Light Microscopy
Publications
3888256
PHOT
chicago-author-date
50
date
desc
year
24576
https://www.i2bc.paris-saclay.fr/wp-content/plugins/zotpress/
%7B%22status%22%3A%22success%22%2C%22updateneeded%22%3Afalse%2C%22instance%22%3A%22zotpress-4679c549d7d55c9c2ca36c868c864edc%22%2C%22meta%22%3A%7B%22request_last%22%3A0%2C%22request_next%22%3A0%2C%22used_cache%22%3Atrue%7D%2C%22data%22%3A%5B%7B%22key%22%3A%22CYW26ETN%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Monteiro-Cardoso%20et%20al.%22%2C%22parsedDate%22%3A%222023-10-20%22%2C%22numChildren%22%3A1%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EMonteiro-Cardoso%2C%20Vera%20Filipa%2C%20Romain%20Le%20Bars%2C%20and%20Francesca%20Giordano.%202023.%20%26%23x201C%3BVisualization%20and%20Quantification%20of%20Endogenous%20Intra-Organelle%20Protein%20Interactions%20at%20ER-Mitochondria%20Contact%20Sites%20by%20Proximity%20Ligation%20Assays.%26%23x201D%3B%20%3Ci%3EJournal%20of%20Visualized%20Experiments%3A%20JoVE%3C%5C%2Fi%3E%2C%20no.%20200%20%28October%29.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.3791%5C%2F64750%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.3791%5C%2F64750%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Visualization%20and%20Quantification%20of%20Endogenous%20Intra-Organelle%20Protein%20Interactions%20at%20ER-Mitochondria%20Contact%20Sites%20by%20Proximity%20Ligation%20Assays%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Vera%20Filipa%22%2C%22lastName%22%3A%22Monteiro-Cardoso%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Francesca%22%2C%22lastName%22%3A%22Giordano%22%7D%5D%2C%22abstractNote%22%3A%22Membrane%20contact%20sites%20%28MCSs%29%20are%20areas%20of%20close%20membrane%20proximity%20that%20allow%20and%20regulate%20the%20dynamic%20exchange%20of%20diverse%20biomolecules%20%28i.e.%2C%20calcium%20and%20lipids%29%20between%20the%20juxtaposed%20organelles%20without%20involving%20membrane%20fusion.%20MCSs%20are%20essential%20for%20cellular%20homeostasis%2C%20and%20their%20functions%20are%20ensured%20by%20the%20resident%20components%2C%20which%20often%20exist%20as%20multimeric%20protein%20complexes.%20MCSs%20often%20involve%20the%20endoplasmic%20reticulum%20%28ER%29%2C%20a%20major%20site%20of%20lipid%20synthesis%20and%20cellular%20calcium%20storage%2C%20and%20are%20particularly%20important%20for%20organelles%2C%20such%20as%20the%20mitochondria%2C%20which%20are%20excluded%20from%20the%20classical%20vesicular%20transport%20pathways.%20In%20the%20last%20years%2C%20MCSs%20between%20the%20ER%20and%20mitochondria%20have%20been%20extensively%20studied%2C%20as%20their%20functions%20strongly%20impact%20cellular%20metabolism%5C%2Fbioenergetics.%20Several%20proteins%20have%20started%20to%20be%20identified%20at%20these%20contact%20sites%2C%20including%20membrane%20tethers%2C%20calcium%20channels%2C%20and%20lipid%20transfer%20proteins%2C%20thus%20raising%20the%20need%20for%20new%20methodologies%20and%20technical%20approaches%20to%20study%20these%20MCS%20components.%20Here%2C%20we%20describe%20a%20protocol%20consisting%20of%20combined%20technical%20approaches%2C%20that%20include%20proximity%20ligation%20assay%20%28PLA%29%2C%20mitochondria%20staining%2C%20and%203D%20imaging%20segmentation%2C%20that%20allows%20the%20detection%20of%20proteins%20that%20are%20physically%20close%20%28%3E40%20nm%29%20to%20each%20other%20and%20that%20reside%20on%20the%20same%20membrane%20at%20ER-mitochondria%20MCSs.%20For%20instance%2C%20we%20used%20two%20ER-anchored%20lipid%20transfer%20proteins%2C%20ORP5%20and%20ORP8%2C%20which%20have%20previously%20been%20shown%20to%20interact%20and%20localize%20at%20ER-mitochondria%20and%20ER-plasma%20membrane%20MCSs.%20By%20associating%20the%20ORP5-ORP8%20PLA%20with%20cell%20imaging%20software%20analysis%2C%20it%20was%20possible%20to%20estimate%20the%20distance%20of%20the%20ORP5-ORP8%20complex%20from%20the%20mitochondrial%20surface%20and%20determine%20that%20about%2050%25%20of%20ORP5-ORP8%20PLA%20interaction%20occurs%20at%20ER%20subdomains%20in%20close%20proximity%20to%20mitochondria.%22%2C%22date%22%3A%222023-10-20%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.3791%5C%2F64750%22%2C%22ISSN%22%3A%221940-087X%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%5D%2C%22dateModified%22%3A%222023-11-13T08%3A34%3A06Z%22%7D%7D%2C%7B%22key%22%3A%222H55A3DK%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Scrima%20et%20al.%22%2C%22parsedDate%22%3A%222023-01-04%22%2C%22numChildren%22%3A1%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EScrima%2C%20Nathalie%2C%20Romain%20Le%20Bars%2C%20Quentin%20Nevers%2C%20Damien%20Glon%2C%20Guillaume%20Chevreux%2C%20Ahmet%20Civas%2C%20Danielle%20Blondel%2C%20C%26%23xE9%3Bcile%20Lagaudri%26%23xE8%3Bre-Gesbert%2C%20and%20Yves%20Gaudin.%202023.%20%26%23x201C%3BRabies%20Virus%20P%20Protein%20Binds%20to%20TBK1%20and%20Interferes%20with%20the%20Formation%20of%20Innate%20Immunity-Related%20Liquid%20Condensates.%26%23x201D%3B%20%3Ci%3ECell%20Reports%3C%5C%2Fi%3E%2042%20%281%29%3A%20111949.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1016%5C%2Fj.celrep.2022.111949%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1016%5C%2Fj.celrep.2022.111949%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Rabies%20virus%20P%20protein%20binds%20to%20TBK1%20and%20interferes%20with%20the%20formation%20of%20innate%20immunity-related%20liquid%20condensates%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Nathalie%22%2C%22lastName%22%3A%22Scrima%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Quentin%22%2C%22lastName%22%3A%22Nevers%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Damien%22%2C%22lastName%22%3A%22Glon%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Guillaume%22%2C%22lastName%22%3A%22Chevreux%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Ahmet%22%2C%22lastName%22%3A%22Civas%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Danielle%22%2C%22lastName%22%3A%22Blondel%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9cile%22%2C%22lastName%22%3A%22Lagaudri%5Cu00e8re-Gesbert%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Yves%22%2C%22lastName%22%3A%22Gaudin%22%7D%5D%2C%22abstractNote%22%3A%22Viruses%20must%20overcome%20the%20interferon-mediated%20antiviral%20response%20to%20replicate%20and%20propagate%20into%20their%20host.%20Rabies%20virus%20%28RABV%29%20phosphoprotein%20P%20is%20known%20to%20inhibit%20interferon%20induction.%20Here%2C%20using%20a%20global%20mass%20spectrometry%20approach%2C%20we%20show%20that%20RABV%20P%20binds%20to%20TBK1%2C%20a%20kinase%20located%20at%20the%20crossroads%20of%20many%20interferon%20induction%20pathways%2C%20resulting%20in%20innate%20immunity%20inhibition.%20Mutations%20of%20TBK1%20phosphorylation%20sites%20abolish%20P%20binding.%20Importantly%2C%20we%20demonstrate%20that%20upon%20RABV%20infection%20or%20detection%20of%20dsRNA%20by%20innate%20immunity%20sensors%2C%20TBK1%20and%20its%20adaptor%20proteins%20NAP1%20and%20SINTBAD%20form%20dynamic%20cytoplasmic%20condensates%20that%20have%20liquid%20properties.%20These%20condensates%20can%20form%20larger%20aggregates%20having%20ring-like%20structures%20in%20which%20NAP1%20and%20TBK1%20exhibit%20locally%20restricted%20movement.%20P%20binding%20to%20TBK1%20interferes%20with%20the%20formation%20of%20these%20structures.%20This%20work%20demonstrates%20that%20proteins%20of%20the%20signaling%20pathway%20leading%20to%20interferon%20induction%20transiently%20form%20liquid%20organelles%20that%20can%20be%20targeted%20by%20viruses.%22%2C%22date%22%3A%222023-01-04%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1016%5C%2Fj.celrep.2022.111949%22%2C%22ISSN%22%3A%222211-1247%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%5D%2C%22dateModified%22%3A%222023-01-18T17%3A15%3A23Z%22%7D%7D%2C%7B%22key%22%3A%22UD5KC7NM%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Nevers%20et%20al.%22%2C%22parsedDate%22%3A%222022-12-08%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3ENevers%2C%20Quentin%2C%20Nathalie%20Scrima%2C%20Damien%20Glon%2C%20Romain%20Le%20Bars%2C%20Alice%20Decombe%2C%20Nathalie%20Garnier%2C%20Malika%20Ouldali%2C%20et%20al.%202022.%20%26%23x201C%3BProperties%20of%20Rabies%20Virus%20Phosphoprotein%20and%20Nucleoprotein%20Biocondensates%20Formed%20in%20Vitro%20and%20in%20Cellulo.%26%23x201D%3B%20%3Ci%3EPLOS%20Pathogens%3C%5C%2Fi%3E%2018%20%2812%29%3A%20e1011022.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1371%5C%2Fjournal.ppat.1011022%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1371%5C%2Fjournal.ppat.1011022%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Properties%20of%20rabies%20virus%20phosphoprotein%20and%20nucleoprotein%20biocondensates%20formed%20in%20vitro%20and%20in%20cellulo%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Quentin%22%2C%22lastName%22%3A%22Nevers%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Nathalie%22%2C%22lastName%22%3A%22Scrima%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Damien%22%2C%22lastName%22%3A%22Glon%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%20Le%22%2C%22lastName%22%3A%22Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Alice%22%2C%22lastName%22%3A%22Decombe%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Nathalie%22%2C%22lastName%22%3A%22Garnier%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Malika%22%2C%22lastName%22%3A%22Ouldali%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9cile%22%2C%22lastName%22%3A%22Lagaudri%5Cu00e8re-Gesbert%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Danielle%22%2C%22lastName%22%3A%22Blondel%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Aur%5Cu00e9lie%22%2C%22lastName%22%3A%22Albertini%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Yves%22%2C%22lastName%22%3A%22Gaudin%22%7D%5D%2C%22abstractNote%22%3A%22Rabies%20virus%20%28RABV%29%20transcription%20and%20replication%20take%20place%20within%20viral%20factories%20having%20liquid%20properties%2C%20called%20Negri%20bodies%20%28NBs%29%2C%20that%20are%20formed%20by%20liquid-liquid%20phase%20separation%20%28LLPS%29.%20The%20co-expression%20of%20RABV%20nucleoprotein%20%28N%29%20and%20phosphoprotein%20%28P%29%20in%20mammalian%20cells%20is%20sufficient%20to%20induce%20the%20formation%20of%20cytoplasmic%20biocondensates%20having%20properties%20that%20are%20like%20those%20of%20NBs.%20This%20cellular%20minimal%20system%20was%20previously%20used%20to%20identify%20P%20domains%20that%20are%20essential%20for%20biocondensates%20formation.%20Here%2C%20we%20constructed%20fluorescent%20versions%20of%20N%20and%20analyzed%20by%20FRAP%20their%20dynamics%20inside%20the%20biocondensates%20formed%20in%20this%20minimal%20system%20as%20well%20as%20in%20NBs%20of%20RABV-infected%20cells%20using%20FRAP.%20The%20behavior%20of%20N%20appears%20to%20be%20different%20of%20P%20as%20there%20was%20no%20fluorescence%20recovery%20of%20N%20proteins%20after%20photobleaching.%20We%20also%20identified%20arginine%20residues%20as%20well%20as%20two%20exposed%20loops%20of%20N%20involved%20in%20condensates%20formation.%20Corresponding%20N%20mutants%20exhibited%20distinct%20phenotypes%20in%20infected%20cells%20ranging%20from%20co-localization%20with%20NBs%20to%20exclusion%20from%20them%20associated%20with%20a%20dominant-negative%20effect%20on%20infection.%20We%20also%20demonstrated%20that%20in%20vitro%2C%20in%20crowded%20environments%2C%20purified%20P%20as%20well%20as%20purified%20N%5Cu00b0-P%20complex%20%28in%20which%20N%20is%20RNA-free%29%20form%20liquid%20condensates.%20We%20identified%20P%20domains%20required%20for%20LLPS%20in%20this%20acellular%20system.%20P%20condensates%20were%20shown%20to%20associate%20with%20liposomes%2C%20concentrate%20RNA%2C%20and%20undergo%20a%20liquid-gel%20transition%20upon%20ageing.%20Conversely%2C%20N0-P%20droplets%20were%20disrupted%20upon%20incubation%20with%20RNA.%20Taken%20together%2C%20our%20data%20emphasize%20the%20central%20role%20of%20P%20in%20NBs%20formation%20and%20reveal%20some%20physicochemical%20features%20of%20P%20and%20N0-P%20droplets%20relevant%20for%20explaining%20NBs%20properties%20such%20as%20their%20envelopment%20by%20cellular%20membranes%20at%20late%20stages%20of%20infection%20and%20nucleocapsids%20ejections%20from%20the%20viral%20factories.%22%2C%22date%22%3A%222022-12-08%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1371%5C%2Fjournal.ppat.1011022%22%2C%22ISSN%22%3A%221553-7374%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Fjournals.plos.org%5C%2Fplospathogens%5C%2Farticle%3Fid%3D10.1371%5C%2Fjournal.ppat.1011022%22%2C%22collections%22%3A%5B%5D%2C%22dateModified%22%3A%222023-12-14T15%3A41%3A40Z%22%7D%7D%2C%7B%22key%22%3A%22PWS75YJV%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Monteiro-Cardoso%20et%20al.%22%2C%22parsedDate%22%3A%222022-09-20%22%2C%22numChildren%22%3A6%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EMonteiro-Cardoso%2C%20Vera%20F.%2C%20Leila%20Rochin%2C%20Amita%20Arora%2C%20Audrey%20Houcine%2C%20Eeva%20J%26%23xE4%3B%26%23xE4%3Bskel%26%23xE4%3Binen%2C%20Annukka%20M.%20Kivel%26%23xE4%3B%2C%20C%26%23xE9%3Bcile%20Sauvanet%2C%20et%20al.%202022.%20%26%23x201C%3BORP5%5C%2F8%20and%20MIB%5C%2FMICOS%20Link%20ER-Mitochondria%20and%20Intra-Mitochondrial%20Contacts%20for%20Non-Vesicular%20Transport%20of%20Phosphatidylserine.%26%23x201D%3B%20%3Ci%3ECell%20Reports%3C%5C%2Fi%3E%2040%20%2812%29.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1016%5C%2Fj.celrep.2022.111364%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1016%5C%2Fj.celrep.2022.111364%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22ORP5%5C%2F8%20and%20MIB%5C%2FMICOS%20link%20ER-mitochondria%20and%20intra-mitochondrial%20contacts%20for%20non-vesicular%20transport%20of%20phosphatidylserine%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Vera%20F.%22%2C%22lastName%22%3A%22Monteiro-Cardoso%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Leila%22%2C%22lastName%22%3A%22Rochin%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Amita%22%2C%22lastName%22%3A%22Arora%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Audrey%22%2C%22lastName%22%3A%22Houcine%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Eeva%22%2C%22lastName%22%3A%22J%5Cu00e4%5Cu00e4skel%5Cu00e4inen%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Annukka%20M.%22%2C%22lastName%22%3A%22Kivel%5Cu00e4%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9cile%22%2C%22lastName%22%3A%22Sauvanet%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%20Le%22%2C%22lastName%22%3A%22Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Eyra%22%2C%22lastName%22%3A%22Marien%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jonas%22%2C%22lastName%22%3A%22Dehairs%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Julie%22%2C%22lastName%22%3A%22Neveu%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Naima%20El%22%2C%22lastName%22%3A%22Khallouki%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Elena%22%2C%22lastName%22%3A%22Santonico%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Johannes%20V.%22%2C%22lastName%22%3A%22Swinnen%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22David%22%2C%22lastName%22%3A%22Tareste%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Vesa%20M.%22%2C%22lastName%22%3A%22Olkkonen%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Francesca%22%2C%22lastName%22%3A%22Giordano%22%7D%5D%2C%22abstractNote%22%3A%22%22%2C%22date%22%3A%222022-09-20%22%2C%22language%22%3A%22English%22%2C%22DOI%22%3A%2210.1016%5C%2Fj.celrep.2022.111364%22%2C%22ISSN%22%3A%222211-1247%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Fwww.cell.com%5C%2Fcell-reports%5C%2Fabstract%5C%2FS2211-1247%2822%2901196-2%22%2C%22collections%22%3A%5B%2283ZRAMIC%22%5D%2C%22dateModified%22%3A%222022-09-27T06%3A35%3A54Z%22%7D%7D%2C%7B%22key%22%3A%22RG6FZAEZ%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Borgne%20et%20al.%22%2C%22parsedDate%22%3A%222022-09-07%22%2C%22numChildren%22%3A6%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EBorgne%2C%20Pierrick%20Le%2C%20Logan%20Greibill%2C%20Marine%20H%26%23xE9%3Bl%26%23xE8%3Bne%20Laporte%2C%20Michel%20Lemullois%2C%20Khaled%20Bouhouche%2C%20Mebarek%20Temagoult%2C%20Olivier%20Rosnet%2C%20et%20al.%202022.%20%26%23x201C%3BThe%20Evolutionary%20Conserved%20Proteins%20CEP90%2C%20FOPNL%2C%20and%20OFD1%20Recruit%20Centriolar%20Distal%20Appendage%20Proteins%20to%20Initiate%20Their%20Assembly.%26%23x201D%3B%20%3Ci%3EPLOS%20Biology%3C%5C%2Fi%3E%2020%20%289%29%3A%20e3001782.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1371%5C%2Fjournal.pbio.3001782%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1371%5C%2Fjournal.pbio.3001782%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22The%20evolutionary%20conserved%20proteins%20CEP90%2C%20FOPNL%2C%20and%20OFD1%20recruit%20centriolar%20distal%20appendage%20proteins%20to%20initiate%20their%20assembly%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pierrick%20Le%22%2C%22lastName%22%3A%22Borgne%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Logan%22%2C%22lastName%22%3A%22Greibill%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Marine%20H%5Cu00e9l%5Cu00e8ne%22%2C%22lastName%22%3A%22Laporte%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Michel%22%2C%22lastName%22%3A%22Lemullois%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Khaled%22%2C%22lastName%22%3A%22Bouhouche%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Mebarek%22%2C%22lastName%22%3A%22Temagoult%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Olivier%22%2C%22lastName%22%3A%22Rosnet%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Maeva%20Le%22%2C%22lastName%22%3A%22Guennec%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Laurent%22%2C%22lastName%22%3A%22Ligni%5Cu00e8res%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Guillaume%22%2C%22lastName%22%3A%22Chevreux%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22France%22%2C%22lastName%22%3A%22Koll%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Virginie%22%2C%22lastName%22%3A%22Hamel%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Paul%22%2C%22lastName%22%3A%22Guichard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Anne-Marie%22%2C%22lastName%22%3A%22Tassin%22%7D%5D%2C%22abstractNote%22%3A%22In%20metazoa%2C%20cilia%20assembly%20is%20a%20cellular%20process%20that%20starts%20with%20centriole%20to%20basal%20body%20maturation%2C%20migration%20to%20the%20cell%20surface%2C%20and%20docking%20to%20the%20plasma%20membrane.%20Basal%20body%20docking%20involves%20the%20interaction%20of%20both%20the%20distal%20end%20of%20the%20basal%20body%20and%20the%20transition%20fibers%5C%2Fdistal%20appendages%2C%20with%20the%20plasma%20membrane.%20Mutations%20in%20numerous%20genes%20involved%20in%20basal%20body%20docking%20and%20transition%20zone%20assembly%20are%20associated%20with%20the%20most%20severe%20ciliopathies%2C%20highlighting%20the%20importance%20of%20these%20events%20in%20cilium%20biogenesis.%20In%20this%20context%2C%20the%20ciliate%20Paramecium%20has%20been%20widely%20used%20as%20a%20model%20system%20to%20study%20basal%20body%20and%20cilia%20assembly.%20However%2C%20despite%20the%20evolutionary%20conservation%20of%20cilia%20assembly%20events%20across%20phyla%2C%20whether%20the%20same%20molecular%20players%20are%20functionally%20conserved%2C%20is%20not%20fully%20known.%20Here%2C%20we%20demonstrated%20that%20CEP90%2C%20FOPNL%2C%20and%20OFD1%20are%20evolutionary%20conserved%20proteins%20crucial%20for%20ciliogenesis.%20Using%20ultrastructure%20expansion%20microscopy%2C%20we%20unveiled%20that%20these%20proteins%20localize%20at%20the%20distal%20end%20of%20both%20centrioles%5C%2Fbasal%20bodies%20in%20Paramecium%20and%20mammalian%20cells.%20Moreover%2C%20we%20found%20that%20these%20proteins%20are%20recruited%20early%20during%20centriole%20duplication%20on%20the%20external%20surface%20of%20the%20procentriole.%20Functional%20analysis%20performed%20both%20in%20Paramecium%20and%20mammalian%20cells%20demonstrate%20the%20requirement%20of%20these%20proteins%20for%20distal%20appendage%20assembly%20and%20basal%20body%20docking.%20Finally%2C%20we%20show%20that%20mammalian%20centrioles%20require%20another%20component%2C%20Moonraker%20%28MNR%29%2C%20to%20recruit%20OFD1%2C%20FOPNL%2C%20and%20CEP90%2C%20which%20will%20then%20recruit%20the%20distal%20appendage%20proteins%20CEP83%2C%20CEP89%2C%20and%20CEP164.%20Altogether%2C%20we%20propose%20that%20this%20OFD1%2C%20FOPNL%2C%20and%20CEP90%20functional%20module%20is%20required%20to%20determine%20in%20mammalian%20cells%20the%20future%20position%20of%20distal%20appendage%20proteins.%22%2C%22date%22%3A%222022-09-07%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1371%5C%2Fjournal.pbio.3001782%22%2C%22ISSN%22%3A%221545-7885%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Fjournals.plos.org%5C%2Fplosbiology%5C%2Farticle%3Fid%3D10.1371%5C%2Fjournal.pbio.3001782%22%2C%22collections%22%3A%5B%2283ZRAMIC%22%5D%2C%22dateModified%22%3A%222023-12-14T15%3A36%3A22Z%22%7D%7D%2C%7B%22key%22%3A%227UEM6XZR%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Schellenbauer%20et%20al.%22%2C%22parsedDate%22%3A%222021-10-30%22%2C%22numChildren%22%3A1%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3ESchellenbauer%2C%20Amelie%2C%20Marie-Noelle%20Guilly%2C%20Romain%20Grall%2C%20Romain%20Le%20Bars%2C%20Vincent%20Paget%2C%20Thierry%20Kortulewski%2C%20Haser%20Sutcu%2C%20et%20al.%202021.%20%26%23x201C%3BPhospho-Ku70%20Induced%20by%20DNA%20Damage%20Interacts%20with%20RNA%20Pol%20II%20and%20Promotes%20the%20Formation%20of%20Phospho-53BP1%20Foci%20to%20Ensure%20Optimal%20CNHEJ.%26%23x201D%3B%20%3Ci%3ENucleic%20Acids%20Research%3C%5C%2Fi%3E%2C%20October%2C%20gkab980.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fnar%5C%2Fgkab980%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fnar%5C%2Fgkab980%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Phospho-Ku70%20induced%20by%20DNA%20damage%20interacts%20with%20RNA%20Pol%20II%20and%20promotes%20the%20formation%20of%20phospho-53BP1%20foci%20to%20ensure%20optimal%20cNHEJ%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Amelie%22%2C%22lastName%22%3A%22Schellenbauer%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Marie-Noelle%22%2C%22lastName%22%3A%22Guilly%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Grall%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Vincent%22%2C%22lastName%22%3A%22Paget%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Thierry%22%2C%22lastName%22%3A%22Kortulewski%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Haser%22%2C%22lastName%22%3A%22Sutcu%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9cile%22%2C%22lastName%22%3A%22Math%5Cu00e9%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Marie%22%2C%22lastName%22%3A%22Hullo%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Denis%22%2C%22lastName%22%3A%22Biard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fran%5Cu00e7ois%22%2C%22lastName%22%3A%22Leteurtre%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Vilma%22%2C%22lastName%22%3A%22Barroca%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Youenn%22%2C%22lastName%22%3A%22Corre%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Lamya%22%2C%22lastName%22%3A%22Irbah%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Emilie%22%2C%22lastName%22%3A%22Rass%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Benoit%22%2C%22lastName%22%3A%22Theze%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pascale%22%2C%22lastName%22%3A%22Bertrand%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jeroen%20A.%20A.%22%2C%22lastName%22%3A%22Demmers%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jos%5Cu00e9e%22%2C%22lastName%22%3A%22Guirouilh-Barbat%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Bernard%20S.%22%2C%22lastName%22%3A%22Lopez%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sylvie%22%2C%22lastName%22%3A%22Chevillard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jozo%22%2C%22lastName%22%3A%22Delic%22%7D%5D%2C%22abstractNote%22%3A%22Canonical%20non-homologous%20end-joining%20%28cNHEJ%29%20is%20the%20prominent%20mammalian%20DNA%20double-strand%20breaks%20%28DSBs%29%20repair%20pathway%20operative%20throughout%20the%20cell%20cycle.%20Phosphorylation%20of%20Ku70%20at%20ser27-ser33%20%28pKu70%29%20is%20induced%20by%20DNA%20DSBs%20and%20has%20been%20shown%20to%20regulate%20cNHEJ%20activity%2C%20but%20the%20underlying%20mechanism%20remained%20unknown.%20Here%2C%20we%20established%20that%20following%20DNA%20damage%20induction%2C%20Ku70%20moves%20from%20nucleoli%20to%20the%20sites%20of%20damage%2C%20and%20once%20linked%20to%20DNA%2C%20it%20is%20phosphorylated.%20Notably%2C%20the%20novel%20emanating%20functions%20of%20pKu70%20are%20evidenced%20through%20the%20recruitment%20of%20RNA%20Pol%20II%20and%20concomitant%20formation%20of%20phospho-53BP1%20foci.%20Phosphorylation%20is%20also%20a%20prerequisite%20for%20the%20dynamic%20release%20of%20Ku70%20from%20the%20repair%20complex%20through%20neddylation-dependent%20ubiquitylation.%20Although%20the%20non-phosphorylable%20ala-Ku70%20form%20does%20not%20compromise%20the%20formation%20of%20the%20NHEJ%20core%20complex%20per%20se%2C%20cells%20expressing%20this%20form%20displayed%20constitutive%20and%20stress-inducible%20chromosomal%20instability.%20Consistently%2C%20upon%20targeted%20induction%20of%20DSBs%20by%20the%20I-SceI%20meganuclease%20into%20an%20intrachromosomal%20reporter%20substrate%2C%20cells%20expressing%20pKu70%2C%20rather%20than%20ala-Ku70%2C%20are%20protected%20against%20the%20joining%20of%20distal%20DNA%20ends.%20Collectively%2C%20our%20results%20underpin%20the%20essential%20role%20of%20pKu70%20in%20the%20orchestration%20of%20DNA%20repair%20execution%20in%20living%20cells%20and%20substantiated%20the%20way%20it%20paves%20the%20maintenance%20of%20genome%20stability.%22%2C%22date%22%3A%222021-10-30%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1093%5C%2Fnar%5C%2Fgkab980%22%2C%22ISSN%22%3A%221362-4962%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%227EGDQ8LV%22%5D%2C%22dateModified%22%3A%222021-11-09T09%3A48%3A45Z%22%7D%7D%2C%7B%22key%22%3A%22G4Q86M48%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Nicoud%20et%20al.%22%2C%22parsedDate%22%3A%222021-08-31%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3ENicoud%2C%20Quentin%2C%20Quentin%20Barri%26%23xE8%3Bre%2C%20Nicolas%20Busset%2C%20Sara%20Dendene%2C%20Dmitrii%20Travin%2C%20Micka%26%23xEB%3Bl%20Bourge%2C%20Romain%20Le%20Bars%2C%20et%20al.%202021.%20%26%23x201C%3BSinorhizobium%20Meliloti%20Functions%20Required%20for%20Resistance%20to%20Antimicrobial%20NCR%20Peptides%20and%20Bacteroid%20Differentiation.%26%23x201D%3B%20%3Ci%3EMBio%3C%5C%2Fi%3E%2012%20%284%29%3A%20e0089521.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1128%5C%2FmBio.00895-21%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1128%5C%2FmBio.00895-21%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Sinorhizobium%20meliloti%20Functions%20Required%20for%20Resistance%20to%20Antimicrobial%20NCR%20Peptides%20and%20Bacteroid%20Differentiation%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Quentin%22%2C%22lastName%22%3A%22Nicoud%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Quentin%22%2C%22lastName%22%3A%22Barri%5Cu00e8re%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Nicolas%22%2C%22lastName%22%3A%22Busset%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sara%22%2C%22lastName%22%3A%22Dendene%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Dmitrii%22%2C%22lastName%22%3A%22Travin%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Micka%5Cu00ebl%22%2C%22lastName%22%3A%22Bourge%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Claire%22%2C%22lastName%22%3A%22Boulogne%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Marie%22%2C%22lastName%22%3A%22Lecro%5Cu00ebl%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22S%5Cu00e1ndor%22%2C%22lastName%22%3A%22Jenei%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Atilla%22%2C%22lastName%22%3A%22Kereszt%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Eva%22%2C%22lastName%22%3A%22Kondorosi%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Emanuele%20G.%22%2C%22lastName%22%3A%22Biondi%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Tatiana%22%2C%22lastName%22%3A%22Timchenko%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Beno%5Cu00eet%22%2C%22lastName%22%3A%22Alunni%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Peter%22%2C%22lastName%22%3A%22Mergaert%22%7D%5D%2C%22abstractNote%22%3A%22Legumes%20of%20the%20Medicago%20genus%20have%20a%20symbiotic%20relationship%20with%20the%20bacterium%20Sinorhizobium%20meliloti%20and%20develop%20root%20nodules%20housing%20large%20numbers%20of%20intracellular%20symbionts.%20Members%20of%20the%20nodule-specific%20cysteine-rich%20peptide%20%28NCR%29%20family%20induce%20the%20endosymbionts%20into%20a%20terminal%20differentiated%20state.%20Individual%20cationic%20NCRs%20are%20antimicrobial%20peptides%20that%20have%20the%20capacity%20to%20kill%20the%20symbiont%2C%20but%20the%20nodule%20cell%20environment%20prevents%20killing.%20Moreover%2C%20the%20bacterial%20broad-specificity%20peptide%20uptake%20transporter%20BacA%20and%20exopolysaccharides%20contribute%20to%20protect%20the%20endosymbionts%20against%20the%20toxic%20activity%20of%20NCRs.%20Here%2C%20we%20show%20that%20other%20S.%20meliloti%20functions%20participate%20in%20the%20protection%20of%20the%20endosymbionts%3B%20these%20include%20an%20additional%20broad-specificity%20peptide%20uptake%20transporter%20encoded%20by%20the%20yejABEF%20genes%20and%20lipopolysaccharide%20modifications%20mediated%20by%20lpsB%20and%20lpxXL%2C%20as%20well%20as%20rpoH1%2C%20encoding%20a%20stress%20sigma%20factor.%20Strains%20with%20mutations%20in%20these%20genes%20show%20a%20strain-specific%20increased%20sensitivity%20profile%20against%20a%20panel%20of%20NCRs%20and%20form%20nodules%20in%20which%20bacteroid%20differentiation%20is%20affected.%20The%20lpsB%20mutant%20nodule%20bacteria%20do%20not%20differentiate%2C%20the%20lpxXL%20and%20rpoH1%20mutants%20form%20some%20seemingly%20fully%20differentiated%20bacteroids%2C%20although%20most%20of%20the%20nodule%20bacteria%20are%20undifferentiated%2C%20while%20the%20yejABEF%20mutants%20form%20hypertrophied%20but%20nitrogen-fixing%20bacteroids.%20The%20nodule%20bacteria%20of%20all%20the%20mutants%20have%20a%20strongly%20enhanced%20membrane%20permeability%2C%20which%20is%20dependent%20on%20the%20transport%20of%20NCRs%20to%20the%20endosymbionts.%20Our%20results%20suggest%20that%20S.%20meliloti%20relies%20on%20a%20suite%20of%20functions%2C%20including%20peptide%20transporters%2C%20the%20bacterial%20envelope%20structures%2C%20and%20stress%20response%20regulators%2C%20to%20resist%20the%20aggressive%20assault%20of%20NCR%20peptides%20in%20the%20nodule%20cells.%20IMPORTANCE%20The%20nitrogen-fixing%20symbiosis%20of%20legumes%20with%20rhizobium%20bacteria%20has%20a%20predominant%20ecological%20role%20in%20the%20nitrogen%20cycle%20and%20has%20the%20potential%20to%20provide%20the%20nitrogen%20required%20for%20plant%20growth%20in%20agriculture.%20The%20host%20plants%20allow%20the%20rhizobia%20to%20colonize%20specific%20symbiotic%20organs%2C%20the%20nodules%2C%20in%20large%20numbers%20in%20order%20to%20produce%20sufficient%20reduced%20nitrogen%20for%20the%20plants%27%20needs.%20Some%20legumes%2C%20including%20Medicago%20spp.%2C%20produce%20massively%20antimicrobial%20peptides%20to%20keep%20this%20large%20bacterial%20population%20in%20check.%20These%20peptides%2C%20known%20as%20NCRs%2C%20have%20the%20potential%20to%20kill%20the%20rhizobia%2C%20but%20in%20nodules%2C%20they%20rather%20inhibit%20the%20division%20of%20the%20bacteria%2C%20which%20maintain%20a%20high%20nitrogen-fixing%20activity.%20In%20this%20study%2C%20we%20show%20that%20the%20tempering%20of%20the%20antimicrobial%20activity%20of%20the%20NCR%20peptides%20in%20the%20Medicago%20symbiont%20Sinorhizobium%20meliloti%20is%20multifactorial%20and%20requires%20the%20YejABEF%20peptide%20transporter%2C%20the%20lipopolysaccharide%20outer%20membrane%2C%20and%20the%20stress%20response%20regulator%20RpoH1.%22%2C%22date%22%3A%222021-08-31%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1128%5C%2FmBio.00895-21%22%2C%22ISSN%22%3A%222150-7511%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%2254WS7MX2%22%5D%2C%22dateModified%22%3A%222021-09-10T15%3A10%3A15Z%22%7D%7D%2C%7B%22key%22%3A%22EZFRCBY8%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Nicoud%20et%20al.%22%2C%22parsedDate%22%3A%222021-05-11%22%2C%22numChildren%22%3A1%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3ENicoud%2C%20Quentin%2C%20Florian%20Lamouche%2C%20Ana%26%23xEF%3Bs%20Chaumeret%2C%20Thierry%20Balliau%2C%20Romain%20Le%20Bars%2C%20Micka%26%23xEB%3Bl%20Bourge%2C%20Fabienne%20Pierre%2C%20et%20al.%202021.%20%26%23x201C%3BBradyrhizobium%20Diazoefficiens%20USDA110%20Nodulation%20of%20Aeschynomene%20Afraspera%20Is%20Associated%20with%20Atypical%20Terminal%20Bacteroid%20Differentiation%20and%20Suboptimal%20Symbiotic%20Efficiency.%26%23x201D%3B%20%3Ci%3EMSystems%3C%5C%2Fi%3E%206%20%283%29%3A%20e01237-20.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1128%5C%2FmSystems.01237-20%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1128%5C%2FmSystems.01237-20%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Bradyrhizobium%20diazoefficiens%20USDA110%20Nodulation%20of%20Aeschynomene%20afraspera%20Is%20Associated%20with%20Atypical%20Terminal%20Bacteroid%20Differentiation%20and%20Suboptimal%20Symbiotic%20Efficiency%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Quentin%22%2C%22lastName%22%3A%22Nicoud%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Florian%22%2C%22lastName%22%3A%22Lamouche%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Ana%5Cu00efs%22%2C%22lastName%22%3A%22Chaumeret%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Thierry%22%2C%22lastName%22%3A%22Balliau%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Micka%5Cu00ebl%22%2C%22lastName%22%3A%22Bourge%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fabienne%22%2C%22lastName%22%3A%22Pierre%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Florence%22%2C%22lastName%22%3A%22Gu%5Cu00e9rard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Erika%22%2C%22lastName%22%3A%22Sallet%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Solenn%22%2C%22lastName%22%3A%22Tuffigo%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Olivier%22%2C%22lastName%22%3A%22Pierre%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Yves%22%2C%22lastName%22%3A%22Dessaux%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fran%5Cu00e7oise%22%2C%22lastName%22%3A%22Gilard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Bertrand%22%2C%22lastName%22%3A%22Gaki%5Cu00e8re%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Istvan%22%2C%22lastName%22%3A%22Nagy%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Attila%22%2C%22lastName%22%3A%22Kereszt%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Michel%22%2C%22lastName%22%3A%22Zivy%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Peter%22%2C%22lastName%22%3A%22Mergaert%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Benjamin%22%2C%22lastName%22%3A%22Gourion%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Benoit%22%2C%22lastName%22%3A%22Alunni%22%7D%5D%2C%22abstractNote%22%3A%22Legume%20plants%20can%20form%20root%20organs%20called%20nodules%20where%20they%20house%20intracellular%20symbiotic%20rhizobium%20bacteria.%20Within%20nodule%20cells%2C%20rhizobia%20differentiate%20into%20bacteroids%2C%20which%20fix%20nitrogen%20for%20the%20benefit%20of%20the%20plant.%20Depending%20on%20the%20combination%20of%20host%20plants%20and%20rhizobial%20strains%2C%20the%20output%20of%20rhizobium-legume%20interactions%20varies%20from%20nonfixing%20associations%20to%20symbioses%20that%20are%20highly%20beneficial%20for%20the%20plant.%20Bradyrhizobium%20diazoefficiens%20USDA110%20was%20isolated%20as%20a%20soybean%20symbiont%2C%20but%20it%20can%20also%20establish%20a%20functional%20symbiotic%20interaction%20with%20Aeschynomene%20afraspera%20In%20contrast%20to%20soybean%2C%20A.%20afraspera%20triggers%20terminal%20bacteroid%20differentiation%2C%20a%20process%20involving%20bacterial%20cell%20elongation%2C%20polyploidy%2C%20and%20increased%20membrane%20permeability%2C%20leading%20to%20a%20loss%20of%20bacterial%20viability%20while%20plants%20increase%20their%20symbiotic%20benefit.%20A%20combination%20of%20plant%20metabolomics%2C%20bacterial%20proteomics%2C%20and%20transcriptomics%20along%20with%20cytological%20analyses%20were%20used%20to%20study%20the%20physiology%20of%20USDA110%20bacteroids%20in%20these%20two%20host%20plants.%20We%20show%20that%20USDA110%20establishes%20a%20poorly%20efficient%20symbiosis%20with%20A.%20afraspera%20despite%20the%20full%20activation%20of%20the%20bacterial%20symbiotic%20program.%20We%20found%20molecular%20signatures%20of%20high%20levels%20of%20stress%20in%20A.%20afraspera%20bacteroids%2C%20whereas%20those%20of%20terminal%20bacteroid%20differentiation%20were%20only%20partially%20activated.%20Finally%2C%20we%20show%20that%20in%20A.%20afraspera%2C%20USDA110%20bacteroids%20undergo%20atypical%20terminal%20differentiation%20hallmarked%20by%20the%20disconnection%20of%20the%20canonical%20features%20of%20this%20process.%20This%20study%20pinpoints%20how%20a%20rhizobium%20strain%20can%20adapt%20its%20physiology%20to%20a%20new%20host%20and%20cope%20with%20terminal%20differentiation%20when%20it%20did%20not%20coevolve%20with%20such%20a%20host.IMPORTANCE%20Legume-rhizobium%20symbiosis%20is%20a%20major%20ecological%20process%20in%20the%20nitrogen%20cycle%2C%20responsible%20for%20the%20main%20input%20of%20fixed%20nitrogen%20into%20the%20biosphere.%20The%20efficiency%20of%20this%20symbiosis%20relies%20on%20the%20coevolution%20of%20the%20partners.%20Some%2C%20but%20not%20all%2C%20legume%20plants%20optimize%20their%20return%20on%20investment%20in%20the%20symbiosis%20by%20imposing%20on%20their%20microsymbionts%20a%20terminal%20differentiation%20program%20that%20increases%20their%20symbiotic%20efficiency%20but%20imposes%20a%20high%20level%20of%20stress%20and%20drastically%20reduces%20their%20viability.%20We%20combined%20multi-omics%20with%20physiological%20analyses%20to%20show%20that%20the%20symbiotic%20couple%20formed%20by%20Bradyrhizobium%20diazoefficiens%20USDA110%20and%20Aeschynomene%20afraspera%2C%20in%20which%20the%20host%20and%20symbiont%20did%20not%20evolve%20together%2C%20is%20functional%20but%20displays%20a%20low%20symbiotic%20efficiency%20associated%20with%20a%20disconnection%20of%20terminal%20bacteroid%20differentiation%20features.%22%2C%22date%22%3A%222021-05-11%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1128%5C%2FmSystems.01237-20%22%2C%22ISSN%22%3A%222379-5077%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%2254WS7MX2%22%5D%2C%22dateModified%22%3A%222021-07-06T16%3A51%3A21Z%22%7D%7D%2C%7B%22key%22%3A%223WK2XEBP%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Song%20et%20al.%22%2C%22parsedDate%22%3A%222020-08%22%2C%22numChildren%22%3A0%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3ESong%2C%20Zhimin%2C%20Elodie%20Hudik%2C%20Romain%20Le%20Bars%2C%20Blandine%20Roux%2C%20Pham%20My-Chan%20Dang%2C%20Jamel%20El%20Benna%2C%20Oliver%20Nusse%2C%20and%20Sophie%20Dupre-Crochet.%202020.%20%26%23x201C%3BClass%20I%20Phosphoinositide%203-Kinases%20Control%20Sustained%20NADPH%20Oxidase%20Activation%20in%20Adherent%20Neutrophils.%26%23x201D%3B%20%3Ci%3EBiochemical%20Pharmacology%3C%5C%2Fi%3E%20178%20%28August%29%3A114088.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1016%5C%2Fj.bcp.2020.114088%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1016%5C%2Fj.bcp.2020.114088%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Class%20I%20phosphoinositide%203-kinases%20control%20sustained%20NADPH%20oxidase%20activation%20in%20adherent%20neutrophils%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Zhimin%22%2C%22lastName%22%3A%22Song%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Elodie%22%2C%22lastName%22%3A%22Hudik%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Blandine%22%2C%22lastName%22%3A%22Roux%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pham%20My-Chan%22%2C%22lastName%22%3A%22Dang%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jamel%22%2C%22lastName%22%3A%22El%20Benna%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Oliver%22%2C%22lastName%22%3A%22Nusse%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sophie%22%2C%22lastName%22%3A%22Dupre-Crochet%22%7D%5D%2C%22abstractNote%22%3A%22Phagocytes%2C%20especially%20neutrophils%2C%20can%20produce%20reactive%20oxygen%20species%20%28ROS%29%2C%20through%20the%20activation%20of%20the%20NADPH%20oxidase%20%28NOX2%29.%20Although%20this%20enzyme%20is%20crucial%20for%20host-pathogen%20defense%2C%20ROS%20production%20by%20neutrophils%20can%20be%20harmful%20in%20several%20pathologies%20such%20as%20cardiovascular%20diseases%20or%20chronic%20pulmonary%20diseases.%20The%20ROS%20production%20by%20NOX2%20involves%20the%20assembly%20of%20the%20cytosolic%20subunits%20%28p67%28phox%29%2C%20p47%28phox%29%2C%20and%20p40%28phox%29%29%20and%20Rac%20with%20the%20membrane%20subunits%20%28gp91%28phox%29%20and%20p22%28phox%29%29.%20Many%20studies%20are%20devoted%20to%20the%20activation%20of%20NOX2.%20However%2C%20the%20mechanisms%20that%20cause%20NADPH%20oxidase%20deactivation%20and%20thus%20terminate%20ROS%20production%20are%20not%20well%20known.%20Here%20we%20investigated%20the%20ability%20of%20class%20I%20phosphoinositide%203-kinases%20%28PI3Ks%29%20to%20sustain%20NADPH%20oxidase%20activation.%20The%20NADPH%20oxidase%20activation%20was%20triggered%20by%20seeding%20neutrophil-like%20PLB-985%20cells%2C%20or%20human%20neutrophils%20on%20immobilized%20fibrinogen.%20Adhesion%20of%20the%20neutrophils%2C%20mediated%20by%20beta%202%20integrins%2C%20induced%20activation%20of%20the%20NADPH%20oxidase%20and%20translocation%20of%20the%20cytosolic%20subunits%20at%20the%20plasma%20membrane.%20Inhibition%20of%20class%20I%20PI3Ks%2C%20and%20especially%20PI3K%20beta%2C%20terminated%20ROS%20production.%20This%20deactivation%20of%20NOX2%20is%20due%20to%20the%20release%20of%20the%20cytosolic%20subunits%2C%20p67%28phox%29%20and%20p47%28phox%29%20from%20the%20plasma%20membrane.%20Overexpression%20of%20an%20active%20form%20of%20Rac%201%20did%20not%20prevent%20the%20drop%20of%20ROS%20production%20upon%20inhibition%20of%20class%20I%20PI3Ks.%20Moreover%2C%20the%20phosphorylation%20of%20p47%28phox%29%20at%20S328%2C%20a%20potential%20target%20of%20kinases%20activated%20by%20the%20PI3K%20pathway%2C%20was%20unchanged.%20Our%20results%20indicate%20that%20the%20experimental%20downregulation%20of%20class%20I%20PI3K%20products%20triggers%20the%20plasma%20membrane%20NADPH%20oxidase%20deactivation.%20Release%20of%20p47%28phox%29%20from%20the%20plasma%20membrane%20may%20involve%20its%20PX%20domains%20that%20bind%20PI3K%20products.%22%2C%22date%22%3A%22AUG%202020%22%2C%22language%22%3A%22English%22%2C%22DOI%22%3A%2210.1016%5C%2Fj.bcp.2020.114088%22%2C%22ISSN%22%3A%220006-2952%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222020-09-01T13%3A38%3A40Z%22%7D%7D%2C%7B%22key%22%3A%22NP7RZHXU%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Demes%20et%20al.%22%2C%22parsedDate%22%3A%222020-06-30%22%2C%22numChildren%22%3A4%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EDemes%2C%20Elsa%2C%20Laetitia%20Besse%2C%20Paloma%20Cubero-Font%2C%20Beatrice%20Satiat-Jeunemaitre%2C%20Sebastien%20Thomine%2C%20and%20Alexis%20De%20Angeli.%202020.%20%26%23x201C%3BDynamic%20Measurement%20of%20Cytosolic%20PH%20and%20%5BNO3-%5D%20Uncovers%20the%20Role%20of%20the%20Vacuolar%20Transporter%20AtCLCa%20in%20Cytosolic%20PH%20Homeostasis.%26%23x201D%3B%20%3Ci%3EProceedings%20of%20the%20National%20Academy%20of%20Sciences%20of%20the%20United%20States%20of%20America%3C%5C%2Fi%3E%20117%20%2826%29%3A%2015343%26%23x2013%3B53.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1073%5C%2Fpnas.2007580117%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1073%5C%2Fpnas.2007580117%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Dynamic%20measurement%20of%20cytosolic%20pH%20and%20%5BNO3-%5D%20uncovers%20the%20role%20of%20the%20vacuolar%20transporter%20AtCLCa%20in%20cytosolic%20pH%20homeostasis%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Elsa%22%2C%22lastName%22%3A%22Demes%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Laetitia%22%2C%22lastName%22%3A%22Besse%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Paloma%22%2C%22lastName%22%3A%22Cubero-Font%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Beatrice%22%2C%22lastName%22%3A%22Satiat-Jeunemaitre%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sebastien%22%2C%22lastName%22%3A%22Thomine%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Alexis%22%2C%22lastName%22%3A%22De%20Angeli%22%7D%5D%2C%22abstractNote%22%3A%22Ion%20transporters%20are%20key%20players%20of%20cellular%20processes.%20The%20mechanistic%20properties%20of%20ion%20transporters%20have%20been%20well%20elucidated%20by%20biophysical%20methods.%20Meanwhile%2C%20the%20understanding%20of%20their%20exact%20functions%20in%20cellular%20homeostasis%20is%20limited%20by%20the%20difficulty%20of%20monitoring%20their%20activity%20in%20vivo.%20The%20development%20of%20biosensors%20to%20track%20subtle%20changes%20in%20intracellular%20parameters%20provides%20invaluable%20tools%20to%20tackle%20this%20challenging%20issue.%20AtCLCa%20%28Arabidopsis%20thaliana%20Chloride%20Channel%20a%29%20is%20a%20vacuolar%20NO3-%5C%2FH%2B%20exchanger%20regulating%20stomata%20aperture%20in%20A.%20thaliana.%20Here%2C%20we%20used%20a%20genetically%20encoded%20biosensor%2C%20ClopHensor%2C%20reporting%20the%20dynamics%20of%20cytosolic%20anion%20concentration%20and%20pH%20to%20monitor%20the%20activity%20of%20AtCLCa%20in%20vivo%20in%20Arabidopsis%20guard%20cells.%20We%20first%20found%20that%20ClopHensor%20is%20not%20only%20a%20Cl-%20but%20also%2C%20an%20NO3-%20sensor.%20We%20were%20then%20able%20to%20quantify%20the%20variations%20of%20NO3-%20and%20pH%20in%20the%20cytosol.%20Our%20data%20showed%20that%20AtCLCa%20activity%20modifies%20cytosolic%20pH%20and%20NO3-.%20In%20an%20AtCLCa%20loss%20of%20function%20mutant%2C%20the%20cytosolic%20acidification%20triggered%20by%20extracellular%20NO3-%20and%20the%20recovery%20of%20pH%20upon%20treatment%20with%20fusicoccin%20%28a%20fungal%20toxin%20that%20activates%20the%20plasma%20membrane%20proton%20pump%29%20are%20impaired%2C%20demonstrating%20that%20the%20transport%20activity%20of%20this%20vacuolar%20exchanger%20has%20a%20profound%20impact%20on%20cytosolic%20homeostasis.%20This%20opens%20a%20perspective%20on%20the%20function%20of%20intracellular%20transporters%20of%20the%20Chloride%20Channel%20%28CLC%29%20family%20in%20eukaryotes%3A%20not%20only%20controlling%20the%20intraorganelle%20lumen%20but%20also%2C%20actively%20modifying%20cytosolic%20conditions.%22%2C%22date%22%3A%22JUN%2030%202020%22%2C%22language%22%3A%22English%22%2C%22DOI%22%3A%2210.1073%5C%2Fpnas.2007580117%22%2C%22ISSN%22%3A%220027-8424%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%2283ZRAMIC%22%5D%2C%22dateModified%22%3A%222021-03-24T11%3A06%3A36Z%22%7D%7D%2C%7B%22key%22%3A%22NQVDPPGR%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Abello%20et%20al.%22%2C%22parsedDate%22%3A%222020%22%2C%22numChildren%22%3A1%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EAbello%2C%20Arthur%2C%20Vinciane%20R%26%23xE9%3Bgnier%2C%20Olivier%20Arnaiz%2C%20Romain%20Le%20Bars%2C%20Mireille%20B%26%23xE9%3Btermier%2C%20and%20Julien%20Bischerour.%202020.%20%26%23x201C%3BFunctional%20Diversification%20of%20Paramecium%20Ku80%20Paralogs%20Safeguards%20Genome%20Integrity%20during%20Precise%20Programmed%20DNA%20Elimination.%26%23x201D%3B%20%3Ci%3EPLoS%20Genetics%3C%5C%2Fi%3E%2016%20%284%29%3A%20e1008723.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1371%5C%2Fjournal.pgen.1008723%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1371%5C%2Fjournal.pgen.1008723%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Functional%20diversification%20of%20Paramecium%20Ku80%20paralogs%20safeguards%20genome%20integrity%20during%20precise%20programmed%20DNA%20elimination%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Arthur%22%2C%22lastName%22%3A%22Abello%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Vinciane%22%2C%22lastName%22%3A%22R%5Cu00e9gnier%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Olivier%22%2C%22lastName%22%3A%22Arnaiz%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Mireille%22%2C%22lastName%22%3A%22B%5Cu00e9termier%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Julien%22%2C%22lastName%22%3A%22Bischerour%22%7D%5D%2C%22abstractNote%22%3A%22Gene%20duplication%20and%20diversification%20drive%20the%20emergence%20of%20novel%20functions%20during%20evolution.%20Because%20of%20whole%20genome%20duplications%2C%20ciliates%20from%20the%20Paramecium%20aurelia%20group%20constitute%20a%20remarkable%20system%20to%20study%20the%20evolutionary%20fate%20of%20duplicated%20genes.%20Paramecium%20species%20harbor%20two%20types%20of%20nuclei%3A%20a%20germline%20micronucleus%20%28MIC%29%20and%20a%20somatic%20macronucleus%20%28MAC%29%20that%20forms%20from%20the%20MIC%20at%20each%20sexual%20cycle.%20During%20MAC%20development%2C%20~45%2C000%20germline%20Internal%20Eliminated%20Sequences%20%28IES%29%20are%20excised%20precisely%20from%20the%20genome%20through%20a%20%27cut-and-close%27%20mechanism.%20Here%2C%20we%20have%20studied%20the%20P.%20tetraurelia%20paralogs%20of%20KU80%2C%20which%20encode%20a%20key%20DNA%20double-strand%20break%20repair%20factor%20involved%20in%20non-homologous%20end%20joining.%20The%20three%20KU80%20genes%20have%20different%20transcription%20patterns%2C%20KU80a%20and%20KU80b%20being%20constitutively%20expressed%2C%20while%20KU80c%20is%20specifically%20induced%20during%20MAC%20development.%20Immunofluorescence%20microscopy%20and%20high-throughput%20DNA%20sequencing%20revealed%20that%20Ku80c%20stably%20anchors%20the%20PiggyMac%20%28Pgm%29%20endonuclease%20in%20the%20developing%20MAC%20and%20is%20essential%20for%20IES%20excision%20genome-wide%2C%20providing%20a%20molecular%20explanation%20for%20the%20previously%20reported%20Ku-dependent%20licensing%20of%20DNA%20cleavage%20at%20IES%20ends.%20Expressing%20Ku80a%20under%20KU80c%20transcription%20signals%20failed%20to%20complement%20a%20depletion%20of%20endogenous%20Ku80c%2C%20indicating%20that%20the%20two%20paralogous%20proteins%20have%20distinct%20properties.%20Domain-swap%20experiments%20identified%20the%20%5Cu03b1%5C%2F%5Cu03b2%20domain%20of%20Ku80c%20as%20the%20major%20determinant%20for%20its%20specialized%20function%2C%20while%20its%20C-terminal%20part%20is%20required%20for%20excision%20of%20only%20a%20small%20subset%20of%20IESs%20located%20in%20IES-dense%20regions.%20We%20conclude%20that%20Ku80c%20has%20acquired%20the%20ability%20to%20license%20Pgm-dependent%20DNA%20cleavage%2C%20securing%20precise%20DNA%20elimination%20during%20programmed%20rearrangements.%20The%20present%20study%20thus%20provides%20novel%20evidence%20for%20functional%20diversification%20of%20genes%20issued%20from%20a%20whole-genome%20duplication.%22%2C%22date%22%3A%222020%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1371%5C%2Fjournal.pgen.1008723%22%2C%22ISSN%22%3A%221553-7404%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%222FBUFWW8%22%5D%2C%22dateModified%22%3A%222021-03-16T16%3A00%3A03Z%22%7D%7D%2C%7B%22key%22%3A%22GFSDRIER%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Rochin%20et%20al.%22%2C%22parsedDate%22%3A%222020%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3ERochin%2C%20Leila%2C%20C%26%23xE9%3Bcile%20Sauvanet%2C%20Eeva%20J%26%23xE4%3B%26%23xE4%3Bskel%26%23xE4%3Binen%2C%20Audrey%20Houcine%2C%20Annukka%20Kivel%26%23xE4%3B%2C%20Xingjie%20Ma%2C%20Eyra%20Marien%2C%20et%20al.%202020.%20%26%23x201C%3BORP5%20Transfers%20Phosphatidylserine%20To%20Mitochondria%20And%20Regulates%20Mitochondrial%20Calcium%20Uptake%20At%20Endoplasmic%20Reticulum%20-%20Mitochondria%20Contact%20Sites.%26%23x201D%3B%20%3Ci%3EBioRxiv%3C%5C%2Fi%3E%2C%20695577.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1101%5C%2F695577%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1101%5C%2F695577%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22ORP5%20Transfers%20Phosphatidylserine%20To%20Mitochondria%20And%20Regulates%20Mitochondrial%20Calcium%20Uptake%20At%20Endoplasmic%20Reticulum%20-%20Mitochondria%20Contact%20Sites%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Leila%22%2C%22lastName%22%3A%22Rochin%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9cile%22%2C%22lastName%22%3A%22Sauvanet%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Eeva%22%2C%22lastName%22%3A%22J%5Cu00e4%5Cu00e4skel%5Cu00e4inen%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Audrey%22%2C%22lastName%22%3A%22Houcine%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Annukka%22%2C%22lastName%22%3A%22Kivel%5Cu00e4%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Xingjie%22%2C%22lastName%22%3A%22Ma%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Eyra%22%2C%22lastName%22%3A%22Marien%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jonas%22%2C%22lastName%22%3A%22Dehairs%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Julie%22%2C%22lastName%22%3A%22Neveu%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Johannes%22%2C%22lastName%22%3A%22Swinnen%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22David%22%2C%22lastName%22%3A%22Bernard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22David%22%2C%22lastName%22%3A%22Tareste%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Vesa%20M.%22%2C%22lastName%22%3A%22Olkkonen%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Francesca%22%2C%22lastName%22%3A%22Giordano%22%7D%5D%2C%22abstractNote%22%3A%22%3Ch3%3EABSTRACT%3C%5C%2Fh3%3E%20%3Cp%3EMitochondria%20are%20dynamic%20organelles%20essential%20for%20cell%20survival%20whose%20structural%20and%20functional%20integrity%20rely%20on%20selective%20and%20regulated%20transport%20of%20lipids%20from%5C%2Fto%20the%20endoplasmic%20reticulum%20%28ER%29%20and%20across%20the%20two%20mitochondrial%20membranes.%20As%20they%20are%20not%20connected%20by%20vesicle%20transport%2C%20the%20exchange%20of%20lipids%20between%20ER%20and%20mitochondria%20occurs%20at%20sites%20of%20close%20organelle%20apposition%20called%20membrane%20contact%20sites.%20However%2C%20the%20mechanisms%20and%20proteins%20involved%20in%20these%20processes%20are%20only%20beginning%20to%20emerge.%20Here%2C%20we%20show%20that%20ORP5%5C%2F8%20mediate%20non-vesicular%20transport%20of%20Phosphatidylserine%20%28PS%29%20from%20the%20ER%20to%20mitochondria%20in%20mammalian%20cells.%20We%20also%20show%20that%20ER-mitochondria%20contacts%20where%20ORP5%5C%2F8%20reside%20are%20physically%20and%20functionally%20linked%20to%20the%20MIB%5C%2FMICOS%20complexes%20that%20bridge%20the%20mitochondria%20membranes%2C%20cooperating%20with%20them%20to%20facilitate%20PS%20transfer%20from%20the%20ER%20to%20the%20mitochondria.%20Finally%2C%20we%20show%20that%20ORP5%20but%20not%20ORP8%2C%20additionally%20regulates%20import%20of%20calcium%20to%20mitochondria%20and%20consequently%20cell%20senescence.%3C%5C%2Fp%3E%22%2C%22date%22%3A%222020%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1101%5C%2F695577%22%2C%22ISSN%22%3A%22%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Fwww.biorxiv.org%5C%2Fcontent%5C%2F10.1101%5C%2F695577v2%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%2283ZRAMIC%22%5D%2C%22dateModified%22%3A%222021-02-02T12%3A59%3A00Z%22%7D%7D%2C%7B%22key%22%3A%225888H8X8%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Boulogne%20et%20al.%22%2C%22parsedDate%22%3A%222020%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EBoulogne%2C%20C.%2C%20C.%20Gillet%2C%20L.%20Hughes%2C%20R.%20Le%20Bars%2C%20A.%20Canette%2C%20C.%20R.%20Hawes%2C%20and%20B.%20Satiat%26%23x2010%3BJeunemaitre.%202020.%20%26%23x201C%3BFunctional%20Organisation%20of%20the%20Endomembrane%20Network%20in%20the%20Digestive%20Gland%20of%20the%20Venus%20Flytrap%3A%20Revisiting%20an%20Old%20Story%20with%20a%20New%20Microscopy%20Toolbox.%26%23x201D%3B%20%3Ci%3EJournal%20of%20Microscopy%3C%5C%2Fi%3E%20280%20%282%29%3A%2086%26%23x2013%3B103.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2Fhttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1111%5C%2Fjmi.12957%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2Fhttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1111%5C%2Fjmi.12957%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Functional%20organisation%20of%20the%20endomembrane%20network%20in%20the%20digestive%20gland%20of%20the%20Venus%20flytrap%3A%20revisiting%20an%20old%20story%20with%20a%20new%20microscopy%20toolbox%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C.%22%2C%22lastName%22%3A%22Boulogne%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C.%22%2C%22lastName%22%3A%22Gillet%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22L.%22%2C%22lastName%22%3A%22Hughes%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22R.%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22A.%22%2C%22lastName%22%3A%22Canette%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C.%20R.%22%2C%22lastName%22%3A%22Hawes%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22B.%22%2C%22lastName%22%3A%22Satiat%5Cu2010Jeunemaitre%22%7D%5D%2C%22abstractNote%22%3A%22Up-to-date%20imaging%20approaches%20were%20used%20to%20address%20the%20spatiotemporal%20organisation%20of%20the%20endomembrane%20system%20in%20secretory%20cells%20of%20Dionaea%20muscipula.%20Different%20%5Cu2018slice%20and%20view%5Cu2019%20methodologies%20were%20performed%20on%20resin-embedded%20samples%20to%20finally%20achieve%20a%203D%20reconstruction%20of%20the%20cell%20architecture%2C%20using%20ultrastructural%20tomography%2C%20array%20tomography%2C%20serial%20block%20face-scanning%20electron%20microscopy%20%28SBF-SEM%29%2C%20correlation%2C%20and%20volume%20rendering%20at%20the%20light%20microscopy%20level.%20Observations%20of%20cryo-fixed%20samples%20by%20high-pressure%20freezing%20revealed%20changes%20of%20the%20endomembrane%20system%20that%20occur%20after%20trap%20activation%20and%20prey%20digestion.%20They%20provide%20evidence%20for%20an%20original%20strategy%20that%20adapts%20the%20secretory%20machinery%20to%20a%20specific%20and%20unique%20case%20of%20stimulated%20exocytosis%20in%20plant%20cells.%20A%20first%20secretion%20peak%20is%20part%20of%20a%20rapid%20response%20to%20deliver%20digestive%20fluids%20to%20the%20cell%20surface%2C%20which%20delivers%20the%20needed%20stock%20of%20digestive%20materials%20%5Cu2018on%20site%5Cu2019.%20The%20second%20peak%20of%20activity%20could%20then%20be%20associated%20with%20the%20reconstruction%20of%20the%20Golgi%20apparatus%20%28GA%29%2C%20endoplasmic%20reticulum%20%28ER%29%20and%20vacuolar%20machinery%2C%20in%20order%20to%20prepare%20for%20a%20subsequent%20round%20of%20prey%20capture.%20Tubular%20continuum%20between%20ER%20and%20Golgi%20stacks%20observed%20on%20ZIO-impregnated%20tissues%20may%20correspond%20to%20an%20efficient%20transfer%20mechanism%20for%20lipids%20and%5C%2For%20proteins%2C%20especially%20for%20use%20in%20rapidly%20resetting%20the%20molecular%20GA%20machinery.%20The%20occurrence%20of%20one%20vacuolar%20continuum%20may%20permit%20continuous%20adjustment%20of%20cell%20homeostasy.%20The%20subcellular%20features%20of%20the%20secretory%20cells%20of%20Dionaea%20muscipula%20outline%20key%20innovations%20in%20the%20organisation%20of%20plant%20cell%20compartmentalisation%20that%20are%20used%20to%20cope%20with%20specific%20cell%20needs%20such%20as%20the%20full%20use%20of%20the%20GA%20as%20a%20protein%20factory%2C%20and%20the%20ability%20to%20create%20protein%20reservoirs%20in%20the%20periplasmic%20space.%20Shape-derived%20forces%20of%20the%20pleiomorphic%20vacuole%20may%20act%20as%20signals%20to%20accompany%20the%20sorting%20and%20entering%20flows%20of%20the%20cell.%22%2C%22date%22%3A%222020%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%22https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1111%5C%2Fjmi.12957%22%2C%22ISSN%22%3A%221365-2818%22%2C%22url%22%3A%22http%3A%5C%2F%5C%2Fonlinelibrary.wiley.com%5C%2Fdoi%5C%2Fabs%5C%2F10.1111%5C%2Fjmi.12957%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%2283ZRAMIC%22%5D%2C%22dateModified%22%3A%222021-02-17T15%3A58%3A57Z%22%7D%7D%2C%7B%22key%22%3A%22EHQ443C5%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Joly%20et%20al.%22%2C%22parsedDate%22%3A%222020%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EJoly%2C%20J%26%23xE9%3Br%26%23xE9%3Bmy%2C%20Elodie%20Hudik%2C%20Sandrine%20Lecart%2C%20Dirk%20Roos%2C%20Paul%20Verkuijlen%2C%20Dominik%20Wrona%2C%20Ulrich%20Siler%2C%20Janine%20Reichenbach%2C%20Oliver%20N%26%23xFC%3Bsse%2C%20and%20Sophie%20Dupr%26%23xE9%3B-Crochet.%202020.%20%26%23x201C%3BMembrane%20Dynamics%20and%20Organization%20of%20the%20Phagocyte%20NADPH%20Oxidase%20in%20PLB-985%20Cells.%26%23x201D%3B%20%3Ci%3EFrontiers%20in%20Cell%20and%20Developmental%20Biology%3C%5C%2Fi%3E%208.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.3389%5C%2Ffcell.2020.608600%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.3389%5C%2Ffcell.2020.608600%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Membrane%20Dynamics%20and%20Organization%20of%20the%20Phagocyte%20NADPH%20Oxidase%20in%20PLB-985%20Cells%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22J%5Cu00e9r%5Cu00e9my%22%2C%22lastName%22%3A%22Joly%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Elodie%22%2C%22lastName%22%3A%22Hudik%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sandrine%22%2C%22lastName%22%3A%22Lecart%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Dirk%22%2C%22lastName%22%3A%22Roos%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Paul%22%2C%22lastName%22%3A%22Verkuijlen%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Dominik%22%2C%22lastName%22%3A%22Wrona%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Ulrich%22%2C%22lastName%22%3A%22Siler%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Janine%22%2C%22lastName%22%3A%22Reichenbach%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Oliver%22%2C%22lastName%22%3A%22N%5Cu00fcsse%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sophie%22%2C%22lastName%22%3A%22Dupr%5Cu00e9-Crochet%22%7D%5D%2C%22abstractNote%22%3A%22Neutrophils%20are%20the%20first%20cells%20recruited%20at%20the%20site%20of%20infections%2C%20where%20they%20phagocytose%20the%20pathogens.%20Inside%20the%20phagosome%2C%20pathogens%20are%20killed%20by%20proteolytic%20enzymes%20that%20are%20delivered%20to%20the%20phagosome%20following%20granule%20fusion%2C%20and%20by%20reactive%20oxygen%20species%20%28ROS%29%20produced%20by%20the%20NADPH%20oxidase.%20The%20NADPH%20oxidase%20complex%20comprises%20membrane%20proteins%20%28NOX2%20and%20p22phox%29%2C%20cytoplasmic%20subunits%20%28p67phox%2C%20p47phox%2C%20p40phox%29%20and%20the%20small%20GTPase%20Rac.%20These%20subunits%20assemble%20at%20the%20phagosomal%20membrane%20upon%20phagocytosis.%20In%20resting%20neutrophils%20the%20catalytic%20subunit%20NOX2%20is%20mainly%20present%20at%20the%20plasma%20membrane%20and%20in%20the%20specific%20granules.%20We%20show%20here%20that%20NOX2%20is%20also%20present%20in%20early%20and%20recycling%20endosomes%20in%20human%20neutrophils%20and%20in%20the%20neutrophil-like%20cell%20line%20PLB-985%20expressing%20GFP-NOX2.%20In%20the%20latter%20cells%2C%20an%20increase%20in%20NOX2%20at%20the%20phagosomal%20membrane%20was%20detected%20by%20live-imaging%20after%20phagosome%20closure%2C%20probably%20due%20to%20fusion%20of%20endosomes%20with%20the%20phagosome.%20Using%20super-resolution%20microscopy%20in%20PLB-985%20WT%20cells%2C%20we%20observed%20that%20NOX2%20forms%20discrete%20clusters%20in%20the%20plasma%20membrane.%20The%20number%20of%20clusters%20increased%20during%20frustrated%20phagocytosis.%20In%20PLB-985NCF1%5Cuf044GT%20cells%20that%20lack%20p47phox%20and%20do%20not%20assemble%20a%20functional%20NADPH%20oxidase%2C%20the%20number%20of%20clusters%20remained%20stable%20during%20phagocytosis.%20Our%20data%20suggest%20a%20role%20for%20p47phox%20and%20possibly%20ROS%20production%20in%20NOX2%20recruitment%20at%20the%20phagosome.%22%2C%22date%22%3A%222020%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.3389%5C%2Ffcell.2020.608600%22%2C%22ISSN%22%3A%222296-634X%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Fwww.frontiersin.org%5C%2Farticles%5C%2F10.3389%5C%2Ffcell.2020.608600%5C%2Ffull%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222021-02-02T09%3A48%3A25Z%22%7D%7D%2C%7B%22key%22%3A%226VDA5WCY%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Le%20Bars%20et%20al.%22%2C%22parsedDate%22%3A%222019%22%2C%22numChildren%22%3A0%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3ELe%20Bars%2C%20Romain%2C%20Michele%20W.%20Bianchi%2C%20and%20Christophe%20Lefebvre.%202019.%20%26%23x201C%3BThree-Dimensional%20Surface%20Rendering%20of%20ESCRT%20Proteins%20Microscopy%20Data%20Using%20UCSF%20Chimera%20Software.%26%23x201D%3B%20In%20%3Ci%3EThe%20ESCRT%20Complexes%3A%20Methods%20and%20Protocols%3C%5C%2Fi%3E%2C%20edited%20by%20Emmanuel%20Culetto%20and%20Renaud%20Legouis%2C%20149%26%23x2013%3B61.%20Methods%20in%20Molecular%20Biology.%20New%20York%2C%20NY%3A%20Springer.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1007%5C%2F978-1-4939-9492-2_11%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1007%5C%2F978-1-4939-9492-2_11%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22bookSection%22%2C%22title%22%3A%22Three-Dimensional%20Surface%20Rendering%20of%20ESCRT%20Proteins%20Microscopy%20Data%20Using%20UCSF%20Chimera%20Software%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Michele%20W.%22%2C%22lastName%22%3A%22Bianchi%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Christophe%22%2C%22lastName%22%3A%22Lefebvre%22%7D%2C%7B%22creatorType%22%3A%22editor%22%2C%22firstName%22%3A%22Emmanuel%22%2C%22lastName%22%3A%22Culetto%22%7D%2C%7B%22creatorType%22%3A%22editor%22%2C%22firstName%22%3A%22Renaud%22%2C%22lastName%22%3A%22Legouis%22%7D%5D%2C%22abstractNote%22%3A%22Visualization%20of%20subcellular%20localization%20of%20ESCRT%20proteins%20and%20their%20interactions%20with%20different%20cellular%20compartments%20are%20critical%20to%20understand%20their%20function.%20This%20approach%20requires%20the%20generation%20of%20an%20important%20amount%20of%203D%20fluorescence%20microscopy%20data%20that%20is%20not%20always%20easy%20to%20visualize%20and%20apprehend.We%20describe%20a%20step-by-step%20protocol%20for%203D%20surface%20rendering%20of%20confocal%20microscopy%20acquisitions%20using%20the%20free%20software%20UCSF-Chimera%2C%20generating%20snapshots%20and%20animations%20to%20facilitate%20analysis%20and%20presentation%20of%20subcellular%20localization%20data.%22%2C%22bookTitle%22%3A%22The%20ESCRT%20Complexes%3A%20Methods%20and%20Protocols%22%2C%22date%22%3A%222019%22%2C%22language%22%3A%22en%22%2C%22ISBN%22%3A%22978-1-4939-9492-2%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1007%5C%2F978-1-4939-9492-2_11%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%2283ZRAMIC%22%5D%2C%22dateModified%22%3A%222021-09-30T07%3A38%3A41Z%22%7D%7D%2C%7B%22key%22%3A%22D7RPAF8R%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Avin-Wittenberg%20et%20al.%22%2C%22parsedDate%22%3A%222018-05-25%22%2C%22numChildren%22%3A1%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EAvin-Wittenberg%2C%20Tamar%2C%20Frantisek%20Balu%26%23x161%3Bka%2C%20Peter%20V.%20Bozhkov%2C%20Pernilla%20H.%20Elander%2C%20Alisdair%20R.%20Fernie%2C%20Gad%20Galili%2C%20Ammar%20Hassan%2C%20et%20al.%202018.%20%26%23x201C%3BCorrigendum%3A%20Autophagy-Related%20Approaches%20for%20Improving%20Nutrient%20Use%20Efficiency%20and%20Crop%20Yield%20Protection.%26%23x201D%3B%20%3Ci%3EJournal%20of%20Experimental%20Botany%3C%5C%2Fi%3E%2069%20%2812%29%3A%203173.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fjxb%5C%2Fery113%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fjxb%5C%2Fery113%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Corrigendum%3A%20Autophagy-related%20approaches%20for%20improving%20nutrient%20use%20efficiency%20and%20crop%20yield%20protection%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Tamar%22%2C%22lastName%22%3A%22Avin-Wittenberg%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Frantisek%22%2C%22lastName%22%3A%22Balu%5Cu0161ka%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Peter%20V.%22%2C%22lastName%22%3A%22Bozhkov%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pernilla%20H.%22%2C%22lastName%22%3A%22Elander%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Alisdair%20R.%22%2C%22lastName%22%3A%22Fernie%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Gad%22%2C%22lastName%22%3A%22Galili%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Ammar%22%2C%22lastName%22%3A%22Hassan%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Daniel%22%2C%22lastName%22%3A%22Hofius%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Erika%22%2C%22lastName%22%3A%22Isono%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9line%22%2C%22lastName%22%3A%22Masclaux-Daubresse%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Elena%20A.%22%2C%22lastName%22%3A%22Minina%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Hadas%22%2C%22lastName%22%3A%22Peled-Zehavi%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22N%5Cu00faria%20S.%22%2C%22lastName%22%3A%22Coll%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Luisa%20M.%22%2C%22lastName%22%3A%22Sandalio%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22B%5Cu00e9atrice%22%2C%22lastName%22%3A%22Satiat-Jeunemaitre%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Agnieszka%22%2C%22lastName%22%3A%22Sirko%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pilar%20S.%22%2C%22lastName%22%3A%22Testillano%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Henri%22%2C%22lastName%22%3A%22Batoko%22%7D%5D%2C%22abstractNote%22%3A%22%22%2C%22date%22%3A%22May%2025%2C%202018%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1093%5C%2Fjxb%5C%2Fery113%22%2C%22ISSN%22%3A%221460-2431%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%2283ZRAMIC%22%5D%2C%22dateModified%22%3A%222020-02-11T09%3A11%3A38Z%22%7D%7D%2C%7B%22key%22%3A%226LNWYUF5%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Avin-Wittenberg%20et%20al.%22%2C%22parsedDate%22%3A%222018-03-14%22%2C%22numChildren%22%3A0%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EAvin-Wittenberg%2C%20Tamar%2C%20Frantisek%20Balu%26%23x161%3Bka%2C%20Peter%20V%20Bozhkov%2C%20Pernilla%20H%20Elander%2C%20Alisdair%20R%20Fernie%2C%20Gad%20Galili%2C%20Ammar%20Hassan%2C%20et%20al.%202018.%20%26%23x201C%3BAutophagy-Related%20Approaches%20for%20Improving%20Nutrient%20Use%20Efficiency%20and%20Crop%20Yield%20Protection.%26%23x201D%3B%20Edited%20by%20Chris%20Hawes.%20%3Ci%3EJournal%20of%20Experimental%20Botany%3C%5C%2Fi%3E%2069%20%286%29%3A%201335%26%23x2013%3B53.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fjxb%5C%2Fery069%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fjxb%5C%2Fery069%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Autophagy-related%20approaches%20for%20improving%20nutrient%20use%20efficiency%20and%20crop%20yield%20protection%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Tamar%22%2C%22lastName%22%3A%22Avin-Wittenberg%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Frantisek%22%2C%22lastName%22%3A%22Balu%5Cu0161ka%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Peter%20V%22%2C%22lastName%22%3A%22Bozhkov%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pernilla%20H%22%2C%22lastName%22%3A%22Elander%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Alisdair%20R%22%2C%22lastName%22%3A%22Fernie%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Gad%22%2C%22lastName%22%3A%22Galili%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Ammar%22%2C%22lastName%22%3A%22Hassan%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Daniel%22%2C%22lastName%22%3A%22Hofius%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Erika%22%2C%22lastName%22%3A%22Isono%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9line%22%2C%22lastName%22%3A%22Masclaux-Daubresse%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Elena%20A%22%2C%22lastName%22%3A%22Minina%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Hadas%22%2C%22lastName%22%3A%22Peled-Zehavi%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22N%5Cu00faria%20S%22%2C%22lastName%22%3A%22Coll%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Luisa%20M%22%2C%22lastName%22%3A%22Sandalio%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22B%5Cu00e9atrice%22%2C%22lastName%22%3A%22Satiat-Jeunemaitre%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Agnieszka%22%2C%22lastName%22%3A%22Sirko%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pilar%20S%22%2C%22lastName%22%3A%22Testillano%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Henri%22%2C%22lastName%22%3A%22Batoko%22%7D%2C%7B%22creatorType%22%3A%22editor%22%2C%22firstName%22%3A%22Chris%22%2C%22lastName%22%3A%22Hawes%22%7D%5D%2C%22abstractNote%22%3A%22%22%2C%22date%22%3A%222018-03-14%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1093%5C%2Fjxb%5C%2Fery069%22%2C%22ISSN%22%3A%220022-0957%2C%201460-2431%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Facademic.oup.com%5C%2Fjxb%5C%2Farticle%5C%2F69%5C%2F6%5C%2F1335%5C%2F4883495%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%2283ZRAMIC%22%5D%2C%22dateModified%22%3A%222020-02-11T09%3A11%3A20Z%22%7D%7D%2C%7B%22key%22%3A%22ES98D6V7%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Marion%20et%20al.%22%2C%22parsedDate%22%3A%222018-01-09%22%2C%22numChildren%22%3A4%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EMarion%2C%20Jessica%2C%20Romain%20Le%20Bars%2C%20Laetitia%20Besse%2C%20Henri%20Batoko%2C%20and%20B%26%23xE9%3Batrice%20Satiat-Jeunemaitre.%202018.%20%26%23x201C%3BMultiscale%20and%20Multimodal%20Approaches%20to%20Study%20Autophagy%20in%20Model%20Plants.%26%23x201D%3B%20%3Ci%3ECells%3C%5C%2Fi%3E%207%20%281%29%3A%205.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.3390%5C%2Fcells7010005%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.3390%5C%2Fcells7010005%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Multiscale%20and%20Multimodal%20Approaches%20to%20Study%20Autophagy%20in%20Model%20Plants%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jessica%22%2C%22lastName%22%3A%22Marion%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Laetitia%22%2C%22lastName%22%3A%22Besse%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Henri%22%2C%22lastName%22%3A%22Batoko%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22B%5Cu00e9atrice%22%2C%22lastName%22%3A%22Satiat-Jeunemaitre%22%7D%5D%2C%22abstractNote%22%3A%22Autophagy%20is%20a%20catabolic%20process%20used%20by%20eukaryotic%20cells%20to%20maintain%20or%20restore%20cellular%20and%20organismal%20homeostasis.%20A%20better%20understanding%20of%20autophagy%20in%20plant%20biology%20could%20lead%20to%20an%20improvement%20of%20the%20recycling%20processes%20of%20plant%20cells%20and%20thus%20contribute%2C%20for%20example%2C%20towards%20reducing%20the%20negative%20ecological%20consequences%20of%20nitrogen-based%20fertilizers%20in%20agriculture.%20It%20may%20also%20help%20to%20optimize%20plant%20adaptation%20to%20adverse%20biotic%20and%20abiotic%20conditions%20through%20appropriate%20plant%20breeding%20or%20genetic%20engineering%20to%20incorporate%20useful%20traits%20in%20relation%20to%20this%20catabolic%20pathway.%20In%20this%20review%2C%20we%20describe%20useful%20protocols%20for%20studying%20autophagy%20in%20the%20plant%20cell%2C%20taking%20into%20account%20some%20specificities%20of%20the%20plant%20model.%22%2C%22date%22%3A%22Jan%2009%2C%202018%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.3390%5C%2Fcells7010005%22%2C%22ISSN%22%3A%222073-4409%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%2C%2283ZRAMIC%22%5D%2C%22dateModified%22%3A%222021-02-19T14%3A05%3A50Z%22%7D%7D%2C%7B%22key%22%3A%225JEAVQW3%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Nikolic%20et%20al.%22%2C%22parsedDate%22%3A%222017-07-05%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3ENikolic%2C%20Jovan%2C%20Romain%20Le%20Bars%2C%20Zo%26%23xE9%3B%20Lama%2C%20Nathalie%20Scrima%2C%20C%26%23xE9%3Bcile%20Lagaudri%26%23xE8%3Bre-Gesbert%2C%20Yves%20Gaudin%2C%20and%20Danielle%20Blondel.%202017.%20%26%23x201C%3BNegri%20Bodies%20Are%20Viral%20Factories%20with%20Properties%20of%20Liquid%20Organelles.%26%23x201D%3B%20%3Ci%3ENature%20Communications%3C%5C%2Fi%3E%208%20%281%29%3A%2058.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1038%5C%2Fs41467-017-00102-9%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1038%5C%2Fs41467-017-00102-9%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Negri%20bodies%20are%20viral%20factories%20with%20properties%20of%20liquid%20organelles%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jovan%22%2C%22lastName%22%3A%22Nikolic%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Zo%5Cu00e9%22%2C%22lastName%22%3A%22Lama%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Nathalie%22%2C%22lastName%22%3A%22Scrima%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9cile%22%2C%22lastName%22%3A%22Lagaudri%5Cu00e8re-Gesbert%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Yves%22%2C%22lastName%22%3A%22Gaudin%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Danielle%22%2C%22lastName%22%3A%22Blondel%22%7D%5D%2C%22abstractNote%22%3A%22Replication%20of%20Mononegavirales%20occurs%20in%20viral%20factories%20which%20form%20inclusions%20in%20the%20host-cell%20cytoplasm.%20For%20rabies%20virus%2C%20those%20inclusions%20are%20called%20Negri%20bodies%20%28NBs%29.%20We%20report%20that%20NBs%20have%20characteristics%20similar%20to%20those%20of%20liquid%20organelles%3A%20they%20are%20spherical%2C%20they%20fuse%20to%20form%20larger%20structures%2C%20and%20they%20disappear%20upon%20hypotonic%20shock.%20Their%20liquid%20phase%20is%20confirmed%20by%20FRAP%20experiments.%20Live-cell%20imaging%20indicates%20that%20viral%20nucleocapsids%20are%20ejected%20from%20NBs%20and%20transported%20along%20microtubules%20to%20form%20either%20new%20virions%20or%20secondary%20viral%20factories.%20Coexpression%20of%20rabies%20virus%20N%20and%20P%20proteins%20results%20in%20cytoplasmic%20inclusions%20recapitulating%20NBs%20properties.%20This%20minimal%20system%20reveals%20that%20an%20intrinsically%20disordered%20domain%20and%20the%20dimerization%20domain%20of%20P%20are%20essential%20for%20Negri%20bodies-like%20structures%20formation.%20We%20suggest%20that%20formation%20of%20liquid%20viral%20factories%20by%20phase%20separation%20is%20common%20among%20Mononegavirales%20and%20allows%20specific%20recruitment%20and%20concentration%20of%20viral%20proteins%20but%20also%20the%20escape%20to%20cellular%20antiviral%20response.Negative%20strand%20RNA%20viruses%2C%20such%20as%20rabies%20virus%2C%20induce%20formation%20of%20cytoplasmic%20inclusions%20for%20genome%20replication.%20Here%2C%20Nikolic%20et%20al.%20show%20that%20these%20so-called%20Negri%20bodies%20%28NBs%29%20have%20characteristics%20of%20liquid%20organelles%20and%20they%20identify%20the%20minimal%20protein%20domains%20required%20for%20NB%20formation.%22%2C%22date%22%3A%22Jul%2005%2C%202017%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1038%5C%2Fs41467-017-00102-9%22%2C%22ISSN%22%3A%222041-1723%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222018-03-22T11%3A33%3A35Z%22%7D%7D%2C%7B%22key%22%3A%22WZA4TC6X%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Becker%20et%20al.%22%2C%22parsedDate%22%3A%222017-06-13%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EBecker%2C%20Lo%26%23xEF%3Bc%2C%20S%26%23xE9%3Bbastien%20Bellow%2C%20Vincent%20Carr%26%23xE9%3B%2C%20Gwendal%20Latouche%2C%20Anne%20Poutaraud%2C%20Didier%20Merdinoglu%2C%20Spencer%20C.%20Brown%2C%20Zoran%20G.%20Cerovic%2C%20and%20Patrick%20Chaimbault.%202017.%20%26%23x201C%3BCorrelative%20Analysis%20of%20Fluorescent%20Phytoalexins%20by%20Mass%20Spectrometry%20Imaging%20and%20Fluorescence%20Microscopy%20in%20Grapevine%20Leaves.%26%23x201D%3B%20%3Ci%3EAnalytical%20Chemistry%3C%5C%2Fi%3E%2C%20June.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1021%5C%2Facs.analchem.7b01002%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1021%5C%2Facs.analchem.7b01002%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Correlative%20Analysis%20of%20Fluorescent%20Phytoalexins%20by%20Mass%20Spectrometry%20Imaging%20and%20Fluorescence%20Microscopy%20in%20Grapevine%20Leaves%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Lo%5Cu00efc%22%2C%22lastName%22%3A%22Becker%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22S%5Cu00e9bastien%22%2C%22lastName%22%3A%22Bellow%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Vincent%22%2C%22lastName%22%3A%22Carr%5Cu00e9%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Gwendal%22%2C%22lastName%22%3A%22Latouche%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Anne%22%2C%22lastName%22%3A%22Poutaraud%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Didier%22%2C%22lastName%22%3A%22Merdinoglu%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Spencer%20C.%22%2C%22lastName%22%3A%22Brown%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Zoran%20G.%22%2C%22lastName%22%3A%22Cerovic%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Patrick%22%2C%22lastName%22%3A%22Chaimbault%22%7D%5D%2C%22abstractNote%22%3A%22Plant%20response%20to%20their%20environment%20stresses%20is%20a%20complex%20mechanism%20involving%20secondary%20metabolites.%20Stilbene%20phytoalexins%2C%20namely%20resveratrol%2C%20pterostilbene%2C%20piceids%20and%20viniferins%20play%20a%20key%20role%20in%20grapevine%20%28Vitis%20vinifera%29%20leaf%20defense.%20Despite%20their%20well-established%20qualities%2C%20conventional%20analyses%20such%20as%20HPLC-DAD%20or%20LC-MS%20lose%20valuable%20information%20on%20metabolite%20localization%20during%20the%20extraction%20process.%20To%20overcome%20this%20issue%2C%20a%20correlative%20analysis%20combining%20mass%20spectroscopy%20imaging%20%28MSI%29%20and%20fluorescence%20imaging%20was%20developed%20to%20localize%20in%20situ%20stilbenes%20on%20the%20same%20stressed%20grapevine%20leaves.%20High-resolution%20images%20of%20the%20stilbene%20fluorescence%20provided%20by%20macroscopy%20were%20supplemented%20by%20specific%20distributions%20and%20structural%20information%20concerning%20resveratrol%2C%20pterostilbene%2C%20and%20piceids%20obtained%20by%20MSI.%20The%20two%20imaging%20techniques%20led%20to%20consistent%20and%20complementary%20data%20on%20the%20stilbene%20spatial%20distribution%20for%20the%20two%20stresses%20addressed%3A%20UV-C%20irradiation%20and%20infection%20by%20Plasmopara%20viticola.%20Results%20emphasize%20that%20grapevine%20leaves%20react%20differently%20depending%20on%20the%20stress.%20A%20rather%20uniform%20synthesis%20of%20stilbenes%20is%20induced%20after%20UV-C%20irradiation%2C%20whereas%20a%20more%20localized%20synthesis%20of%20stilbenes%20in%20stomata%20guard%20cells%20and%20cell%20walls%20is%20induced%20by%20P.%20viticola%20infection.%20Finally%2C%20this%20combined%20imaging%20approach%20could%20be%20extended%20to%20map%20phytoalexins%20of%20various%20plant%20tissues%20with%20resolution%20approaching%20the%20cellular%20level.%22%2C%22date%22%3A%22Jun%2013%2C%202017%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1021%5C%2Facs.analchem.7b01002%22%2C%22ISSN%22%3A%221520-6882%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222018-03-15T12%3A25%3A01Z%22%7D%7D%2C%7B%22key%22%3A%223B4R44LM%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Marion%20et%20al.%22%2C%22parsedDate%22%3A%222017-06-01%22%2C%22numChildren%22%3A4%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EMarion%2C%20Jessica%2C%20Romain%20Le%20Bars%2C%20B%26%23xE9%3Batrice%20Satiat-Jeunemaitre%2C%20and%20Claire%20Boulogne.%202017.%20%26%23x201C%3BOptimizing%20CLEM%20Protocols%20for%20Plants%20Cells%3A%20GMA%20Embedding%20and%20Cryosections%20as%20Alternatives%20for%20Preservation%20of%20GFP%20Fluorescence%20in%20Arabidopsis%20Roots.%26%23x201D%3B%20%3Ci%3EJournal%20of%20Structural%20Biology%3C%5C%2Fi%3E%20198%20%283%29%3A%20196%26%23x2013%3B202.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1016%5C%2Fj.jsb.2017.03.008%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1016%5C%2Fj.jsb.2017.03.008%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Optimizing%20CLEM%20protocols%20for%20plants%20cells%3A%20GMA%20embedding%20and%20cryosections%20as%20alternatives%20for%20preservation%20of%20GFP%20fluorescence%20in%20Arabidopsis%20roots%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jessica%22%2C%22lastName%22%3A%22Marion%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22B%5Cu00e9atrice%22%2C%22lastName%22%3A%22Satiat-Jeunemaitre%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Claire%22%2C%22lastName%22%3A%22Boulogne%22%7D%5D%2C%22abstractNote%22%3A%22Recently%2C%20a%20number%20of%20diverse%20correlative%20light%20and%20electron%20microscopy%20%28CLEM%29%20protocols%20have%20been%20developed%20for%20several%20model%20organisms.%20However%2C%20these%20CLEM%20methods%20have%20largely%20bypassed%20plant%20cell%20research%2C%20with%20most%20protocols%20having%20little%20application%20to%20plants.%20Using%20autophagosome%20identification%20as%20a%20biological%20background%2C%20we%20propose%20and%20compare%20two%20CLEM%20protocols%20that%20can%20be%20performed%20in%20most%20plant%20research%20laboratories%2C%20providing%20a%20good%20compromise%20that%20preserves%20fluorescent%20signals%20as%20well%20as%20ultrastructural%20features.%20These%20protocols%20are%20based%20on%20either%20the%20adaptation%20of%20a%20high%20pressure%20fixation%5C%2FGMA%20acrylic%20resin%20embedding%20method%2C%20or%20on%20the%20Tokuyasu%20approach.%20Both%20protocols%20suitably%20preserved%20GFP%20fluorescence%20while%20allowing%20the%20observation%20of%20cell%20ultrastructure%20in%20plants.%20Finally%2C%20the%20advantages%20and%20disadvantages%20of%20these%20protocols%20are%20discussed%20in%20the%20context%20of%20multiscale%20imaging%20of%20plant%20cells.%22%2C%22date%22%3A%22June%201%2C%202017%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1016%5C%2Fj.jsb.2017.03.008%22%2C%22ISSN%22%3A%221047-8477%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Fwww.sciencedirect.com%5C%2Fscience%5C%2Farticle%5C%2Fpii%5C%2FS1047847717300539%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222021-02-19T13%3A25%3A20Z%22%7D%7D%2C%7B%22key%22%3A%22EVCCZFI6%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Brown%20et%20al.%22%2C%22parsedDate%22%3A%222017-04-01%22%2C%22numChildren%22%3A4%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EBrown%2C%20Spencer%20C.%2C%20Micka%26%23xEB%3Bl%20Bourge%2C%20Nicolas%20Maunoury%2C%20Maurice%20Wong%2C%20Michele%20Wolfe%20Bianchi%2C%20Sandra%20Lepers-Andrzejewski%2C%20Pascale%20Besse%2C%20Sonja%20Siljak-Yakovlev%2C%20Michel%20Dron%2C%20and%20B%26%23xE9%3Batrice%20Satiat-Jeunema%26%23xEE%3Btre.%202017.%20%26%23x201C%3BDNA%20Remodeling%20by%20Strict%20Partial%20Endoreplication%20in%20Orchids%2C%20an%20Original%20Process%20in%20the%20Plant%20Kingdom.%26%23x201D%3B%20%3Ci%3EGenome%20Biology%20and%20Evolution%3C%5C%2Fi%3E%209%20%284%29%3A%201051%26%23x2013%3B71.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fgbe%5C%2Fevx063%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fgbe%5C%2Fevx063%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22DNA%20Remodeling%20by%20Strict%20Partial%20Endoreplication%20in%20Orchids%2C%20an%20Original%20Process%20in%20the%20Plant%20Kingdom%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Spencer%20C.%22%2C%22lastName%22%3A%22Brown%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Micka%5Cu00ebl%22%2C%22lastName%22%3A%22Bourge%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Nicolas%22%2C%22lastName%22%3A%22Maunoury%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Maurice%22%2C%22lastName%22%3A%22Wong%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Michele%22%2C%22lastName%22%3A%22Wolfe%20Bianchi%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sandra%22%2C%22lastName%22%3A%22Lepers-Andrzejewski%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pascale%22%2C%22lastName%22%3A%22Besse%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sonja%22%2C%22lastName%22%3A%22Siljak-Yakovlev%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Michel%22%2C%22lastName%22%3A%22Dron%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22B%5Cu00e9atrice%22%2C%22lastName%22%3A%22Satiat-Jeunema%5Cu00eetre%22%7D%5D%2C%22abstractNote%22%3A%22DNA%20remodeling%20during%20endoreplication%20appears%20to%20be%20a%20strong%20developmental%20characteristic%20in%20orchids.%20In%20this%20study%2C%20we%20analyzed%20DNA%20content%20and%20nuclei%20in%2041%20species%20of%20orchids%20to%20further%20map%20the%20genome%20evolution%20in%20this%20plant%20family.%20We%20demonstrate%20that%20the%20DNA%20remodeling%20observed%20in%2036%20out%20of%2041%20orchids%20studied%20corresponds%20to%20strict%20partial%20endoreplication.%20Such%20process%20is%20developmentally%20regulated%20in%20each%20wild%20species%20studied.%20Cytometry%20data%20analyses%20allowed%20us%20to%20propose%20a%20model%20where%20nuclear%20states%202C%2C%204E%2C%208E%2C%20etc.%20form%20a%20series%20comprising%20a%20fixed%20proportion%2C%20the%20euploid%20genome%202C%2C%20plus%202%5Cu201332%20additional%20copies%20of%20a%20complementary%20part%20of%20the%20genome.%20The%20fixed%20proportion%20ranged%20from%2089%25%20of%20the%20genome%20in%20Vanilla%20mexicana%20down%20to%2019%25%20in%20V.%20pompona%2C%20the%20lowest%20value%20for%20all%20148%20orchids%20reported.%20Insterspecific%20hybridization%20did%20not%20suppress%20this%20phenomenon.%20Interestingly%2C%20this%20process%20was%20not%20observed%20in%20mass-produced%20epiphytes.%20Nucleolar%20volumes%20grow%20with%20the%20number%20of%20endocopies%20present%2C%20coherent%20with%20high%20transcription%20activity%20in%20endoreplicated%20nuclei.%20Our%20analyses%20suggest%20species-specific%20chromatin%20rearrangement.%20Towards%20understanding%20endoreplication%2C%20V.%20planifolia%20constitutes%20a%20tractable%20system%20for%20isolating%20the%20genomic%20sequences%20that%20confer%20an%20advantage%20via%20endoreplication%20from%20those%20that%20apparently%20suffice%20at%20diploid%20level.%22%2C%22date%22%3A%22April%201%2C%202017%22%2C%22language%22%3A%22%22%2C%22DOI%22%3A%2210.1093%5C%2Fgbe%5C%2Fevx063%22%2C%22ISSN%22%3A%221759-6653%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fgbe%5C%2Fevx063%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222021-02-15T15%3A25%3A37Z%22%7D%7D%2C%7B%22key%22%3A%22ZFBJ8AH3%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Song%20et%20al.%22%2C%22parsedDate%22%3A%222017-01-17%22%2C%22numChildren%22%3A0%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3ESong%2C%20Zhi%20Min%2C%20Le%26%23xEF%3Bla%20Bouchab%2C%20Elodie%20Hudik%2C%20Romain%20Le%20Bars%2C%20Oliver%20N%26%23xFC%3Bsse%2C%20and%20Sophie%20Dupr%26%23xE9%3B-Crochet.%202017.%20%26%23x201C%3BPhosphoinositol%203-Phosphate%20Acts%20as%20a%20Timer%20for%20Reactive%20Oxygen%20Species%20Production%20in%20the%20Phagosome.%26%23x201D%3B%20%3Ci%3EJournal%20of%20Leukocyte%20Biology%3C%5C%2Fi%3E%2C%20January%2C%20jlb.1A0716-305R.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1189%5C%2Fjlb.1A0716-305R%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1189%5C%2Fjlb.1A0716-305R%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Phosphoinositol%203-phosphate%20acts%20as%20a%20timer%20for%20reactive%20oxygen%20species%20production%20in%20the%20phagosome%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Zhi%20Min%22%2C%22lastName%22%3A%22Song%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Le%5Cu00efla%22%2C%22lastName%22%3A%22Bouchab%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Elodie%22%2C%22lastName%22%3A%22Hudik%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Oliver%22%2C%22lastName%22%3A%22N%5Cu00fcsse%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sophie%22%2C%22lastName%22%3A%22Dupr%5Cu00e9-Crochet%22%7D%5D%2C%22abstractNote%22%3A%22%22%2C%22date%22%3A%222017-01-17%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1189%5C%2Fjlb.1A0716-305R%22%2C%22ISSN%22%3A%220741-5400%2C%201938-3673%22%2C%22url%22%3A%22http%3A%5C%2F%5C%2Fwww.jleukbio.org%5C%2Flookup%5C%2Fdoi%5C%2F10.1189%5C%2Fjlb.1A0716-305R%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222018-03-22T11%3A35%3A21Z%22%7D%7D%2C%7B%22key%22%3A%22PCAPC6D6%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Dambroise%20et%20al.%22%2C%22parsedDate%22%3A%222017%22%2C%22numChildren%22%3A0%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EDambroise%2C%20Emilie%2C%20Matthieu%20Simion%2C%20Thomas%20Bourquard%2C%20St%26%23xE9%3Bphanie%20Bouffard%2C%20Barbara%20Rizzi%2C%20Yan%20Jaszczyszyn%2C%20Micka%26%23xEB%3Bl%20Bourge%2C%20et%20al.%202017.%20%26%23x201C%3BPostembryonic%20Fish%20Brain%20Proliferation%20Zones%20Exhibit%20Neuroepithelial-Type%20Gene%20Expression%20Profile%3A%20Features%20of%20Neuroepithelial%20Cells%20in%20Fish.%26%23x201D%3B%20%3Ci%3ESTEM%20CELLS%3C%5C%2Fi%3E.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1002%5C%2Fstem.2588%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1002%5C%2Fstem.2588%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Postembryonic%20Fish%20Brain%20Proliferation%20Zones%20Exhibit%20Neuroepithelial-Type%20Gene%20Expression%20Profile%3A%20Features%20of%20Neuroepithelial%20Cells%20in%20Fish%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Emilie%22%2C%22lastName%22%3A%22Dambroise%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Matthieu%22%2C%22lastName%22%3A%22Simion%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Thomas%22%2C%22lastName%22%3A%22Bourquard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22St%5Cu00e9phanie%22%2C%22lastName%22%3A%22Bouffard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Barbara%22%2C%22lastName%22%3A%22Rizzi%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Yan%22%2C%22lastName%22%3A%22Jaszczyszyn%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Micka%5Cu00ebl%22%2C%22lastName%22%3A%22Bourge%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pierre%22%2C%22lastName%22%3A%22Affaticati%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Aur%5Cu00e9lie%22%2C%22lastName%22%3A%22Heuz%5Cu00e9%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Julia%22%2C%22lastName%22%3A%22Jouralet%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Joanne%22%2C%22lastName%22%3A%22Edouard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Spencer%22%2C%22lastName%22%3A%22Brown%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Claude%22%2C%22lastName%22%3A%22Thermes%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Anne%22%2C%22lastName%22%3A%22Poupon%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Eric%22%2C%22lastName%22%3A%22Reiter%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fr%5Cu00e9d%5Cu00e9ric%22%2C%22lastName%22%3A%22Sohm%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Franck%22%2C%22lastName%22%3A%22Bourrat%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jean-St%5Cu00e9phane%22%2C%22lastName%22%3A%22Joly%22%7D%5D%2C%22abstractNote%22%3A%22%22%2C%22date%22%3A%2203%5C%2F2017%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1002%5C%2Fstem.2588%22%2C%22ISSN%22%3A%2210665099%22%2C%22url%22%3A%22http%3A%5C%2F%5C%2Fdoi.wiley.com%5C%2F10.1002%5C%2Fstem.2588%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222018-03-22T11%3A38%3A36Z%22%7D%7D%2C%7B%22key%22%3A%22CFMW4WHU%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22P%5Cu00e9triacq%20et%20al.%22%2C%22parsedDate%22%3A%222017%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EP%26%23xE9%3Btriacq%2C%20Pierre%2C%20Linda%20de%20Bont%2C%20Lucie%20Genestout%2C%20Jingfang%20Hao%2C%20Constance%20Laureau%2C%20Igor%20Florez-Sarasa%2C%20Touhami%20Rzigui%2C%20et%20al.%202017.%20%26%23x201C%3BPhotoperiod%20Affects%20the%20Phenotype%20of%20Mitochondrial%20Complex%20I%20Mutants.%26%23x201D%3B%20%3Ci%3EPlant%20Physiology%3C%5C%2Fi%3E%20173%20%281%29%3A%20434%26%23x2013%3B55.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1104%5C%2Fpp.16.01484%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1104%5C%2Fpp.16.01484%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Photoperiod%20Affects%20the%20Phenotype%20of%20Mitochondrial%20Complex%20I%20Mutants%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Pierre%22%2C%22lastName%22%3A%22P%5Cu00e9triacq%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Linda%22%2C%22lastName%22%3A%22de%20Bont%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Lucie%22%2C%22lastName%22%3A%22Genestout%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jingfang%22%2C%22lastName%22%3A%22Hao%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Constance%22%2C%22lastName%22%3A%22Laureau%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Igor%22%2C%22lastName%22%3A%22Florez-Sarasa%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Touhami%22%2C%22lastName%22%3A%22Rzigui%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Guillaume%22%2C%22lastName%22%3A%22Queval%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fran%5Cu00e7oise%22%2C%22lastName%22%3A%22Gilard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Caroline%22%2C%22lastName%22%3A%22Mauve%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Florence%22%2C%22lastName%22%3A%22Gu%5Cu00e9rard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Marl%5Cu00e8ne%22%2C%22lastName%22%3A%22Lamothe-Sibold%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jessica%22%2C%22lastName%22%3A%22Marion%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Chantal%22%2C%22lastName%22%3A%22Fresneau%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Spencer%22%2C%22lastName%22%3A%22Brown%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Antoine%22%2C%22lastName%22%3A%22Danon%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Anja%22%2C%22lastName%22%3A%22Krieger-Liszkay%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Richard%22%2C%22lastName%22%3A%22Berthom%5Cu00e9%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Miquel%22%2C%22lastName%22%3A%22Ribas-Carbo%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Guillaume%22%2C%22lastName%22%3A%22Tcherkez%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Gabriel%22%2C%22lastName%22%3A%22Cornic%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Bernard%22%2C%22lastName%22%3A%22Pineau%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Bertrand%22%2C%22lastName%22%3A%22Gaki%5Cu00e8re%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Rosine%22%2C%22lastName%22%3A%22De%20Paepe%22%7D%5D%2C%22abstractNote%22%3A%22%22%2C%22date%22%3A%2201%5C%2F2017%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1104%5C%2Fpp.16.01484%22%2C%22ISSN%22%3A%220032-0889%2C%201532-2548%22%2C%22url%22%3A%22http%3A%5C%2F%5C%2Fwww.plantphysiol.org%5C%2Flookup%5C%2Fdoi%5C%2F10.1104%5C%2Fpp.16.01484%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222018-03-22T11%3A38%3A28Z%22%7D%7D%2C%7B%22key%22%3A%227REH7RF2%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Dubois%20et%20al.%22%2C%22parsedDate%22%3A%222017%22%2C%22numChildren%22%3A5%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EDubois%2C%20Emeline%2C%20Nathalie%20Mathy%2C%20Vinciane%20R%26%23xE9%3Bgnier%2C%20Julien%20Bischerour%2C%20C%26%23xE9%3Bline%20Baudry%2C%20Rapha%26%23xEB%3Blle%20Trouslard%2C%20and%20Mireille%20B%26%23xE9%3Btermier.%202017.%20%26%23x201C%3BMultimerization%20Properties%20of%20PiggyMac%2C%20a%20Domesticated%20PiggyBac%20Transposase%20Involved%20in%20Programmed%20Genome%20Rearrangements.%26%23x201D%3B%20%3Ci%3ENucleic%20Acids%20Research%3C%5C%2Fi%3E%2045%20%286%29%3A%203204%26%23x2013%3B16.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fnar%5C%2Fgkw1359%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fnar%5C%2Fgkw1359%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Multimerization%20properties%20of%20PiggyMac%2C%20a%20domesticated%20piggyBac%20transposase%20involved%20in%20programmed%20genome%20rearrangements%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Emeline%22%2C%22lastName%22%3A%22Dubois%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Nathalie%22%2C%22lastName%22%3A%22Mathy%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Vinciane%22%2C%22lastName%22%3A%22R%5Cu00e9gnier%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Julien%22%2C%22lastName%22%3A%22Bischerour%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9line%22%2C%22lastName%22%3A%22Baudry%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Rapha%5Cu00eblle%22%2C%22lastName%22%3A%22Trouslard%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Mireille%22%2C%22lastName%22%3A%22B%5Cu00e9termier%22%7D%5D%2C%22abstractNote%22%3A%22During%20sexual%20processes%2C%20the%20ciliate%20Paramecium%20eliminates%2025%5Cu201330%25%20of%20germline%20DNA%20from%20its%20somatic%20genome.%20DNA%20elimination%20includes%20excision%20of%20%5Cu223c45%20000%20short%2C%20single-copy%20internal%20eliminated%20sequences%20%28IESs%29%20and%20depends%20upon%20PiggyMac%20%28Pgm%29%2C%20a%20domesticated%20piggyBac%20transposase%20that%20is%20essential%20for%20DNA%20cleavage%20at%20IES%20ends.%20Pgm%20carries%20a%20core%20transposase%20region%20with%20a%20putative%20catalytic%20domain%20containing%20three%20conserved%20aspartic%20acids%2C%20and%20a%20downstream%20cysteine-rich%20%28CR%29%20domain.%20A%20C-terminal%20extension%20of%20unknown%20function%20is%20predicted%20to%20adopt%20a%20coiled-coil%20%28CC%29%20structure.%20To%20address%20the%20role%20of%20the%20three%20domains%2C%20we%20designed%20an%20in%20vivo%20complementation%20assay%20by%20expressing%20wild-type%20or%20mutant%20Pgm-GFP%20fusions%20in%20cells%20depleted%20for%20their%20endogenous%20Pgm.%20The%20DDD%20triad%20and%20the%20CR%20domain%20are%20essential%20for%20Pgm%20activity%20and%20mutations%20in%20either%20domain%20have%20a%20dominant-negative%20effect%20in%20wild-type%20cells.%20A%20mutant%20lacking%20the%20CC%20domain%20is%20partially%20active%20in%20the%20presence%20of%20limiting%20Pgm%20amounts%2C%20but%20inactive%20when%20Pgm%20is%20completely%20absent%2C%20suggesting%20that%20presence%20of%20the%20mutant%20protein%20increases%20the%20overall%20number%20of%20active%20complexes.%20We%20conclude%20that%20IES%20excision%20involves%20multiple%20Pgm%20subunits%2C%20of%20which%20at%20least%20a%20fraction%20must%20contain%20the%20CC%20domain.%22%2C%22date%22%3A%222017%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1093%5C%2Fnar%5C%2Fgkw1359%22%2C%22ISSN%22%3A%220305-1048%22%2C%22url%22%3A%22https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Fnar%5C%2Fgkw1359%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222021-03-16T16%3A01%3A12Z%22%7D%7D%2C%7B%22key%22%3A%22IQSPKA5Q%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Chaintreuil%20et%20al.%22%2C%22parsedDate%22%3A%222016-08%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EChaintreuil%2C%20Cl%26%23xE9%3Bmence%2C%20Djamel%20Gully%2C%20Catherine%20Hervouet%2C%20Panlada%20Tittabutr%2C%20Herizo%20Randriambanona%2C%20Spencer%20C.%20Brown%2C%20Gwilym%20P.%20Lewis%2C%20et%20al.%202016.%20%26%23x201C%3BThe%20Evolutionary%20Dynamics%20of%20Ancient%20and%20Recent%20Polyploidy%20in%20the%20African%20Semiaquatic%20Species%20of%20the%20Legume%20Genus%20Aeschynomene.%26%23x201D%3B%20%3Ci%3EThe%20New%20Phytologist%3C%5C%2Fi%3E%20211%20%283%29%3A%201077%26%23x2013%3B91.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1111%5C%2Fnph.13956%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1111%5C%2Fnph.13956%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22The%20evolutionary%20dynamics%20of%20ancient%20and%20recent%20polyploidy%20in%20the%20African%20semiaquatic%20species%20of%20the%20legume%20genus%20Aeschynomene%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Cl%5Cu00e9mence%22%2C%22lastName%22%3A%22Chaintreuil%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Djamel%22%2C%22lastName%22%3A%22Gully%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Catherine%22%2C%22lastName%22%3A%22Hervouet%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Panlada%22%2C%22lastName%22%3A%22Tittabutr%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Herizo%22%2C%22lastName%22%3A%22Randriambanona%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Spencer%20C.%22%2C%22lastName%22%3A%22Brown%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Gwilym%20P.%22%2C%22lastName%22%3A%22Lewis%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Micka%5Cu00ebl%22%2C%22lastName%22%3A%22Bourge%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fabienne%22%2C%22lastName%22%3A%22Cartieaux%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Marc%22%2C%22lastName%22%3A%22Boursot%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Heriniaina%22%2C%22lastName%22%3A%22Ramanankierana%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Ang%5Cu00e9lique%22%2C%22lastName%22%3A%22D%27Hont%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Neung%22%2C%22lastName%22%3A%22Teaumroong%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Eric%22%2C%22lastName%22%3A%22Giraud%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jean-Fran%5Cu00e7ois%22%2C%22lastName%22%3A%22Arrighi%22%7D%5D%2C%22abstractNote%22%3A%22The%20legume%20genus%20Aeschynomene%20is%20notable%20in%20the%20ability%20of%20certain%20semiaquatic%20species%20to%20develop%20nitrogen-fixing%20stem%20nodules.%20These%20species%20are%20distributed%20in%20two%20clades.%20In%20the%20first%20clade%2C%20all%20the%20species%20are%20characterized%20by%20the%20use%20of%20a%20unique%20Nod-independent%20symbiotic%20process.%20In%20the%20second%20clade%2C%20the%20species%20use%20a%20Nod-dependent%20symbiotic%20process%20and%20some%20of%20them%20display%20a%20profuse%20stem%20nodulation%20as%20exemplified%20in%20the%20African%20Aeschynomene%5Cu00a0afraspera.%20To%20facilitate%20the%20molecular%20analysis%20of%20the%20symbiotic%20characteristics%20of%20such%20legumes%2C%20we%20took%20an%20integrated%20molecular%20and%20cytogenetic%20approach%20to%20track%20occurrences%20of%20polyploidy%20events%20and%20to%20analyze%20their%20impact%20on%20the%20evolution%20of%20the%20African%20species%20of%20Aeschynomene.%20Our%20results%20revealed%20two%20rounds%20of%20polyploidy%3A%20a%20paleopolyploid%20event%20predating%20the%20African%20group%20and%20two%20neopolyploid%20speciations%2C%20along%20with%20significant%20chromosomal%20variations.%20Hence%2C%20we%20found%20that%20A.%5Cu00a0afraspera%20%288x%29%20has%20inherited%20the%20contrasted%20genomic%20properties%20and%20the%20stem-nodulation%20habit%20of%20its%20parental%20lineages%20%284x%29.%20This%20study%20reveals%20a%20comprehensive%20picture%20of%20African%20Aeschynomene%20diversification.%20It%20notably%20evidences%20a%20history%20that%20is%20distinct%20from%20the%20diploid%20Nod-independent%20clade%2C%20providing%20clues%20for%20the%20identification%20of%20the%20specific%20determinants%20of%20the%20Nod-dependent%20and%20Nod-independent%20symbiotic%20processes%2C%20and%20for%20comparative%20analysis%20of%20stem%20nodulation.%22%2C%22date%22%3A%22Aug%202016%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1111%5C%2Fnph.13956%22%2C%22ISSN%22%3A%221469-8137%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222018-03-22T11%3A45%3A14Z%22%7D%7D%2C%7B%22key%22%3A%22ERMHTRD5%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Galli%20et%20al.%22%2C%22parsedDate%22%3A%222016-06-27%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EGalli%2C%20Elisa%2C%20Micka%26%23xEB%3Bl%20Poidevin%2C%20Romain%20Le%20Bars%2C%20Jean-Michel%20Desfontaines%2C%20Leila%20Muresan%2C%20Evelyne%20Paly%2C%20Yoshiharu%20Yamaichi%2C%20and%20Fran%26%23xE7%3Bois-Xavier%20Barre.%202016.%20%26%23x201C%3BCell%20Division%20Licensing%20in%20the%20Multi-Chromosomal%20Vibrio%20Cholerae%20Bacterium.%26%23x201D%3B%20%3Ci%3ENature%20Microbiology%3C%5C%2Fi%3E%201%20%289%29%3A%2016094.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1038%5C%2Fnmicrobiol.2016.94%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1038%5C%2Fnmicrobiol.2016.94%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Cell%20division%20licensing%20in%20the%20multi-chromosomal%20Vibrio%20cholerae%20bacterium%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Elisa%22%2C%22lastName%22%3A%22Galli%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Micka%5Cu00ebl%22%2C%22lastName%22%3A%22Poidevin%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Romain%22%2C%22lastName%22%3A%22Le%20Bars%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Jean-Michel%22%2C%22lastName%22%3A%22Desfontaines%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Leila%22%2C%22lastName%22%3A%22Muresan%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Evelyne%22%2C%22lastName%22%3A%22Paly%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Yoshiharu%22%2C%22lastName%22%3A%22Yamaichi%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fran%5Cu00e7ois-Xavier%22%2C%22lastName%22%3A%22Barre%22%7D%5D%2C%22abstractNote%22%3A%22%22%2C%22date%22%3A%222016-6-27%22%2C%22language%22%3A%22%22%2C%22DOI%22%3A%2210.1038%5C%2Fnmicrobiol.2016.94%22%2C%22ISSN%22%3A%222058-5276%22%2C%22url%22%3A%22http%3A%5C%2F%5C%2Fwww.nature.com%5C%2Farticles%5C%2Fnmicrobiol201694%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222019-04-17T13%3A28%3A54Z%22%7D%7D%2C%7B%22key%22%3A%22HP7QXIB9%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Hajrudinovi%5Cu0107%20et%20al.%22%2C%22parsedDate%22%3A%222015-08%22%2C%22numChildren%22%3A2%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EHajrudinovi%26%23x107%3B%2C%20Alma%2C%20Sonja%20Siljak-Yakovlev%2C%20Spencer%20C.%20Brown%2C%20Fatima%20Pustahija%2C%20Mickael%20Bourge%2C%20Dalibor%20Ballian%2C%20and%20Faruk%20Boguni%26%23x107%3B.%202015.%20%26%23x201C%3BWhen%20Sexual%20Meets%20Apomict%3A%20Genome%20Size%2C%20Ploidy%20Level%20and%20Reproductive%20Mode%20Variation%20of%20Sorbus%20Aria%20s.l.%20and%20S.%20Austriaca%20%28Rosaceae%29%20in%20Bosnia%20and%20Herzegovina.%26%23x201D%3B%20%3Ci%3EAnnals%20of%20Botany%3C%5C%2Fi%3E%20116%20%282%29%3A%20301%26%23x2013%3B12.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Faob%5C%2Fmcv093%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1093%5C%2Faob%5C%2Fmcv093%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22When%20sexual%20meets%20apomict%3A%20genome%20size%2C%20ploidy%20level%20and%20reproductive%20mode%20variation%20of%20Sorbus%20aria%20s.l.%20and%20S.%20austriaca%20%28Rosaceae%29%20in%20Bosnia%20and%20Herzegovina%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Alma%22%2C%22lastName%22%3A%22Hajrudinovi%5Cu0107%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Sonja%22%2C%22lastName%22%3A%22Siljak-Yakovlev%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Spencer%20C.%22%2C%22lastName%22%3A%22Brown%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fatima%22%2C%22lastName%22%3A%22Pustahija%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Mickael%22%2C%22lastName%22%3A%22Bourge%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Dalibor%22%2C%22lastName%22%3A%22Ballian%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Faruk%22%2C%22lastName%22%3A%22Boguni%5Cu0107%22%7D%5D%2C%22abstractNote%22%3A%22BACKGROUND%20AND%20AIMS%3A%20Allopolyploidy%20and%20intraspecific%20heteroploid%20crosses%20are%20associated%2C%20in%20certain%20groups%2C%20with%20changes%20in%20the%20mating%20system.%20The%20genus%20Sorbus%20represents%20an%20appropriate%20model%20to%20study%20the%20relationships%20between%20ploidy%20and%20reproductive%20mode%20variations.%20Diploid%20S.%20aria%20and%20tetraploid%20apomictic%20S.%20austriaca%20were%20screened%20for%20ploidy%20and%20mating%20system%20variations%20within%20pure%20and%20sympatric%20populations%20in%20order%20to%20gain%20insights%20into%20their%20putative%20causalities.%5CnMETHODS%3A%20Flow%20cytometry%20was%20used%20to%20assess%20genome%20size%20and%20ploidy%20level%20among%20380%20S.%20aria%20s.l.%20and%20S.%20austriaca%20individuals%20from%20Bosnia%20and%20Herzegovina%2C%20with%20303%20single-seed%20flow%20cytometric%20seed%20screenings%20being%20performed%20to%20identify%20their%20mating%20system.%20Pollen%20viability%20and%20seed%20set%20were%20also%20determined.%5CnKEY%20RESULTS%3A%20Flow%20cytometry%20confirmed%20the%20presence%20of%20di-%2C%20tri-%20and%20tetraploid%20cytotype%20mixtures%20in%20mixed-ploidy%20populations%20of%20S.%20aria%20and%20S.%20austriaca.%20No%20ploidy%20variation%20was%20detected%20in%20single-species%20populations.%20Diploid%20S.%20aria%20mother%20plants%20always%20produced%20sexually%20originated%20seeds%2C%20whereas%20tetraploid%20S.%20austriaca%20as%20well%20as%20triploid%20S.%20aria%20were%20obligate%20apomicts.%20Tetraploid%20S.%20aria%20preserved%20sexuality%20in%20a%20low%20portion%20of%20plants.%20A%20tendency%20towards%20a%20balanced%202m%5Cu2009%3A%5Cu20091p%20parental%20genome%20contribution%20to%20the%20endosperm%20was%20shared%20by%20diploids%20and%20tetraploids%2C%20regardless%20of%20their%20sexual%20or%20asexual%20origin.%20In%20contrast%2C%20most%20triploids%20apparently%20tolerated%20endosperm%20imbalance.%5CnCONCLUSIONS%3A%20Coexistence%20of%20apomictic%20tetraploids%20and%20sexual%20diploids%20drives%20the%20production%20of%20novel%20polyploid%20cytotypes%20with%20predominantly%20apomictic%20reproductive%20modes.%20The%20data%20suggest%20that%20processes%20governing%20cytotype%20diversity%20and%20mating%20system%20variation%20in%20Sorbus%20from%20Bosnia%20and%20Herzegovina%20are%20probably%20parallel%20to%20those%20in%20other%20diversity%20hotspots%20of%20this%20genus.%20The%20results%20represent%20a%20solid%20contribution%20to%20knowledge%20of%20the%20reproduction%20of%20Sorbus%20and%20will%20inform%20future%20investigations%20of%20the%20molecular%20and%20genetic%20mechanisms%20involved%20in%20triggering%20and%20regulating%20cytotype%20diversity%20and%20alteration%20of%20reproductive%20modes.%22%2C%22date%22%3A%22Aug%202015%22%2C%22language%22%3A%22eng%22%2C%22DOI%22%3A%2210.1093%5C%2Faob%5C%2Fmcv093%22%2C%22ISSN%22%3A%221095-8290%22%2C%22url%22%3A%22%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222018-03-22T11%3A48%3A52Z%22%7D%7D%2C%7B%22key%22%3A%22EXA287B8%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Bourbousse%20et%20al.%22%2C%22parsedDate%22%3A%222015-05-26%22%2C%22numChildren%22%3A0%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EBourbousse%2C%20Clara%2C%20Imen%20Mestiri%2C%20Gerald%20Zabulon%2C%20Micka%26%23xEB%3Bl%20Bourge%2C%20Fabio%20Formiggini%2C%20Maria%20A.%20Koini%2C%20Spencer%20C.%20Brown%2C%20Paul%20Fransz%2C%20Chris%20Bowler%2C%20and%20Fredy%20Barneche.%202015.%20%26%23x201C%3BLight%20Signaling%20Controls%20Nuclear%20Architecture%20Reorganization%20during%20Seedling%20Establishment.%26%23x201D%3B%20%3Ci%3EProceedings%20of%20the%20National%20Academy%20of%20Sciences%3C%5C%2Fi%3E%20112%20%2821%29%3A%20E2836%26%23x2013%3B44.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1073%5C%2Fpnas.1503512112%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1073%5C%2Fpnas.1503512112%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22Light%20signaling%20controls%20nuclear%20architecture%20reorganization%20during%20seedling%20establishment%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Clara%22%2C%22lastName%22%3A%22Bourbousse%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Imen%22%2C%22lastName%22%3A%22Mestiri%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Gerald%22%2C%22lastName%22%3A%22Zabulon%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Micka%5Cu00ebl%22%2C%22lastName%22%3A%22Bourge%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fabio%22%2C%22lastName%22%3A%22Formiggini%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Maria%20A.%22%2C%22lastName%22%3A%22Koini%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Spencer%20C.%22%2C%22lastName%22%3A%22Brown%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Paul%22%2C%22lastName%22%3A%22Fransz%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Chris%22%2C%22lastName%22%3A%22Bowler%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Fredy%22%2C%22lastName%22%3A%22Barneche%22%7D%5D%2C%22abstractNote%22%3A%22%22%2C%22date%22%3A%222015-05-26%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1073%5C%2Fpnas.1503512112%22%2C%22ISSN%22%3A%220027-8424%2C%201091-6490%22%2C%22url%22%3A%22http%3A%5C%2F%5C%2Fwww.pnas.org%5C%2Flookup%5C%2Fdoi%5C%2F10.1073%5C%2Fpnas.1503512112%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222021-03-24T11%3A08%3A54Z%22%7D%7D%2C%7B%22key%22%3A%224GA769RW%22%2C%22library%22%3A%7B%22id%22%3A3888256%7D%2C%22meta%22%3A%7B%22creatorSummary%22%3A%22Bourge%20et%20al.%22%2C%22parsedDate%22%3A%222015%22%2C%22numChildren%22%3A4%7D%2C%22bib%22%3A%22%3Cdiv%20class%3D%5C%22csl-bib-body%5C%22%20style%3D%5C%22line-height%3A%201.35%3B%20padding-left%3A%201em%3B%20text-indent%3A-1em%3B%5C%22%3E%5Cn%20%20%3Cdiv%20class%3D%5C%22csl-entry%5C%22%3EBourge%2C%20Micka%26%23xEB%3Bl%2C%20C%26%23xE9%3Bcile%20Fort%2C%20Marie-No%26%23xEB%3Blle%20Soler%2C%20B%26%23xE9%3Batrice%20Satiat-Jeunema%26%23xEE%3Btre%2C%20and%20Spencer%20C.%20Brown.%202015.%20%26%23x201C%3BA%20Pulse-Chase%20Strategy%20Combining%20Click-EdU%20and%20Photoconvertible%20Fluorescent%20Reporter%3A%20Tracking%20Golgi%20Protein%20Dynamics%20during%20the%20Cell%20Cycle.%26%23x201D%3B%20%3Ci%3ENew%20Phytologist%3C%5C%2Fi%3E%20205%20%282%29%3A%20938%26%23x2013%3B50.%20%3Ca%20href%3D%27https%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1111%5C%2Fnph.13069%27%3Ehttps%3A%5C%2F%5C%2Fdoi.org%5C%2F10.1111%5C%2Fnph.13069%3C%5C%2Fa%3E.%3C%5C%2Fdiv%3E%5Cn%3C%5C%2Fdiv%3E%22%2C%22data%22%3A%7B%22itemType%22%3A%22journalArticle%22%2C%22title%22%3A%22A%20pulse-chase%20strategy%20combining%20click-EdU%20and%20photoconvertible%20fluorescent%20reporter%3A%20tracking%20Golgi%20protein%20dynamics%20during%20the%20cell%20cycle%22%2C%22creators%22%3A%5B%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Micka%5Cu00ebl%22%2C%22lastName%22%3A%22Bourge%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22C%5Cu00e9cile%22%2C%22lastName%22%3A%22Fort%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Marie-No%5Cu00eblle%22%2C%22lastName%22%3A%22Soler%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22B%5Cu00e9atrice%22%2C%22lastName%22%3A%22Satiat-Jeunema%5Cu00eetre%22%7D%2C%7B%22creatorType%22%3A%22author%22%2C%22firstName%22%3A%22Spencer%20C.%22%2C%22lastName%22%3A%22Brown%22%7D%5D%2C%22abstractNote%22%3A%22%22%2C%22date%22%3A%2201%5C%2F2015%22%2C%22language%22%3A%22en%22%2C%22DOI%22%3A%2210.1111%5C%2Fnph.13069%22%2C%22ISSN%22%3A%220028646X%22%2C%22url%22%3A%22http%3A%5C%2F%5C%2Fdoi.wiley.com%5C%2F10.1111%5C%2Fnph.13069%22%2C%22collections%22%3A%5B%22R7I3GKDL%22%5D%2C%22dateModified%22%3A%222018-03-15T12%3A16%3A19Z%22%7D%7D%5D%7D
Monteiro-Cardoso, Vera Filipa, Romain Le Bars, and Francesca Giordano. 2023. “Visualization and Quantification of Endogenous Intra-Organelle Protein Interactions at ER-Mitochondria Contact Sites by Proximity Ligation Assays.” Journal of Visualized Experiments: JoVE, no. 200 (October). https://doi.org/10.3791/64750.
Scrima, Nathalie, Romain Le Bars, Quentin Nevers, Damien Glon, Guillaume Chevreux, Ahmet Civas, Danielle Blondel, Cécile Lagaudrière-Gesbert, and Yves Gaudin. 2023. “Rabies Virus P Protein Binds to TBK1 and Interferes with the Formation of Innate Immunity-Related Liquid Condensates.” Cell Reports 42 (1): 111949. https://doi.org/10.1016/j.celrep.2022.111949.
Nevers, Quentin, Nathalie Scrima, Damien Glon, Romain Le Bars, Alice Decombe, Nathalie Garnier, Malika Ouldali, et al. 2022. “Properties of Rabies Virus Phosphoprotein and Nucleoprotein Biocondensates Formed in Vitro and in Cellulo.” PLOS Pathogens 18 (12): e1011022. https://doi.org/10.1371/journal.ppat.1011022.
Monteiro-Cardoso, Vera F., Leila Rochin, Amita Arora, Audrey Houcine, Eeva Jääskeläinen, Annukka M. Kivelä, Cécile Sauvanet, et al. 2022. “ORP5/8 and MIB/MICOS Link ER-Mitochondria and Intra-Mitochondrial Contacts for Non-Vesicular Transport of Phosphatidylserine.” Cell Reports 40 (12). https://doi.org/10.1016/j.celrep.2022.111364.
Borgne, Pierrick Le, Logan Greibill, Marine Hélène Laporte, Michel Lemullois, Khaled Bouhouche, Mebarek Temagoult, Olivier Rosnet, et al. 2022. “The Evolutionary Conserved Proteins CEP90, FOPNL, and OFD1 Recruit Centriolar Distal Appendage Proteins to Initiate Their Assembly.” PLOS Biology 20 (9): e3001782. https://doi.org/10.1371/journal.pbio.3001782.
Schellenbauer, Amelie, Marie-Noelle Guilly, Romain Grall, Romain Le Bars, Vincent Paget, Thierry Kortulewski, Haser Sutcu, et al. 2021. “Phospho-Ku70 Induced by DNA Damage Interacts with RNA Pol II and Promotes the Formation of Phospho-53BP1 Foci to Ensure Optimal CNHEJ.” Nucleic Acids Research, October, gkab980. https://doi.org/10.1093/nar/gkab980.
Nicoud, Quentin, Quentin Barrière, Nicolas Busset, Sara Dendene, Dmitrii Travin, Mickaël Bourge, Romain Le Bars, et al. 2021. “Sinorhizobium Meliloti Functions Required for Resistance to Antimicrobial NCR Peptides and Bacteroid Differentiation.” MBio 12 (4): e0089521. https://doi.org/10.1128/mBio.00895-21.
Nicoud, Quentin, Florian Lamouche, Anaïs Chaumeret, Thierry Balliau, Romain Le Bars, Mickaël Bourge, Fabienne Pierre, et al. 2021. “Bradyrhizobium Diazoefficiens USDA110 Nodulation of Aeschynomene Afraspera Is Associated with Atypical Terminal Bacteroid Differentiation and Suboptimal Symbiotic Efficiency.” MSystems 6 (3): e01237-20. https://doi.org/10.1128/mSystems.01237-20.
Song, Zhimin, Elodie Hudik, Romain Le Bars, Blandine Roux, Pham My-Chan Dang, Jamel El Benna, Oliver Nusse, and Sophie Dupre-Crochet. 2020. “Class I Phosphoinositide 3-Kinases Control Sustained NADPH Oxidase Activation in Adherent Neutrophils.” Biochemical Pharmacology 178 (August):114088. https://doi.org/10.1016/j.bcp.2020.114088.
Demes, Elsa, Laetitia Besse, Paloma Cubero-Font, Beatrice Satiat-Jeunemaitre, Sebastien Thomine, and Alexis De Angeli. 2020. “Dynamic Measurement of Cytosolic PH and [NO3-] Uncovers the Role of the Vacuolar Transporter AtCLCa in Cytosolic PH Homeostasis.” Proceedings of the National Academy of Sciences of the United States of America 117 (26): 15343–53. https://doi.org/10.1073/pnas.2007580117.
Abello, Arthur, Vinciane Régnier, Olivier Arnaiz, Romain Le Bars, Mireille Bétermier, and Julien Bischerour. 2020. “Functional Diversification of Paramecium Ku80 Paralogs Safeguards Genome Integrity during Precise Programmed DNA Elimination.” PLoS Genetics 16 (4): e1008723. https://doi.org/10.1371/journal.pgen.1008723.
Rochin, Leila, Cécile Sauvanet, Eeva Jääskeläinen, Audrey Houcine, Annukka Kivelä, Xingjie Ma, Eyra Marien, et al. 2020. “ORP5 Transfers Phosphatidylserine To Mitochondria And Regulates Mitochondrial Calcium Uptake At Endoplasmic Reticulum - Mitochondria Contact Sites.” BioRxiv, 695577. https://doi.org/10.1101/695577.
Boulogne, C., C. Gillet, L. Hughes, R. Le Bars, A. Canette, C. R. Hawes, and B. Satiat‐Jeunemaitre. 2020. “Functional Organisation of the Endomembrane Network in the Digestive Gland of the Venus Flytrap: Revisiting an Old Story with a New Microscopy Toolbox.” Journal of Microscopy 280 (2): 86–103. https://doi.org/https://doi.org/10.1111/jmi.12957.
Joly, Jérémy, Elodie Hudik, Sandrine Lecart, Dirk Roos, Paul Verkuijlen, Dominik Wrona, Ulrich Siler, Janine Reichenbach, Oliver Nüsse, and Sophie Dupré-Crochet. 2020. “Membrane Dynamics and Organization of the Phagocyte NADPH Oxidase in PLB-985 Cells.” Frontiers in Cell and Developmental Biology 8. https://doi.org/10.3389/fcell.2020.608600.
Le Bars, Romain, Michele W. Bianchi, and Christophe Lefebvre. 2019. “Three-Dimensional Surface Rendering of ESCRT Proteins Microscopy Data Using UCSF Chimera Software.” In The ESCRT Complexes: Methods and Protocols, edited by Emmanuel Culetto and Renaud Legouis, 149–61. Methods in Molecular Biology. New York, NY: Springer. https://doi.org/10.1007/978-1-4939-9492-2_11.
Avin-Wittenberg, Tamar, Frantisek Baluška, Peter V. Bozhkov, Pernilla H. Elander, Alisdair R. Fernie, Gad Galili, Ammar Hassan, et al. 2018. “Corrigendum: Autophagy-Related Approaches for Improving Nutrient Use Efficiency and Crop Yield Protection.” Journal of Experimental Botany 69 (12): 3173. https://doi.org/10.1093/jxb/ery113.
Avin-Wittenberg, Tamar, Frantisek Baluška, Peter V Bozhkov, Pernilla H Elander, Alisdair R Fernie, Gad Galili, Ammar Hassan, et al. 2018. “Autophagy-Related Approaches for Improving Nutrient Use Efficiency and Crop Yield Protection.” Edited by Chris Hawes. Journal of Experimental Botany 69 (6): 1335–53. https://doi.org/10.1093/jxb/ery069.
Marion, Jessica, Romain Le Bars, Laetitia Besse, Henri Batoko, and Béatrice Satiat-Jeunemaitre. 2018. “Multiscale and Multimodal Approaches to Study Autophagy in Model Plants.” Cells 7 (1): 5. https://doi.org/10.3390/cells7010005.
Nikolic, Jovan, Romain Le Bars, Zoé Lama, Nathalie Scrima, Cécile Lagaudrière-Gesbert, Yves Gaudin, and Danielle Blondel. 2017. “Negri Bodies Are Viral Factories with Properties of Liquid Organelles.” Nature Communications 8 (1): 58. https://doi.org/10.1038/s41467-017-00102-9.
Becker, Loïc, Sébastien Bellow, Vincent Carré, Gwendal Latouche, Anne Poutaraud, Didier Merdinoglu, Spencer C. Brown, Zoran G. Cerovic, and Patrick Chaimbault. 2017. “Correlative Analysis of Fluorescent Phytoalexins by Mass Spectrometry Imaging and Fluorescence Microscopy in Grapevine Leaves.” Analytical Chemistry, June. https://doi.org/10.1021/acs.analchem.7b01002.
Marion, Jessica, Romain Le Bars, Béatrice Satiat-Jeunemaitre, and Claire Boulogne. 2017. “Optimizing CLEM Protocols for Plants Cells: GMA Embedding and Cryosections as Alternatives for Preservation of GFP Fluorescence in Arabidopsis Roots.” Journal of Structural Biology 198 (3): 196–202. https://doi.org/10.1016/j.jsb.2017.03.008.
Brown, Spencer C., Mickaël Bourge, Nicolas Maunoury, Maurice Wong, Michele Wolfe Bianchi, Sandra Lepers-Andrzejewski, Pascale Besse, Sonja Siljak-Yakovlev, Michel Dron, and Béatrice Satiat-Jeunemaître. 2017. “DNA Remodeling by Strict Partial Endoreplication in Orchids, an Original Process in the Plant Kingdom.” Genome Biology and Evolution 9 (4): 1051–71. https://doi.org/10.1093/gbe/evx063.
Song, Zhi Min, Leïla Bouchab, Elodie Hudik, Romain Le Bars, Oliver Nüsse, and Sophie Dupré-Crochet. 2017. “Phosphoinositol 3-Phosphate Acts as a Timer for Reactive Oxygen Species Production in the Phagosome.” Journal of Leukocyte Biology, January, jlb.1A0716-305R. https://doi.org/10.1189/jlb.1A0716-305R.
Dambroise, Emilie, Matthieu Simion, Thomas Bourquard, Stéphanie Bouffard, Barbara Rizzi, Yan Jaszczyszyn, Mickaël Bourge, et al. 2017. “Postembryonic Fish Brain Proliferation Zones Exhibit Neuroepithelial-Type Gene Expression Profile: Features of Neuroepithelial Cells in Fish.” STEM CELLS. https://doi.org/10.1002/stem.2588.
Pétriacq, Pierre, Linda de Bont, Lucie Genestout, Jingfang Hao, Constance Laureau, Igor Florez-Sarasa, Touhami Rzigui, et al. 2017. “Photoperiod Affects the Phenotype of Mitochondrial Complex I Mutants.” Plant Physiology 173 (1): 434–55. https://doi.org/10.1104/pp.16.01484.
Dubois, Emeline, Nathalie Mathy, Vinciane Régnier, Julien Bischerour, Céline Baudry, Raphaëlle Trouslard, and Mireille Bétermier. 2017. “Multimerization Properties of PiggyMac, a Domesticated PiggyBac Transposase Involved in Programmed Genome Rearrangements.” Nucleic Acids Research 45 (6): 3204–16. https://doi.org/10.1093/nar/gkw1359.
Chaintreuil, Clémence, Djamel Gully, Catherine Hervouet, Panlada Tittabutr, Herizo Randriambanona, Spencer C. Brown, Gwilym P. Lewis, et al. 2016. “The Evolutionary Dynamics of Ancient and Recent Polyploidy in the African Semiaquatic Species of the Legume Genus Aeschynomene.” The New Phytologist 211 (3): 1077–91. https://doi.org/10.1111/nph.13956.
Galli, Elisa, Mickaël Poidevin, Romain Le Bars, Jean-Michel Desfontaines, Leila Muresan, Evelyne Paly, Yoshiharu Yamaichi, and François-Xavier Barre. 2016. “Cell Division Licensing in the Multi-Chromosomal Vibrio Cholerae Bacterium.” Nature Microbiology 1 (9): 16094. https://doi.org/10.1038/nmicrobiol.2016.94.
Hajrudinović, Alma, Sonja Siljak-Yakovlev, Spencer C. Brown, Fatima Pustahija, Mickael Bourge, Dalibor Ballian, and Faruk Bogunić. 2015. “When Sexual Meets Apomict: Genome Size, Ploidy Level and Reproductive Mode Variation of Sorbus Aria s.l. and S. Austriaca (Rosaceae) in Bosnia and Herzegovina.” Annals of Botany 116 (2): 301–12. https://doi.org/10.1093/aob/mcv093.
Bourbousse, Clara, Imen Mestiri, Gerald Zabulon, Mickaël Bourge, Fabio Formiggini, Maria A. Koini, Spencer C. Brown, Paul Fransz, Chris Bowler, and Fredy Barneche. 2015. “Light Signaling Controls Nuclear Architecture Reorganization during Seedling Establishment.” Proceedings of the National Academy of Sciences 112 (21): E2836–44. https://doi.org/10.1073/pnas.1503512112.
Bourge, Mickaël, Cécile Fort, Marie-Noëlle Soler, Béatrice Satiat-Jeunemaître, and Spencer C. Brown. 2015. “A Pulse-Chase Strategy Combining Click-EdU and Photoconvertible Fluorescent Reporter: Tracking Golgi Protein Dynamics during the Cell Cycle.” New Phytologist 205 (2): 938–50. https://doi.org/10.1111/nph.13069.
2014 - 2011
Le Bars, R., Marion, J., Satiat-Jeunemaitre, B. & Bianchi, M. W. Folding into an autophagosome. Autophagy 10, 1861–1863 (2014).
Le Bars, R., Marion, J., Le Borgne, R., Satiat-Jeunemaitre, B. & Bianchi, M. W. ATG5 defines a phagophore domain connected to the endoplasmic reticulum during autophagosome formation in plants. Nature Communications 5, 4121 (2014).
Larrieu, D., Rodriguez, R. & Britton, S. Chemical inhibition of NAT10 corrects defects of laminopathic cells. Med Sci (Paris) 30, 745–747 (2014).
Bialik, S., Pietrokovski, S. & Kimchi, A. Myosin drives autophagy in a pathway linking Atg1 to Atg9. EMBO J 30, 629–630 (2011).