Category:Energy-producing organelles

Media in category "Energy-producing organelles"

The following 53 files are in this category, out of 53 total.

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  Automated-Quantification-and-Integrative-Analysis-of-2D-and-3D-Mitochondrial-Shape-and-Network-pone.0101365.s001.ogv 5.07 MB
  
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  Automated-Quantification-and-Integrative-Analysis-of-2D-and-3D-Mitochondrial-Shape-and-Network-pone.0101365.s002.ogv 13.15 MB
  
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  Automated-Quantification-and-Integrative-Analysis-of-2D-and-3D-Mitochondrial-Shape-and-Network-pone.0101365.s003.ogv 10.88 MB
  
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  Cell-Death-in-the-Epithelia-of-the-Intestine-and-Hepatopancreas-in-Neocaridina-heteropoda-pone.0147582.s003.ogv 32.54 MB
  
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  Cell-Death-in-the-Epithelia-of-the-Intestine-and-Hepatopancreas-in-Neocaridina-heteropoda-pone.0147582.s004.ogv 25.07 MB
  
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  Cell-Death-in-the-Epithelia-of-the-Intestine-and-Hepatopancreas-in-Neocaridina-heteropoda-pone.0147582.s005.ogv 35.03 MB
  
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  Cell-Death-in-the-Epithelia-of-the-Intestine-and-Hepatopancreas-in-Neocaridina-heteropoda-pone.0147582.s006.ogv 25.83 MB
  
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  Cell-Death-in-the-Epithelia-of-the-Intestine-and-Hepatopancreas-in-Neocaridina-heteropoda-pone.0147582.s007.ogv 83.1 MB
  
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  Cell-Death-in-the-Epithelia-of-the-Intestine-and-Hepatopancreas-in-Neocaridina-heteropoda-pone.0147582.s008.ogv 10.49 MB
  
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  Characterization-of-PHB1-and-Its-Role-in-Mitochondrial-Maturation-and-Yolk-Platelet-Degradation-pone.0109152.s007.ogv 891 KB
  
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  Characterization-of-PHB1-and-Its-Role-in-Mitochondrial-Maturation-and-Yolk-Platelet-Degradation-pone.0109152.s008.ogv 569 KB
  
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  Dynamic-Modelling-of-Pathways-to-Cellular-Senescence-Reveals-Strategies-for-Targeted-Interventions-pcbi.1003728.s027.ogv 17.57 MB
  
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  IFNs-Modify-the-Proteome-of-Legionella-Containing-Vacuoles-and-Restrict-Infection-Via-IRG1-Derived-ppat.1005408.s013.ogv 264 KB
  
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  Intracellular-Cleavage-of-Amyloid--by-a-Viral-Protease-NIa-Prevents-Amyloid--Mediated-Cytotoxicity-pone.0098650.s004.ogv 209 KB
  
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  Intracellular-Cleavage-of-Amyloid--by-a-Viral-Protease-NIa-Prevents-Amyloid--Mediated-Cytotoxicity-pone.0098650.s005.ogv 241 KB
  
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  Intracellular-Cleavage-of-Amyloid--by-a-Viral-Protease-NIa-Prevents-Amyloid--Mediated-Cytotoxicity-pone.0098650.s006.ogv 210 KB
  
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  Intracellular-Cleavage-of-Amyloid--by-a-Viral-Protease-NIa-Prevents-Amyloid--Mediated-Cytotoxicity-pone.0098650.s007.ogv 136 KB
  
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  Mitochondria-Localize-to-the-Cleavage-Furrow-in-Mammalian-Cytokinesis-pone.0072886.s005.ogv 1.05 MB
  
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  Mitochondria-Localize-to-the-Cleavage-Furrow-in-Mammalian-Cytokinesis-pone.0072886.s006.ogv 971 KB
  
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  Mitochondria-Localize-to-the-Cleavage-Furrow-in-Mammalian-Cytokinesis-pone.0072886.s007.ogv 445 KB
  
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  Mitochondria-Localize-to-the-Cleavage-Furrow-in-Mammalian-Cytokinesis-pone.0072886.s008.ogv 548 KB
  
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  Mitochondrial-Structure-Function-and-Dynamics-Are-Temporally-Controlled-by-c-Myc-pone.0037699.s005.ogv 7.44 MB
  
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  Modes-of-Metabolic-Compensation-during-Mitochondrial-Disease-Using-the-Drosophila-Model-of-ATP6-pone.0025823.s001.ogv 217 KB
  
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  Modes-of-Metabolic-Compensation-during-Mitochondrial-Disease-Using-the-Drosophila-Model-of-ATP6-pone.0025823.s002.ogv 636 KB
  
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  Modes-of-Metabolic-Compensation-during-Mitochondrial-Disease-Using-the-Drosophila-Model-of-ATP6-pone.0025823.s003.ogv 222 KB
  
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  Modes-of-Metabolic-Compensation-during-Mitochondrial-Disease-Using-the-Drosophila-Model-of-ATP6-pone.0025823.s004.ogv 130 KB
  
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  Modes-of-Metabolic-Compensation-during-Mitochondrial-Disease-Using-the-Drosophila-Model-of-ATP6-pone.0025823.s005.ogv 584 KB
  
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  Modes-of-Metabolic-Compensation-during-Mitochondrial-Disease-Using-the-Drosophila-Model-of-ATP6-pone.0025823.s006.ogv 227 KB
  
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  Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s002.ogv 1.46 MB
  
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  Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s003.ogv 1.96 MB
  
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  Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s004.ogv 1.43 MB
  
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  Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s005.ogv 2.51 MB
  
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  Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s006.ogv 1.56 MB
  
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  Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s007.ogv 1.66 MB
  
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  Morphological-Diversity-of-the-Rod-Spherule-A-Study-of-Serially-Reconstructed-Electron-Micrographs-pone.0150024.s008.ogv 1.54 MB
  
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  SCaMC-1Like-a-Member-of-the-Mitochondrial-Carrier-(MC)-Family-Preferentially-Expressed-in-Testis-pone.0040470.s009.ogv 566 KB
  
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  Selective-Ion-Changes-during-Spontaneous-Mitochondrial-Transients-in-Intact-Astrocytes-pone.0028505.s006.ogv 58 KB
  
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  Self-Sustained-Oscillatory-Sliding-Movement-of-Doublet-Microtubules-and-Flagellar-Bend-Formation-pone.0148880.s001.ogv 28 KB
  
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  Self-Sustained-Oscillatory-Sliding-Movement-of-Doublet-Microtubules-and-Flagellar-Bend-Formation-pone.0148880.s002.ogv 100 KB
  
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  Self-Sustained-Oscillatory-Sliding-Movement-of-Doublet-Microtubules-and-Flagellar-Bend-Formation-pone.0148880.s003.ogv 96 KB
  
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  Self-Sustained-Oscillatory-Sliding-Movement-of-Doublet-Microtubules-and-Flagellar-Bend-Formation-pone.0148880.s004.ogv 184 KB
  
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  Self-Sustained-Oscillatory-Sliding-Movement-of-Doublet-Microtubules-and-Flagellar-Bend-Formation-pone.0148880.s005.ogv 65 KB
  
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  St-Johns-Wort-(Hypericum-perforatum-L.)-Photomedicine-Hypericin-Photodynamic-Therapy-Induces-pone.0103762.s004.ogv 5.02 MB
  
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  St-Johns-Wort-(Hypericum-perforatum-L.)-Photomedicine-Hypericin-Photodynamic-Therapy-Induces-pone.0103762.s005.ogv 6.73 MB
  
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  The-Acute-Phase-of-Experimental-Cardiogenic-Shock-Is-Counteracted-by-Microcirculatory-and-pone.0105213.s002.ogv 11.29 MB
  
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  The-Acute-Phase-of-Experimental-Cardiogenic-Shock-Is-Counteracted-by-Microcirculatory-and-pone.0105213.s003.ogv 2.17 MB
  
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  The-Non-Canonical-WntPKC-Pathway-Regulates-Mitochondrial-Dynamics-through-Degradation-of-the-Arm-pone.0067773.s008.ogv 167 KB
  
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  The-Non-Canonical-WntPKC-Pathway-Regulates-Mitochondrial-Dynamics-through-Degradation-of-the-Arm-pone.0067773.s009.ogv 75 KB
  
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  The-Non-Canonical-WntPKC-Pathway-Regulates-Mitochondrial-Dynamics-through-Degradation-of-the-Arm-pone.0067773.s010.ogv 57 KB
  
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  The-Non-Canonical-WntPKC-Pathway-Regulates-Mitochondrial-Dynamics-through-Degradation-of-the-Arm-pone.0067773.s011.ogv 45 KB
  
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  Usage-of-a-Localised-Microflow-Device-to-Show-that-Mitochondrial-Networks-Are-Not-Extensive-in-pone.0108601.s001.ogv 3.76 MB
  
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  Usage-of-a-Localised-Microflow-Device-to-Show-that-Mitochondrial-Networks-Are-Not-Extensive-in-pone.0108601.s002.ogv 5.97 MB
  
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  Usage-of-a-Localised-Microflow-Device-to-Show-that-Mitochondrial-Networks-Are-Not-Extensive-in-pone.0108601.s003.ogv 2.22 MB