Marvin Jens

Dr. Marvin Jens

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Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

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

Representative Publications

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27 February 2013 in Nature
Verified
Journal Article
Closed access
SMSebastian Memczak
Sebastian Memczak
MJMarvin Jens
Marvin Jens
AEAntigoni Elefsinioti
Antigoni Elefsinioti
FTFrancesca Torti
Francesca Torti
JKJanna Krueger
Janna Krueger
NRNikolaus Rajewsky
Nikolaus Rajewsky

1 June 2015 in Molecular Cell
Verified
Journal Article
Closed access
ARAgnieszka Rybak-Wolf
Agnieszka Rybak-Wolf
CSChristin Stottmeister
Christin Stottmeister
PGPetar Glažar
Petar Glažar
MJMarvin Jens
Marvin Jens
NPNatalia Pino
Natalia Pino
NRNikolaus Rajewsky
Nikolaus Rajewsky

1 April 2017 in Molecular Cell
Verified
Journal Article
Open access
NPNagarjuna Reddy Pamudurti
Nagarjuna Reddy Pamudurti
OBOsnat Bartok
Osnat Bartok
MJMarvin Jens
Marvin Jens
RAReut Ashwal-Fluss
Reut Ashwal-Fluss
CSChristin Stottmeister
Christin Stottmeister
SKSebastian Kadener
Sebastian Kadener
Circular RNAs (circRNAs) are abundant and evolutionarily conserved RNAs of largely unknown function. Here, we show that a subset of circRNAs is translated in vivo. By performing ribosome footprinting from fly heads, we demonstrate that a group of circRNAs is associated with translating ribosomes. Many of these ribo-circRNAs use the start codon of the hosting mRNA, are bound by membrane-associated ribosomes, and have evolutionarily conserved termination codons. In addition, we found that a circRNA generated from the muscleblind locus encodes a protein, which we detected in fly head extracts by mass spectrometry. Next, by performing in vivo and in vitro translation assays, we show that UTRs of ribo-circRNAs (cUTRs) allow cap-independent translation. Moreover, we found that starvation and FOXO likely regulate the translation of a circMbl isoform. Altogether, our study provides strong evidence for translation of circRNAs, revealing the existence of an unexplored layer of gene activity.

1 August 2011 in Molecular Cell
Verified
Journal Article
Closed access
SLSvetlana Lebedeva
Svetlana Lebedeva
MJMarvin Jens
Marvin Jens
KTKathrin Theil
Kathrin Theil
BSBjörn Schwanhäusser
Björn Schwanhäusser
MSMatthias Selbach
Matthias Selbach
NRNikolaus Rajewsky
Nikolaus Rajewsky

9 December 2014 in Nature Reviews Genetics
Verified
Journal Article
Closed access
MJMarvin Jens
Marvin Jens
NRNikolaus Rajewsky
Nikolaus Rajewsky

15 November 2011 in Nucleic Acids Research
Verified
Journal Article
Open access
PDF file
GAGerd Anders
Gerd Anders
SMSebastian D. Mackowiak
Sebastian D. Mackowiak
MJMarvin Jens
Marvin Jens
JMJonas Maaskola
Jonas Maaskola
AKAndreas Kuntzagk
Andreas Kuntzagk
CDChristoph Dieterich
Christoph Dieterich
In animals, RNA binding proteins (RBPs) and microRNAs (miRNAs) post-transcriptionally regulate the expression of virtually all genes by binding to RNA. Recent advances in experimental and computational methods facilitate transcriptome-wide mapping of these interactions. It is thought that the combinatorial action of RBPs and miRNAs on target mRNAs form a post-transcriptional regulatory code. We provide a database that supports the quest for deciphering this regulatory code. Within doRiNA, we are systematically curating, storing and integrating binding site data for RBPs and miRNAs. Users are free to take a target (mRNA) or regulator (RBP and/or miRNA) centric view on the data. We have implemented a database framework with short query response times for complex searches (e.g. asking for all targets of a particular combination of regulators). All search results can be browsed, inspected and analyzed in conjunction with a huge selection of other genome-wide data, because our database is directly linked to a local copy of the UCSC genome browser. At the time of writing, doRiNA encompasses RBP data for the human, mouse and worm genomes. For computational miRNA target site predictions, we provide an update of PicTar predictions.