Mike Heilemann

Prof. Mike Heilemann


Research Focus & Metrics

Academic Career Length

25Years (2002-Present)

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

Representative Publications

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29 July 2008 in Angewandte Chemie International Edition
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Journal Article
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MHMike Heilemann
Mike Heilemann
SLSebastian van de Linde
Sebastian van de Linde
MSMark Schüttpelz
Mark Schüttpelz
RKRobert Kasper
Robert Kasper
BSBritta Seefeldt
Britta Seefeldt
MSMarkus Sauer
Markus Sauer

16 June 2011 in Nature Protocols
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Journal Article
Closed access
SLSebastian van de Linde
Sebastian van de Linde
ALAnna Löschberger
Anna Löschberger
TKTeresa Klein
Teresa Klein
MHMeike Heidbreder
Meike Heidbreder
SWSteve Wolter
Steve Wolter
MSMarkus Sauer
Markus Sauer

7 July 2008 in Angewandte Chemie International Edition
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Journal Article
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JVJan Vogelsang
Jan Vogelsang
RKRobert Kasper
Robert Kasper
CSChristian Steinhauer
Christian Steinhauer
BPBritta Person
Britta Person
MHMike Heilemann
Mike Heilemann
PTPhilip Tinnefeld
Philip Tinnefeld

26 August 2009 in Angewandte Chemie International Edition
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Journal Article
Closed access
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MHMike Heilemann
Mike Heilemann
SLSebastian van de Linde
Sebastian van de Linde
AMAnindita Mukherjee
Anindita Mukherjee
MSMarkus Sauer
Markus Sauer

15 June 2017 in eLife
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Journal Article
Open access
PGPaolo Grumati
Paolo Grumati
GMGiulio Morozzi
Giulio Morozzi
SHSoraya Hölper
Soraya Hölper
MMMuriel Mari
Muriel Mari
MHMarie-Lena Ie Harwardt
Marie-Lena Ie Harwardt
IDIvan Dikic
Ivan Dikic
The turnover of endoplasmic reticulum (ER) ensures the correct biological activity of its distinct domains. In mammalian cells, the ER is degraded via a selective autophagy pathway (ER-phagy), mediated by two specific receptors: FAM134B, responsible for the turnover of ER sheets and SEC62 that regulates ER recovery following stress. Here, we identified reticulon 3 (RTN3) as a specific receptor for the degradation of ER tubules. Oligomerization of the long isoform of RTN3 is sufficient to trigger fragmentation of ER tubules. The long N-terminal region of RTN3 contains several newly identified LC3-interacting regions (LIR). Binding to LC3s/GABARAPs is essential for the fragmentation of ER tubules and their delivery to lysosomes. RTN3-mediated ER-phagy requires conventional autophagy components, but is independent of FAM134B. None of the other reticulon family members have the ability to induce fragmentation of ER tubules during starvation. Therefore, we assign a unique function to RTN3 during autophagy.

13 March 2017 in Chemical Reviews
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Journal Article
Closed access
MSMarkus Sauer
Markus Sauer
MHMike Heilemann
Mike Heilemann