AMAndrey Marakhonov
Andrey Marakhonov
SZSvetlana S. Zhylina
Svetlana S. Zhylina
GMGennady R. Mutovin
Gennady R. Mutovin

15 May 2020 in Genes
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Journal Article
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NPNika V. Petrova
Nika V. Petrova
NKNataliya Kashirskaya
Nataliya Kashirskaya
TVTatyana Vasilyeva
Tatyana Vasilyeva
EKElena Kondatyeva
Elena Kondatyeva
EZElena K. Zhekaite
Elena K. Zhekaite
RZRena A Zinchenko
Rena A Zinchenko
The distribution and frequency of the CFTR gene mutations vary considerably between countries and ethnic groups. Russians are an East Slavic ethnic groups are native to Eastern Europe. Russians, the most numerous people of the Russian Federation (RF), make about 80% of the population. The aim is to reveal the molecular causes of CF in ethnic Russian patients as comprehensively as possible. The analysis of most common CFTR mutations utilized for CF diagnosis in multiethnic RF population accounts for about 83% of all CF-causing mutations in 1384 ethnic Russian patients. Variants c.1521_1523delCTT (F508del), c.54-5940_273+10250del21kb (CFTRdele2,3), c.2012delT (2143delT), c.2052_2053insA (2184insA), and c.3691delT (3821delT) are most typical for CF patients of Russian origin. DNA of 154 CF patients, Russian by origin, in whom at least one mutant allele was not previously identified (164 CF alleles), was analyzed by Sanger sequencing followed by the multiplex ligase-dependent probe amplification (MLPA) method. In addition to the 29 variants identified during the previous test for common mutations, 91 pathogenic CFTR variants were also revealed: 29 missense, 19 nonsense, 14 frame shift in/del, 17 splicing, 1 in frame ins, and 11 copy number variations (CNV). Each of the 61 variants was revealed once, and 17 twice. Each of the variants c.1209G>C (E403D), c.2128A>T (K710X), c.3883delA (4015delA), and c.3884_3885insT (4016insT) were detected for three, c.1766+1G>A (1898+1G>A) and c.2834C>T (S945L) for four, c.1766+1G>C (1898+1G>C) and c.(743+1_744-1)_(1584+1_1585-1)dup (CFTRdup6b-10) for five, c.2353C>T (R785X) and c.4004T>C (L1335P) for six, c.3929G>A (W1310X) for seven, c.580-1G>T (712-1G>T for eight, and c.1240_1244delCAAAA (1365del5) for 11 unrelated patients. A comprehensive analysis of CFTR mutant alleles with sequencing followed by MLPA, allowed not only the identification of 163 of 164 unknown alleles in our patient sample, but also expansion of the mutation spectrum with novel and additional frequent variants for ethnic Russians.

24 May 2016 in Scientific Reports
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Journal Article
Open access
TAT. V. Andreeva
T. V. Andreeva
TTT. V. Tyazhelova
T. V. Tyazhelova
VRV. N. Rykalina
V. N. Rykalina
FGFedor Gusev
Fedor Gusev
AGA. Yu. Goltsov
A. Yu. Goltsov
EREvgeny Rogaev
Evgeny Rogaev
Tumors of the jaws may represent different human disorders and frequently associate with pathologic bone fractures. In this report, we analyzed two affected siblings from a family of Russian origin, with a history of dental tumors of the jaws, in correspondence to original clinical diagnosis of cementoma consistent with gigantiform cementoma (GC, OMIM: 137575). Whole exome sequencing revealed the heterozygous missense mutation c.1067G > A (p.Cys356Tyr) in ANO5 gene in these patients. To date, autosomal-dominant mutations have been described in the ANO5 gene for gnathodiaphyseal dysplasia (GDD, OMIM: 166260) and multiple recessive mutations have been described in the gene for muscle dystrophies (OMIM: 613319, 611307); the same amino acid (Cys) at the position 356 is mutated in GDD. These genetic data and similar clinical phenotypes demonstrate that the GC and GDD likely represent the same type of bone pathology. Our data illustrate the significance of mutations in single amino-acid position for particular bone tissue pathology. Modifying role of genetic variations in another gene on the severity of the monogenic trait pathology is also suggested. Finally, we propose the model explaining the tissue-specific manifestation of clinically distant bone and muscle diseases linked to mutations in one gene.