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SzSA YearBook 2016/17

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SZENT-GYÖRGYI MENTORS<br />

IMRE MIKLÓS BOROS<br />

Institute of Biochemistry, Biological Research Center of<br />

Hungarian Academy of Sciences<br />

Department of Biochemistry and Molecular Biology,<br />

University of Szeged<br />

Address: Közép fasor 52., H-6726 Szeged, Hungary<br />

E: borosi@bio.u-szeged.hu<br />

T: +36 62/544-686<br />

RESEARCH AREA<br />

Technical development during the last decade resulted<br />

in the arrival of a post-genomic area of modern biology.<br />

Thanks to the rapid advance in nucleic acid sequencing and<br />

related technologies the scientific focus related to structure<br />

and function of individual genes has shifted to studies<br />

concerning organization and interactions of complex gene<br />

networks and the whole genome. The laws of epigenetics,<br />

which govern inheritance not fixed in the DNA sequence,<br />

are being recognized nowadays. There are realistic hopes<br />

that the new data on functioning of the genome will improve<br />

our life directly by providing grounds for life style recommendations<br />

and personalized medical treatments, just<br />

to mention a few aspects.<br />

We study gene regulation in different models with the aim<br />

of understanding the role of proteins involved in the packaging<br />

of DNA into chromosomes. The action of these proteins<br />

determines whether a particular gene can manifest its<br />

action or not. Consequently, by changing the activity of<br />

these chromatin modifier proteins, specific gene functions<br />

can be altered intentionally.<br />

TECHNIQUES AVAILABLE IN THE LAB<br />

The techniques we use for studying gene regulation are<br />

among the most advanced ones available in the field. These<br />

include techniques of gene engineering, culturing of different<br />

cell types and measuring gene activity by various means.<br />

Ongoing development further supports our work by<br />

applying the most advanced next-generation sequencing<br />

in our studies.<br />

SELECTED PUBLICATIONS<br />

Borsos, B.N., Huliák I., Majoros, H., Ujfaludi, Z., Gyenis,<br />

Á., Pukler, P., Boros, I.M., Pankotai, T. (20<strong>17</strong>) Human p53<br />

interacts with elongating RNAPII complex and is required<br />

for the relese of actinomycin D induced transcription<br />

blockade. Sci Rep 7: 40960.<br />

Vedelek, B., Blastyak, A., Boros, I.M. (2015) Cross-Species<br />

Interaction between Rapidly Evolving Telomere-Specific<br />

Drosophila Proteins. PLOS One 10: e0142771.<br />

Borsos, B.N., Pankotai, T., Kovacs, D., Popescu, C., Pahi, Z.,<br />

Boros, IM. (2015) Acetylations of Ftz-F1 and histone H4K5<br />

are required for the fine-tuning of ecdysone biosynthesis<br />

during Drosophila metamorphosis. Dev Biol 404: 80-87.<br />

Villanyi, Z., Ribaud, V., Kassem, S., Panasenko, O.O., Pahi, Z.,<br />

Gupta, I., Steinmetz, L., Boros, I., Collart, M.A. (2014) The<br />

not5 subunit of the ccr4-not complex connects transcription<br />

and translation. PLOS Genet 10: e1004569.<br />

Sike, A., Nagy, E., Vedelek, B., Pusztai, D., Szerémy, P., Venetianer,<br />

A., Boros, I.M. (2014) mRNA Levels of Related Abcb<br />

Genes Change Opposite to Each Other upon Histone Deacetylase<br />

Inhibition in Drug-Resistant Rat Hepatoma Cells.<br />

PLOS One 9: e84915.<br />

Gyenis, A., Umlauf, D., Ujfaludi, Z., Boros, I.M., Tora, L. (2014)<br />

UVB Induces a Genome-Wide Acting Negative Regulatory<br />

Mechanism That Operates at the Level of Transcription<br />

Initiation in Human Cells. PLOS Genet 10: e1004483.<br />

Boros, I.M. (2012) Histone modification in Drosophila. Brief<br />

Funct Genomics 11: 319-331.<br />

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