Category:In vivo imaging

Media in category "In vivo imaging"

The following 68 files are in this category, out of 68 total.

4m msot.jpg 525 × 470; 122 KB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s007.ogv 30 s, 512 × 512; 660 KB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s008.ogv 30 s, 504 × 354; 537 KB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s009.ogv 30 s, 512 × 512; 936 KB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s010.ogv 23 s, 512 × 512; 722 KB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s011.ogv 1 min 0 s, 512 × 512; 1.17 MB
A-Bispecific-Antibody-Promotes-Aggregation-of-Ricin-Toxin-on-Cell-Surfaces-and-Alters-Dynamics-of-pone.0156893.s012.ogv 23 s, 512 × 512; 508 KB
A-Modular-and-Affordable-Time-Lapse-Imaging-and-Incubation-System-Based-on-3D-Printed-Parts-a-pone.0167583.s006.ogv 13 s, 496 × 480; 4.98 MB
A-Modular-and-Affordable-Time-Lapse-Imaging-and-Incubation-System-Based-on-3D-Printed-Parts-a-pone.0167583.s007.ogv 12 s, 496 × 480; 5.03 MB
A-Modular-and-Affordable-Time-Lapse-Imaging-and-Incubation-System-Based-on-3D-Printed-Parts-a-pone.0167583.s008.ogv 10 s, 508 × 480; 836 KB
Correlating-Intravital-Multi-Photon-Microscopy-to-3D-Electron-Microscopy-of-Invading-Tumor-Cells-pone.0114448.s003.ogv 25 s, 854 × 480; 1.8 MB
Correlating-Intravital-Multi-Photon-Microscopy-to-3D-Electron-Microscopy-of-Invading-Tumor-Cells-pone.0114448.s004.ogv 24 s, 854 × 480; 1.3 MB
Correlating-Intravital-Multi-Photon-Microscopy-to-3D-Electron-Microscopy-of-Invading-Tumor-Cells-pone.0114448.s005.ogv 55 s, 854 × 480; 10.36 MB
Correlating-Intravital-Multi-Photon-Microscopy-to-3D-Electron-Microscopy-of-Invading-Tumor-Cells-pone.0114448.s006.ogv 38 s, 854 × 480; 7.59 MB
Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s019.ogv 2.7 s, 880 × 880; 895 KB
Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s020.ogv 2.7 s, 900 × 900; 1.87 MB
Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s021.ogv 6.4 s, 1,220 × 1,020; 2.13 MB
Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s022.ogv 6.4 s, 1,280 × 1,080; 5.76 MB
Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s023.ogv 6.4 s, 1,220 × 1,020; 2.16 MB
Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s024.ogv 6.4 s, 1,220 × 1,020; 1.16 MB
Deep-Learning-Automates-the-Quantitative-Analysis-of-Individual-Cells-in-Live-Cell-Imaging-pcbi.1005177.s025.ogv 6.4 s, 1,280 × 1,080; 11.76 MB
Enhanced-Vitreous-Imaging-in-Healthy-Eyes-Using-Swept-Source-Optical-Coherence-Tomography-pone.0102950.s001.ogv 22 s, 1,500 × 680; 34.09 MB
Enhanced-Vitreous-Imaging-in-Healthy-Eyes-Using-Swept-Source-Optical-Coherence-Tomography-pone.0102950.s002.ogv 24 s, 1,500 × 500; 27.27 MB
Enhanced-Vitreous-Imaging-in-Healthy-Eyes-Using-Swept-Source-Optical-Coherence-Tomography-pone.0102950.s003.ogv 16 s, 800 × 600; 3.34 MB
Enhanced-Vitreous-Imaging-in-Healthy-Eyes-Using-Swept-Source-Optical-Coherence-Tomography-pone.0102950.s004.ogv 14 s, 480 × 480; 3.48 MB
Enhanced-Vitreous-Imaging-in-Healthy-Eyes-Using-Swept-Source-Optical-Coherence-Tomography-pone.0102950.s005.ogv 22 s, 1,500 × 700; 47.24 MB
Enhanced-Vitreous-Imaging-in-Healthy-Eyes-Using-Swept-Source-Optical-Coherence-Tomography-pone.0102950.s006.ogv 14 s, 1,500 × 500; 29.51 MB
High-Content-Screening-in-Zebrafish-Embryos-Identifies-Butafenacil-as-a-Potent-Inducer-of-Anemia-pone.0104190.s034.ogv 3.0 s, 1,392 × 1,040; 2.01 MB
High-Content-Screening-in-Zebrafish-Embryos-Identifies-Butafenacil-as-a-Potent-Inducer-of-Anemia-pone.0104190.s035.ogv 3.0 s, 1,392 × 1,040; 2.23 MB
In-Vivo-Detection-of-Macrophage-Recruitment-in-Hind-Limb-Ischemia-Using-a-Targeted-Near-Infrared-pone.0103721.s002.ogv 4.1 s, 320 × 240; 92 KB
In-Vivo-Imaging-of-Hedgehog-Pathway-Activation-with-a-Nuclear-Fluorescent-Reporter-pone.0103661.s001.ogv 7.5 s, 426 × 426; 3.27 MB
In-Vivo-Imaging-of-Hedgehog-Pathway-Activation-with-a-Nuclear-Fluorescent-Reporter-pone.0103661.s002.ogv 8.0 s, 600 × 600; 1.03 MB
In-Vivo-Imaging-Reveals-a-Pioneer-Wave-of-Monocyte-Recruitment-into-Mouse-Skin-Wounds-pone.0108212.s002.ogv 6.0 s, 773 × 774; 2.15 MB
In-Vivo-Imaging-Reveals-a-Pioneer-Wave-of-Monocyte-Recruitment-into-Mouse-Skin-Wounds-pone.0108212.s003.ogv 16 s, 750 × 750; 7.38 MB
In-Vivo-Imaging-Reveals-a-Pioneer-Wave-of-Monocyte-Recruitment-into-Mouse-Skin-Wounds-pone.0108212.s004.ogv 4.8 s, 640 × 640; 502 KB
In-Vivo-Imaging-Reveals-a-Pioneer-Wave-of-Monocyte-Recruitment-into-Mouse-Skin-Wounds-pone.0108212.s005.ogv 4.8 s, 640 × 640; 565 KB
In-Vivo-Immunostaining-of-Hemocyte-Compartments-in-Drosophila-for-Live-Imaging-pone.0098191.s002.ogv 10 s, 1,024 × 1,024; 641 KB
In-Vivo-Immunostaining-of-Hemocyte-Compartments-in-Drosophila-for-Live-Imaging-pone.0098191.s003.ogv 10 s, 1,024 × 1,024; 884 KB
In-Vivo-Quantitative-Microcomputed-Tomographic-Analysis-of-Vasculature-and-Organs-in-a-Normal-and-pone.0150085.s002.ogv 12 s, 1,024 × 1,024; 6.66 MB
In-Vivo-Quantitative-Microcomputed-Tomographic-Analysis-of-Vasculature-and-Organs-in-a-Normal-and-pone.0150085.s003.ogv 12 s, 1,024 × 1,024; 7.49 MB
In-Vivo-Quantitative-Microcomputed-Tomographic-Analysis-of-Vasculature-and-Organs-in-a-Normal-and-pone.0150085.s004.ogv 20 s, 480 × 480; 24.22 MB
In-Vivo-Quantitative-Microcomputed-Tomographic-Analysis-of-Vasculature-and-Organs-in-a-Normal-and-pone.0150085.s005.ogv 20 s, 480 × 480; 21.77 MB
In-Vivo-Quantitative-Microcomputed-Tomographic-Analysis-of-Vasculature-and-Organs-in-a-Normal-and-pone.0150085.s006.ogv 20 s, 480 × 480; 9.36 MB
In-Vivo-Quantitative-Microcomputed-Tomographic-Analysis-of-Vasculature-and-Organs-in-a-Normal-and-pone.0150085.s007.ogv 15 s, 512 × 512; 7.32 MB
In-Vivo-Quantitative-Microcomputed-Tomographic-Analysis-of-Vasculature-and-Organs-in-a-Normal-and-pone.0150085.s008.ogv 10 s, 480 × 480; 6.8 MB
Live-Imaging-Provides-New-Insights-on-Dynamic-F-Actin-Filopodia-and-Differential-Endocytosis-during-pone.0114126.s008.ogv 20 s, 851 × 1,364; 2.34 MB
Live-Imaging-Provides-New-Insights-on-Dynamic-F-Actin-Filopodia-and-Differential-Endocytosis-during-pone.0114126.s009.ogv 20 s, 852 × 1,580; 1.93 MB
Live-Imaging-Provides-New-Insights-on-Dynamic-F-Actin-Filopodia-and-Differential-Endocytosis-during-pone.0114126.s010.ogv 20 s, 851 × 1,062; 1.72 MB
Live-Imaging-Provides-New-Insights-on-Dynamic-F-Actin-Filopodia-and-Differential-Endocytosis-during-pone.0114126.s011.ogv 20 s, 851 × 1,266; 2.14 MB
Live-Imaging-Provides-New-Insights-on-Dynamic-F-Actin-Filopodia-and-Differential-Endocytosis-during-pone.0114126.s012.ogv 20 s, 852 × 1,188; 2.58 MB
Live-Imaging-Provides-New-Insights-on-Dynamic-F-Actin-Filopodia-and-Differential-Endocytosis-during-pone.0114126.s013.ogv 8.0 s, 800 × 600; 251 KB
Live-Imaging-Provides-New-Insights-on-Dynamic-F-Actin-Filopodia-and-Differential-Endocytosis-during-pone.0114126.s014.ogv 36 s, 150 × 150; 178 KB
Live-Imaging-Provides-New-Insights-on-Dynamic-F-Actin-Filopodia-and-Differential-Endocytosis-during-pone.0114126.s015.ogv 20 s, 851 × 1,154; 1.92 MB
Live-Imaging-Provides-New-Insights-on-Dynamic-F-Actin-Filopodia-and-Differential-Endocytosis-during-pone.0114126.s016.ogv 20 s, 852 × 1,378; 2.15 MB
Marie-Ange Guilleminot. La Guirlande de Tsuru, 2003 vue de l'atelier de l'artiste, photographiée par Michel-Ange Seretti à Paris en avril 2011.jpg 428 × 640; 123 KB
Mitigating-Phototoxicity-during-Multiphoton-Microscopy-of-Live-Drosophila-Embryos-in-the-1.0-1.2-µm-pone.0104250.s002.ogv 28 s, 720 × 300; 15.64 MB
Mitigating-Phototoxicity-during-Multiphoton-Microscopy-of-Live-Drosophila-Embryos-in-the-1.0-1.2-µm-pone.0104250.s003.ogv 23 s, 960 × 640; 3.81 MB
Mitigating-Phototoxicity-during-Multiphoton-Microscopy-of-Live-Drosophila-Embryos-in-the-1.0-1.2-µm-pone.0104250.s004.ogv 4.3 s, 748 × 700; 3.04 MB
The hero of every biomaterial.jpg 589 × 880; 48 KB
Time-Efficient-3D-Radial-UTE-Sampling-with-Fully-Automatic-Delay-Compensation-on-a-Clinical-3T-MR-pone.0150371.s001.ogv 4.9 s, 512 × 512; 883 KB
Time-Efficient-3D-Radial-UTE-Sampling-with-Fully-Automatic-Delay-Compensation-on-a-Clinical-3T-MR-pone.0150371.s002.ogv 9.6 s, 480 × 512; 1.13 MB
Time-Efficient-3D-Radial-UTE-Sampling-with-Fully-Automatic-Delay-Compensation-on-a-Clinical-3T-MR-pone.0150371.s003.ogv 10 s, 512 × 512; 1.43 MB
Trafficking-Dynamics-of-PCSK9-Induced-LDLR-Degradation-Focus-on-Human-PCSK9-Mutations-and-C-pone.0157230.s002.ogv 28 s, 537 × 447; 1.02 MB
Trafficking-Dynamics-of-PCSK9-Induced-LDLR-Degradation-Focus-on-Human-PCSK9-Mutations-and-C-pone.0157230.s003.ogv 20 s, 517 × 653; 4.96 MB
Trafficking-Dynamics-of-PCSK9-Induced-LDLR-Degradation-Focus-on-Human-PCSK9-Mutations-and-C-pone.0157230.s004.ogv 24 s, 430 × 460; 585 KB
Trafficking-Dynamics-of-PCSK9-Induced-LDLR-Degradation-Focus-on-Human-PCSK9-Mutations-and-C-pone.0157230.s005.ogv 19 s, 503 × 423; 3.34 MB
Visualizing-Late-Insect-Embryogenesis-Extraembryonic-and-Mesodermal-Enhancer-Trap-Expression-in-the-pone.0103967.s001.ogv 14 s, 600 × 261; 662 KB
Visualizing-Late-Insect-Embryogenesis-Extraembryonic-and-Mesodermal-Enhancer-Trap-Expression-in-the-pone.0103967.s002.ogv 35 s, 489 × 289; 507 KB

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