M
Magdalena Zakrzewska
Researcher at Medical University of Łódź
Publications - 47
Citations - 4703
Magdalena Zakrzewska is an academic researcher from Medical University of Łódź. The author has contributed to research in topics: Loss of heterozygosity & Gene. The author has an hindex of 16, co-authored 46 publications receiving 4011 citations.
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Journal ArticleDOI
Driver mutations in histone H3.3 and chromatin remodelling genes in paediatric glioblastoma
Jeremy Schwartzentruber,Andrey Korshunov,Xiaoyang Liu,David T.W. Jones,Elke Pfaff,Karine Jacob,Dominik Sturm,Adam M. Fontebasso,Dong Anh Khuong Quang,Martje Tönjes,Volker Hovestadt,Steffen Albrecht,Marcel Kool,André Nantel,Carolin Konermann,Anders Lindroth,Natalie Jäger,Tobias Rausch,Marina Ryzhova,Jan O. Korbel,Thomas Hielscher,Peter Hauser,Miklós Garami,Almos Klekner,László Bognár,Martin Ebinger,Martin U. Schuhmann,Wolfram Scheurlen,Arnulf Pekrun,Michael C. Frühwald,Wolfgang Roggendorf,CM Kramm,Matthias Dürken,Jeffrey Atkinson,Pierre Lepage,Alexandre Montpetit,Magdalena Zakrzewska,Krzystof Zakrzewski,Pawel P. Liberski,Zhifeng Dong,Peter M. Siegel,Andreas E. Kulozik,Marc Zapatka,Abhijit Guha,David Malkin,Jörg Felsberg,Guido Reifenberger,Andreas von Deimling,Andreas von Deimling,Koichi Ichimura,V. Peter Collins,Hendrik Witt,Hendrik Witt,Till Milde,Till Milde,Olaf Witt,Olaf Witt,Cindy Zhang,Pedro Castelo-Branco,Peter Lichter,Damien Faury,Uri Tabori,Christoph Plass,Jacek Majewski,Stefan M. Pfister,Stefan M. Pfister,Nada Jabado +66 more
TL;DR: The presence of H3F3A/ATRX-DAXX/TP53 mutations was strongly associated with alternative lengthening of telomeres and specific gene expression profiles, suggesting that defects of the chromatin architecture underlie paediatric and young adult GBM pathogenesis.
Journal ArticleDOI
Hotspot mutations in H3F3A and IDH1 define distinct epigenetic and biological subgroups of glioblastoma.
Dominik Sturm,Hendrik Witt,Hendrik Witt,Volker Hovestadt,Dong Anh Khuong-Quang,David T.W. Jones,Carolin Konermann,Elke Pfaff,Martje Tönjes,Martin Sill,Sebastian Bender,Marcel Kool,Marc Zapatka,Natalia Becker,Manuela Zucknick,Thomas Hielscher,Xiaoyang Liu,Adam M. Fontebasso,Marina Ryzhova,Steffen Albrecht,Karine Jacob,Marietta Wolter,Martin Ebinger,Martin U. Schuhmann,Timothy E. Van Meter,Michael C. Frühwald,Holger Hauch,Arnulf Pekrun,Bernhard Radlwimmer,Tim Niehues,Gregor Von Komorowski,Matthias Dürken,Andreas E. Kulozik,Jenny Madden,Andrew M. Donson,Nicholas K. Foreman,Rachid Drissi,Maryam Fouladi,Wolfram Scheurlen,Andreas von Deimling,Andreas von Deimling,Camelia M. Monoranu,Wolfgang Roggendorf,Christel Herold-Mende,Andreas Unterberg,Christof M. Kramm,Jörg Felsberg,Christian Hartmann,Benedikt Wiestler,Wolfgang Wick,Till Milde,Till Milde,Olaf Witt,Olaf Witt,Anders Lindroth,Jeremy Schwartzentruber,Damien Faury,Adam Fleming,Magdalena Zakrzewska,Pawel P. Liberski,Krzysztof Zakrzewski,Peter Hauser,Miklós Garami,Almos Klekner,László Bognár,Sorana Morrissy,Florence M.G. Cavalli,Michael D. Taylor,Peter van Sluis,Jan Koster,Rogier Versteeg,Richard Volckmann,Tom Mikkelsen,Kenneth Aldape,Guido Reifenberger,V. Peter Collins,Jacek Majewski,Andrey Korshunov,Peter Lichter,Christoph Plass,Nada Jabado,Stefan M. Pfister,Stefan M. Pfister +82 more
TL;DR: It is demonstrated that each H3F3A mutation defines an epigenetic subgroup of GBM with a distinct global methylation pattern, and that they are mutually exclusive with IDH1 mutations, which characterize a third mutation-defined subgroup.
Journal ArticleDOI
Mutations in SETD2 and genes affecting histone H3K36 methylation target hemispheric high-grade gliomas
Adam M. Fontebasso,Jeremy Schwartzentruber,Dong Anh Khuong-Quang,Xiaoyang Liu,Dominik Sturm,Andrey Korshunov,David T.W. Jones,Hendrik Witt,Hendrik Witt,Marcel Kool,Steffen Albrecht,Adam Fleming,Djihad Hadjadj,Stephan Busche,Pierre Lepage,Alexandre Montpetit,Alfredo Staffa,Noha Gerges,Magdalena Zakrzewska,Krzystof Zakrzewski,Pawel P. Liberski,Peter Hauser,Miklós Garami,Almos Klekner,László Bognár,Gelareh Zadeh,Damien Faury,Stefan M. Pfister,Stefan M. Pfister,Nada Jabado,Jacek Majewski,Jacek Majewski +31 more
TL;DR: Results suggest that mutations disrupting the histone code at H3K36, including H3.3 G34R/V, IDH1 and/or SETD2 mutations, are central to the genesis of hemispheric HGGs in older children and young adults.
Journal ArticleDOI
Fusion of TTYH1 with the C19MC microRNA cluster drives expression of a brain-specific DNMT3B isoform in the embryonal brain tumor ETMR
Claudia L. Kleinman,Noha Gerges,Simon Papillon-Cavanagh,Patrick Sin-Chan,Albena Pramatarova,Dong Anh Khuong Quang,Véronique Adoue,Stephan Busche,Maxime Caron,Haig Djambazian,Amandine Bemmo,Adam M. Fontebasso,Tara Spence,Jeremy Schwartzentruber,Steffen Albrecht,Peter Hauser,Miklós Garami,Almos Klekner,László Bognár,Jose Luis Montes,Alfredo Staffa,Alexandre Montpetit,Pierre Bérubé,Magdalena Zakrzewska,Krzysztof Zakrzewski,Pawel P. Liberski,Zhifeng Dong,Peter M. Siegel,Thomas F. Duchaine,Christian Perotti,Adam Fleming,Damien Faury,Marc Remke,Marco Gallo,Peter B. Dirks,Michael D. Taylor,Robert Sladek,Tomi Pastinen,Jennifer A. Chan,Annie Huang,Jacek Majewski,Nada Jabado +41 more
TL;DR: Detailed integrated genetic and epigenetic analyses of ETMR samples suggest a potential oncogenic re-engagement of an early developmental program in ETMR via epigenetic alteration mediated by an embryonic, brain-specific DNMT3B isoform.
Journal ArticleDOI
Germline and somatic FGFR1 abnormalities in dysembryoplastic neuroepithelial tumors
Barbara Rivera,Tenzin Gayden,Jian Carrot-Zhang,Javad Nadaf,Talia Boshari,Damien Faury,Michele Zeinieh,Roméo Sébastien Blanc,David L. Burk,Somayyeh Fahiminiya,Eric Bareke,Ulrich Schüller,Camelia M. Monoranu,Ronald Sträter,Kornelius Kerl,Thomas Niederstadt,Gerhard Kurlemann,Benjamin Ellezam,Zuzanna Michalak,Maria Thom,Paul J. Lockhart,Richard J. Leventer,Richard J. Leventer,Milou Ohm,Duncan MacGregor,David T.W. Jones,Jason Karamchandani,Celia M. T. Greenwood,Albert M. Berghuis,Susanne Bens,Reiner Siebert,Magdalena Zakrzewska,Pawel P. Liberski,Krzysztof Zakrzewski,Sanjay M. Sisodiya,Werner Paulus,Steffen Albrecht,Martin Hasselblatt,Nada Jabado,Nada Jabado,William D. Foulkes,William D. Foulkes,Jacek Majewski +42 more
TL;DR: Constitutional and somatic FGFR1 alterations and MAP kinase pathway activation are key events in the pathogenesis of DNET and point the way towards existing targeted therapies.