Learning the Languages of the Chloroplast: Retrograde Signaling and Beyond.
about
Redox- and Reactive Oxygen Species-Dependent Signaling into and out of the Photosynthesizing ChloroplastGUN1, a Jack-Of-All-Trades in Chloroplast Protein Homeostasis and SignalingTetrapyrrole Signaling in PlantsCharacterization of a novel β-barrel protein (AtOM47) from the mitochondrial outer membrane of Arabidopsis thaliana.Plastid osmotic stress influences cell differentiation at the plant shoot apex.A chloroplast retrograde signal, 3'-phosphoadenosine 5'-phosphate, acts as a secondary messenger in abscisic acid signaling in stomatal closure and germination.Acceleration of leaf senescence is slowed down in transgenic barley plants deficient in the DNA/RNA-binding protein WHIRLY1.Transcriptome and proteomic analyses reveal multiple differences associated with chloroplast development in the spaceflight-induced wheat albino mutant mta.The xantha Marker Trait Is Associated with Altered Tetrapyrrole Biosynthesis and Deregulated Transcription of PhANGs in Rice.Genome-wide mapping of DNase I hypersensitive sites reveals chromatin accessibility changes in Arabidopsis euchromatin and heterochromatin regions under extended darkness.Chloroplast Redox Status Modulates Genome-Wide Plant Responses during the Non-host Interaction of Tobacco with the Hemibiotrophic Bacterium Xanthomonas campestris pv. vesicatoria.An evolutionary view on thylakoid protein phosphorylation uncovers novel phosphorylation hotspots with potential functional implications.Chloroplast proteome response to drought stress and recovery in tomato (Solanum lycopersicum L.).Stress-responsive pathways and small RNA changes distinguish variable developmental phenotypes caused by MSH1 loss.Sensing and signaling of oxidative stress in chloroplasts by inactivation of the SAL1 phosphoadenosine phosphataseSinglet oxygen initiates a plastid signal controlling photosynthetic gene expression.Ectopic expression of a cyanobacterial flavodoxin in creeping bentgrass impacts plant development and confers broad abiotic stress tolerance.The redox-sensitive module of cyclophilin 20-3, 2-cysteine peroxiredoxin and cysteine synthase integrates sulfur metabolism and oxylipin signaling in the high light acclimation response.Transcriptional control of photosynthetic capacity: conservation and divergence from Arabidopsis to rice.Plastid-Nucleus Distance Alters the Behavior of Stromules.Rapid recovery gene downregulation during excess-light stress and recovery in Arabidopsis.Novel connections in plant organellar signalling link different stress responses and signalling pathways.Chloroplast Activity and 3'phosphadenosine 5'phosphate Signaling Regulate Programmed Cell Death in Arabidopsis.Chloroplast quality control - balancing energy production and stress.The discovery of plastid-to-nucleus retrograde signaling-a personal perspective.Ubiquitin-Proteasome-Dependent Regulation of Bidirectional Communication between Plastids and the Nucleus.Chloroplast function and ion regulation in plants growing on saline soils: lessons from halophytes.Retrograde signalling caused by heritable mitochondrial dysfunction is partially mediated by ANAC017 and improves plant performance.Functional Disruption of a Chloroplast Pseudouridine Synthase Desensitizes Arabidopsis Plants to Phosphate Starvation.ATHB17 enhances stress tolerance by coordinating photosynthesis associated nuclear gene and ATSIG5 expression in response to abiotic stressA chloroplast thylakoid lumen protein is required for proper photosynthetic acclimation of plants under fluctuating light environments.Interference with plastome gene expression and Clp protease activity in Arabidopsis triggers a chloroplast unfolded protein response to restore protein homeostasisCHLH/GUN5 Function in Tetrapyrrole Metabolism Is Correlated with Plastid Signaling but not ABA Responses in Guard Cells.The significance of glutathione and ascorbate in modulating the retrograde high light response in Arabidopsis thaliana leaves.Uncoupling High Light Responses from Singlet Oxygen Retrograde Signaling and Spatial-Temporal Systemic Acquired Acclimation.Chloroplast signaling and quality control.Plant evolution: landmarks on the path to terrestrial life.Light and Plastid Signals Regulate Different Sets of Genes in the Albino Mutant Pap7-1.The Arabidopsis DNA Methylome Is Stable under Transgenerational Drought Stress.Seedlings Lacking the PTM Protein Do Not Show a genomes uncoupled (gun) Mutant Phenotype.
P2860
Q26743675-1F4BFDA7-EAA2-4A50-9EF9-EBB871B12FDEQ28071720-B6D5DD62-DB96-4291-9157-67FC323395A1Q28077995-D11BCD27-AA4E-4AD5-8399-4FA342E80448Q30152703-E0E95B2B-2D4B-42A1-8CD6-BA3518818846Q33363666-D008C002-F06F-44AD-BD28-F4823D2CBEBFQ33606717-0B5F215F-2200-4762-9B56-ABD585EABA46Q33719561-98126570-41B3-4A82-B584-ED4BF6553EB0Q33725122-0DBCC99D-8EBD-4893-B616-10C3E2A6F4B1Q33740682-03C9234C-88D9-4255-901B-14C77FCF571AQ33826338-CE29FC27-2637-4091-AA1F-A777B31FDD0CQ33867144-5ACF5660-4475-4978-9008-2585980D4ABDQ36000035-051CE1C3-4E5D-4D33-9839-2115C1F52D40Q36276056-56A355DB-B190-44D2-8D9B-612967FC8833Q36285545-26F5F733-DAE1-46DC-943B-147D0CBB71F2Q37161657-2B027D11-6312-4E00-8B62-36A549A03263Q37593725-4FB61192-1C62-45C4-A7FD-8DCF58B7778EQ37716895-A95067FE-50D6-4AC4-A575-4F3C284A806EQ38432125-CAACC5E7-17FC-4C53-94E4-D200F7E64FB9Q38654500-3147ED7B-FCF0-4D2F-A2AC-22770118AB57Q38668972-388F5B7D-2330-4D74-9279-FEE7C967B8E4Q38680107-D3B31DEA-9C72-4953-8503-E6C3C941A7D2Q38800331-E86C953F-C2A8-497D-B31D-4E7620A3DED4Q38923712-F1F579A9-0720-4955-9C8B-254045A4068EQ38929963-8DB40F6A-BD9D-4F67-8960-5AE92137E284Q39197845-56051DBA-7B56-4E77-8D16-FF053B217DD8Q39210025-55ECE5C8-4C59-4D76-9398-DA4A14544C8AQ39284059-6D76A1AC-4CB5-4908-A288-56A4F9CA7D4FQ39593754-EE8ED71C-65F4-4FAA-9E53-86220132D860Q41439066-59ECF44B-C97B-41B5-8EE1-514F9C664B34Q42245800-DFFE650A-3101-48A8-AADC-6C5FA6E8F3CEQ42365229-0F4D8B86-DB8A-45C5-AE3C-916FA71AC63AQ42370270-D6078AA7-5938-4634-A9B1-FC4C45FE4435Q42373180-5F4336B0-EBCE-4B0C-87B9-C0790650DE42Q46293075-70A30A2A-2EE7-43D2-A5A8-67E732228878Q46534171-1F8B8643-EB0A-470E-B347-1A64A70F7CE1Q47259613-2E8F6D26-927D-4AF8-851E-6982B93CAB2FQ47723657-647F2CFE-ED58-49B6-BD03-4A9438F4E10FQ47764362-175F58E5-64EC-4B15-A440-D72EDFBF6AB4Q47854281-E5875388-561B-4EDE-BFA5-4BFD3E5E3355Q48143367-BB0C1E11-8B4B-4AD6-82E3-9E6E3756D78B
P2860
Learning the Languages of the Chloroplast: Retrograde Signaling and Beyond.
description
2015 nî lūn-bûn
@nan
2015年の論文
@ja
2015年学术文章
@wuu
2015年学术文章
@zh-cn
2015年学术文章
@zh-hans
2015年学术文章
@zh-my
2015年学术文章
@zh-sg
2015年學術文章
@yue
2015年學術文章
@zh
2015年學術文章
@zh-hant
name
Learning the Languages of the Chloroplast: Retrograde Signaling and Beyond.
@en
type
label
Learning the Languages of the Chloroplast: Retrograde Signaling and Beyond.
@en
prefLabel
Learning the Languages of the Chloroplast: Retrograde Signaling and Beyond.
@en
P50
P1476
Learning the Languages of the Chloroplast: Retrograde Signaling and Beyond.
@en
P2093
Peter Crisp
P356
10.1146/ANNUREV-ARPLANT-043015-111854
P577
2015-12-21T00:00:00Z