Category:Reactive oxygen species

Media in category "Reactive oxygen species"

The following 117 files are in this category, out of 117 total.

• A-high-throughput-chemically-induced-inflammation-assay-in-zebrafish-1741-7007-8-151-S2.ogv 14 s, 1,300 × 1,030; 1.43 MB
  
• A-high-throughput-chemically-induced-inflammation-assay-in-zebrafish-1741-7007-8-151-S3.ogv 15 s, 512 × 512; 978 KB
  
• A-Reaction-Diffusion-Model-of-ROS-Induced-ROS-Release-in-a-Mitochondrial-Network-pcbi.1000657.s004.ogv 1.9 s, 324 × 120; 1.32 MB
  
• A-Reaction-Diffusion-Model-of-ROS-Induced-ROS-Release-in-a-Mitochondrial-Network-pcbi.1000657.s005.ogv 1.6 s, 316 × 134; 1.11 MB
  
• A-Reaction-Diffusion-Model-of-ROS-Induced-ROS-Release-in-a-Mitochondrial-Network-pcbi.1000657.s006.ogv 1 min 38 s, 472 × 136; 13.17 MB
  
• A-Reaction-Diffusion-Model-of-ROS-Induced-ROS-Release-in-a-Mitochondrial-Network-pcbi.1000657.s007.ogv 29 s, 472 × 136; 3.67 MB
  
• 
  AgeingDw001.png 2,173 × 1,694; 530 KB
  
• Antifungal-Activity-and-Action-Mechanism-of-Histatin-5-Halocidin-Hybrid-Peptides-against-Candida-ssp-pone.0150196.s002.ogv 10 s, 595 × 593; 623 KB
  
• Caspase-Dependent-Programmed-Cell-Death-in-Developing-Embryos-A-Potential-Target-for-Therapeutic-pntd.0001306.s004.ogv 30 s, 320 × 240; 5.71 MB
  
• Caspase-Dependent-Programmed-Cell-Death-in-Developing-Embryos-A-Potential-Target-for-Therapeutic-pntd.0001306.s005.ogv 31 s, 320 × 240; 3.17 MB
  
• Caspase-Dependent-Programmed-Cell-Death-in-Developing-Embryos-A-Potential-Target-for-Therapeutic-pntd.0001306.s006.ogv 13 s, 320 × 240; 486 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S1.ogv 5.0 s, 786 × 576; 415 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S10.ogv 4.0 s, 786 × 576; 1.66 MB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S11.ogv 4.0 s, 786 × 576; 422 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S12.ogv 15 s, 640 × 480; 1.94 MB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S13.ogv 5.0 s, 786 × 576; 485 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S14.ogv 4.0 s, 786 × 576; 566 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S2.ogv 4.0 s, 786 × 576; 886 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S3.ogv 4.0 s, 786 × 576; 741 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S4.ogv 10 s, 640 × 480; 1.64 MB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S5.ogv 4.0 s, 786 × 576; 1.32 MB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S6.ogv 5.0 s, 786 × 576; 919 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S7.ogv 5.0 s, 786 × 576; 543 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S8.ogv 5.0 s, 786 × 576; 385 KB
  
• Cellular-localization-of-ROS-and-NO-in-olive-reproductive-tissues-during-flower-development-1471-2229-10-36-S9.ogv 11 s, 640 × 480; 774 KB
  
• Copper-Transport-Protein-Antioxidant-1-Promotes-Inflammatory-Neovascularization-via-Chaperone-and-srep14780-s2.ogv 36 s, 796 × 606; 23.34 MB
  
• Copper-Transport-Protein-Antioxidant-1-Promotes-Inflammatory-Neovascularization-via-Chaperone-and-srep14780-s3.ogv 24 s, 796 × 612; 15.4 MB
  
• Copper-Transport-Protein-Antioxidant-1-Promotes-Inflammatory-Neovascularization-via-Chaperone-and-srep14780-s4.ogv 36 s, 796 × 604; 25.18 MB
  
• Copper-Transport-Protein-Antioxidant-1-Promotes-Inflammatory-Neovascularization-via-Chaperone-and-srep14780-s5.ogv 36 s, 786 × 616; 25.16 MB
  
• Cytosolic-Irradiation-of-Femtosecond-Laser-Induces-Mitochondria-dependent-Apoptosis-like-Cell-Death-srep08231-s1.ogv 10 s, 330 × 330; 2.59 MB
  
• Cytosolic-Irradiation-of-Femtosecond-Laser-Induces-Mitochondria-dependent-Apoptosis-like-Cell-Death-srep08231-s2.ogv 20 s, 512 × 512; 8.1 MB
  
• Cytosolic-Irradiation-of-Femtosecond-Laser-Induces-Mitochondria-dependent-Apoptosis-like-Cell-Death-srep08231-s3.ogv 16 s, 512 × 512; 9.07 MB
  
• Division-of-labour-in-response-to-host-oxidative-burst-drives-a-fatal-Cryptococcus-gattii-outbreak-ncomms6194-s2.ogv 8.0 s, 500 × 447; 171 KB
  
• DNA-Repair-in-Human-Pluripotent-Stem-Cells-Is-Distinct-from-That-in-Non-Pluripotent-Human-Cells-pone.0030541.s011.ogv 12 s, 512 × 512; 816 KB
  
• DNA-Repair-in-Human-Pluripotent-Stem-Cells-Is-Distinct-from-That-in-Non-Pluripotent-Human-Cells-pone.0030541.s012.ogv 9.0 s, 512 × 512; 910 KB
  
• Experimental-and-Computational-Analysis-of-Polyglutamine-Mediated-Cytotoxicity-pcbi.1000944.s004.ogv 14 s, 694 × 520; 3.95 MB
  
• Experimental-and-Computational-Analysis-of-Polyglutamine-Mediated-Cytotoxicity-pcbi.1000944.s005.ogv 14 s, 694 × 520; 793 KB
  
• Experimental-and-Computational-Analysis-of-Polyglutamine-Mediated-Cytotoxicity-pcbi.1000944.s006.ogv 14 s, 694 × 520; 5.08 MB
  
• Experimental-and-Computational-Analysis-of-Polyglutamine-Mediated-Cytotoxicity-pcbi.1000944.s007.ogv 14 s, 694 × 520; 666 KB
  
• Experimental-and-Computational-Analysis-of-Polyglutamine-Mediated-Cytotoxicity-pcbi.1000944.s008.ogv 14 s, 694 × 520; 5.87 MB
  
• Experimental-and-Computational-Analysis-of-Polyglutamine-Mediated-Cytotoxicity-pcbi.1000944.s009.ogv 14 s, 694 × 520; 818 KB
  
• Experimental-and-Computational-Analysis-of-Polyglutamine-Mediated-Cytotoxicity-pcbi.1000944.s010.ogv 14 s, 694 × 520; 4.67 MB
  
• Experimental-and-Computational-Analysis-of-Polyglutamine-Mediated-Cytotoxicity-pcbi.1000944.s011.ogv 14 s, 694 × 520; 340 KB
  
• 
  Figure 1 - UV radiation.png 2,662 × 1,472; 513 KB
  
• Free radical injury.webm 10 min 30 s, 1,812 × 1,018; 51.76 MB
  
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  Free Radical Toxicity.svg 603 × 652; 107 KB
  
• Hem-1-Complexes-Are-Essential-for-Rac-Activation-Actin-Polymerization-and-Myosin-Regulation-during-pbio.0040038.sv001.ogv 3.0 s, 336 × 256; 72 KB
  
• Hem-1-Complexes-Are-Essential-for-Rac-Activation-Actin-Polymerization-and-Myosin-Regulation-during-pbio.0040038.sv002.ogv 8.7 s, 368 × 360; 1.03 MB
  
• Hem-1-Complexes-Are-Essential-for-Rac-Activation-Actin-Polymerization-and-Myosin-Regulation-during-pbio.0040038.sv003.ogv 31 s, 382 × 360; 345 KB
  
• Hem-1-Complexes-Are-Essential-for-Rac-Activation-Actin-Polymerization-and-Myosin-Regulation-during-pbio.0040038.sv004.ogv 17 s, 480 × 330; 798 KB
  
• High-Glucose-Mediated-Oxidative-Stress-Impairs-Cell-Migration-pone.0022865.s004.ogv 10 s, 350 × 350; 2.01 MB
  
• High-Glucose-Mediated-Oxidative-Stress-Impairs-Cell-Migration-pone.0022865.s005.ogv 10 s, 350 × 350; 1.69 MB
  
• High-Glucose-Mediated-Oxidative-Stress-Impairs-Cell-Migration-pone.0022865.s006.ogv 11 s, 211 × 237; 956 KB
  
• High-Glucose-Mediated-Oxidative-Stress-Impairs-Cell-Migration-pone.0022865.s007.ogv 11 s, 448 × 350; 1.81 MB
  
• 
  HO2param.png 396 × 274; 22 KB
  
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  Initiation of DNA demethylation at a CpG site.svg 643 × 739; 38 KB
  
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  Major cellular sources of Reactive Oxygen Species in living cells.jpg 1,200 × 1,600; 227 KB
  
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  Mediatori vasoattivi endoteliali.jpg 1,058 × 793; 92 KB
  
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  MFRTADw001.png 1,129 × 714; 111 KB
  
• Mitochondrial-Structure-and-Function-Are-Disrupted-by-Standard-Isolation-Methods-pone.0018317.s004.ogv 11 s, 640 × 480; 3.23 MB
  
• Mitochondrial-Structure-and-Function-Are-Disrupted-by-Standard-Isolation-Methods-pone.0018317.s005.ogv 11 s, 640 × 480; 5.95 MB
  
• Molecular-pathway-of-near-infrared-laser-phototoxicity-involves-ATF-4-orchestrated-ER-stress-srep10581-s2.ogv 43 s, 1,920 × 1,080; 21.82 MB
  
• Neuregulin-Promotes-Incomplete-Autophagy-of-Prostate-Cancer-Cells-That-Is-Independent-of-mTOR-pone.0036828.s001.ogv 8.0 s, 768 × 576; 2.87 MB
  
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  Open source and reduced expenditure ROS generation strategy.pdf 900 × 712; 788 KB
  
• Oxidative-Burst-Dependent-NETosis-Is-Implicated-in-the-Resolution-of-Necrosis-Associated-Sterile-video 1.ogv 3.2 s, 1,756 × 1,274; 3.23 MB
  
• Oxidative-Burst-Dependent-NETosis-Is-Implicated-in-the-Resolution-of-Necrosis-Associated-Sterile-video 2.ogv 3.2 s, 1,756 × 1,274; 1.5 MB
  
• Oxidative-Burst-Dependent-NETosis-Is-Implicated-in-the-Resolution-of-Necrosis-Associated-Sterile-video 3.ogv 1.3 s, 1,756 × 1,274; 1.22 MB
  
• Oxidative-Burst-Dependent-NETosis-Is-Implicated-in-the-Resolution-of-Necrosis-Associated-Sterile-video 4.ogv 2.2 s, 1,756 × 1,274; 1.6 MB
  
• Oxygen-induced-cell-migration-and-on-line-monitoring-biomarkers-modulation-of-cervical-cancers-on-a-srep09643-s2.ogv 11 s, 720 × 576; 629 KB
  
• Oxygen-induced-cell-migration-and-on-line-monitoring-biomarkers-modulation-of-cervical-cancers-on-a-srep09643-s3.ogv 9.1 s, 720 × 576; 788 KB
  
• Oxygen-induced-cell-migration-and-on-line-monitoring-biomarkers-modulation-of-cervical-cancers-on-a-srep09643-s4.ogv 1 min 38 s, 600 × 480; 12.97 MB
  
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  Paraquat Reduction Oxidation.svg 512 × 203; 29 KB
  
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  Reactive oxygen species (ROS) – some examples with Lewis structures (English labels).png 1,826 × 1,149; 79 KB
  
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  Reactive oxygen species (ROS) – some examples with Lewis structures.png 1,668 × 1,065; 52 KB
  
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  Reaktív oxigénszármazékok.png 1,826 × 1,149; 76 KB
  
• Recovery-of-Cognitive-Dysfunction-via-Orally-Administered-Redox-Polymer-Nanotherapeutics-in-SAMP8-pone.0126013.s002.ogv 17 s, 284 × 160; 656 KB
  
• Recovery-of-Cognitive-Dysfunction-via-Orally-Administered-Redox-Polymer-Nanotherapeutics-in-SAMP8-pone.0126013.s003.ogv 55 s, 284 × 160; 2.06 MB
  
• Recovery-of-Cognitive-Dysfunction-via-Orally-Administered-Redox-Polymer-Nanotherapeutics-in-SAMP8-pone.0126013.s004.ogv 20 s, 284 × 160; 774 KB
  
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  Role of reactive oxygen species in development of cancer.png 3,187 × 3,393; 508 KB
  
• Role-of-thioredoxin-reductase-1-and-thioredoxin-interacting-protein-in-prognosis-of-breast-cancer-bcr2599-S6.ogv 1 min 12 s, 688 × 516; 18.27 MB
  
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  ROS Macrophage.jpg 4,350 × 3,046; 975 KB
  
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  ROSDw001.png 752 × 969; 59 KB
  
• Sec-containing-TrxR1-is-essential-for-self-sufficiency-of-cells-by-control-of-glucose-derived-H2O2-cddis2014209x1.ogv 8.0 s, 420 × 315; 1,013 KB
  
• Sec-containing-TrxR1-is-essential-for-self-sufficiency-of-cells-by-control-of-glucose-derived-H2O2-cddis2014209x2.ogv 8.0 s, 420 × 315; 554 KB
  
• Sec-containing-TrxR1-is-essential-for-self-sufficiency-of-cells-by-control-of-glucose-derived-H2O2-cddis2014209x3.ogv 8.0 s, 420 × 315; 906 KB
  
• Sec-containing-TrxR1-is-essential-for-self-sufficiency-of-cells-by-control-of-glucose-derived-H2O2-cddis2014209x4.ogv 8.0 s, 420 × 315; 759 KB
  
• Seizure-activity-results-in-calcium--and-mitochondria-independent-ROS-production-via-NADPH-and-cddis2014390x1.ogv 23 s, 512 × 512; 791 KB
  
• Selective-Ion-Changes-during-Spontaneous-Mitochondrial-Transients-in-Intact-Astrocytes-pone.0028505.s006.ogv 5.6 s, 330 × 161; 58 KB
  
• Sepsis-induces-long-term-metabolic-and-mitochondrial-muscle-stem-cell-dysfunction-amenable-by-ncomms10145-s2.ogv 28 s, 665 × 500; 1.33 MB
  
• Sepsis-induces-long-term-metabolic-and-mitochondrial-muscle-stem-cell-dysfunction-amenable-by-ncomms10145-s3.ogv 28 s, 674 × 502; 203 KB
  
• Sepsis-induces-long-term-metabolic-and-mitochondrial-muscle-stem-cell-dysfunction-amenable-by-ncomms10145-s4.ogv 28 s, 955 × 481; 237 KB
  
• Sepsis-induces-long-term-metabolic-and-mitochondrial-muscle-stem-cell-dysfunction-amenable-by-ncomms10145-s5.ogv 28 s, 647 × 488; 134 KB
  
• SIR-2.1-integrates-metabolic-homeostasis-with-the-reproductive-neuromuscular-excitability-in-early-elife01730v001.ogv 8.9 s, 512 × 480; 152 KB
  
• SIR-2.1-integrates-metabolic-homeostasis-with-the-reproductive-neuromuscular-excitability-in-early-elife01730v002.ogv 9.2 s, 654 × 480; 178 KB
  
• SIR-2.1-integrates-metabolic-homeostasis-with-the-reproductive-neuromuscular-excitability-in-early-elife01730v003.ogv 2.5 s, 512 × 480; 198 KB
  
• SIR-2.1-integrates-metabolic-homeostasis-with-the-reproductive-neuromuscular-excitability-in-early-elife01730v004.ogv 6.1 s, 654 × 480; 671 KB
  
• SIR-2.1-integrates-metabolic-homeostasis-with-the-reproductive-neuromuscular-excitability-in-early-elife01730v005.ogv 11 s, 654 × 480; 443 KB
  
• Skin-Cornification-Proteins-Provide-Global-Link-between-ROS-Detoxification-and-Cell-Migration-pone.0011957.s003.ogv 9.9 s, 840 × 704; 2.88 MB
  
• Social-amoebae-trap-and-kill-bacteria-by-casting-DNA-nets-ncomms10938-s2.ogv 9.5 s, 380 × 380; 375 KB
  
• Social-amoebae-trap-and-kill-bacteria-by-casting-DNA-nets-ncomms10938-s3.ogv 8.8 s, 710 × 2,182; 1.74 MB
  
• Social-amoebae-trap-and-kill-bacteria-by-casting-DNA-nets-ncomms10938-s4.ogv 10 s, 320 × 640; 1.41 MB
  
• Social-amoebae-trap-and-kill-bacteria-by-casting-DNA-nets-ncomms10938-s5.ogv 13 s, 1,504 × 942; 6.39 MB
  
• Social-amoebae-trap-and-kill-bacteria-by-casting-DNA-nets-ncomms10938-s6.ogv 5.5 s, 366 × 378; 246 KB
  
• Social-amoebae-trap-and-kill-bacteria-by-casting-DNA-nets-ncomms10938-s7.ogv 6.0 s, 582 × 566; 140 KB
  
• St-Johns-Wort-(Hypericum-perforatum-L.)-Photomedicine-Hypericin-Photodynamic-Therapy-Induces-pone.0103762.s004.ogv 5.0 s, 1,162 × 1,155; 5.02 MB
  
• St-Johns-Wort-(Hypericum-perforatum-L.)-Photomedicine-Hypericin-Photodynamic-Therapy-Induces-pone.0103762.s005.ogv 5.0 s, 1,162 × 1,155; 6.73 MB
  
• The-Carbon-Monoxide-Releasing-Molecule-CORM-2-Attenuates-Pseudomonas-aeruginosa-Biofilm-Formation-pone.0035499.s003.ogv 17 s, 1,344 × 1,024; 7.17 MB
  
• The-Carbon-Monoxide-Releasing-Molecule-CORM-2-Attenuates-Pseudomonas-aeruginosa-Biofilm-Formation-pone.0035499.s004.ogv 17 s, 1,344 × 1,024; 5.68 MB
  
• The-Galvanotactic-Migration-of-Keratinocytes-is-Enhanced-by-Hypoxic-Preconditioning-srep10289-s2.ogv 16 s, 720 × 576; 730 KB
  
• The-Galvanotactic-Migration-of-Keratinocytes-is-Enhanced-by-Hypoxic-Preconditioning-srep10289-s3.ogv 16 s, 720 × 576; 399 KB
  
• The-Galvanotactic-Migration-of-Keratinocytes-is-Enhanced-by-Hypoxic-Preconditioning-srep10289-s4.ogv 16 s, 720 × 576; 841 KB
  
• The-Galvanotactic-Migration-of-Keratinocytes-is-Enhanced-by-Hypoxic-Preconditioning-srep10289-s5.ogv 8.0 s, 720 × 576; 4.11 MB
  
• The-Galvanotactic-Migration-of-Keratinocytes-is-Enhanced-by-Hypoxic-Preconditioning-srep10289-s6.ogv 16 s, 720 × 576; 1,017 KB
  
• The-Scale-Free-Dynamics-of-Eukaryotic-Cells-pone.0003624.s001.ogv 16 s, 176 × 509; 3.25 MB
  
• The-Scale-Free-Dynamics-of-Eukaryotic-Cells-pone.0003624.s002.ogv 7.0 s, 429 × 506; 2.14 MB
  
• Thymosin-β10-Expression-Driven-by-the-Human-TERT-Promoter-Induces-Ovarian-Cancer-Specific-Apoptosis-pone.0035399.s001.ogv 26 s, 480 × 480; 4.58 MB
  
• 
  Via per la qual mROS indueix la proliferació cel·lular.gif 532 × 539; 794 KB