Category:Epithelial cells

Subcategories

This category has the following 12 subcategories, out of 12 total.

Media in category "Epithelial cells"

The following 200 files are in this category, out of 555 total.

• 
  10x-pad7-3-center m.tif 512 × 512; 446 KB
  
• 
  A Reference handbook of the medical sciences embracing the entire range of scientific and practical medicine and allied science (1900) (14596585249).jpg 1,802 × 392; 71 KB
  
• A-Capsid-Encoded-PPxY-Motif-Facilitates-Adenovirus-Entry-ppat.1000808.s007.ogv 42 s, 512 × 512; 826 KB
  
• A-Capsid-Encoded-PPxY-Motif-Facilitates-Adenovirus-Entry-ppat.1000808.s008.ogv 17 s, 768 × 256; 376 KB
  
• A-Cellular-Automata-Based-Mathematical-Model-for-Thymocyte-Development-pone.0008233.s001.ogv 1 min 52 s, 316 × 392; 8.8 MB
  
• A-Cellular-Automata-Based-Mathematical-Model-for-Thymocyte-Development-pone.0008233.s002.ogv 1 min 52 s, 316 × 392; 6.04 MB
  
• A-Cellular-Automata-Based-Mathematical-Model-for-Thymocyte-Development-pone.0008233.s003.ogv 1 min 52 s, 316 × 392; 10.33 MB
  
• A-Comprehensive-Panel-of-Three-Dimensional-Models-for-Studies-of-Prostate-Cancer-Growth-Invasion-pone.0010431.s013.ogv 1 min 6 s, 524 × 384; 8.71 MB
  
• A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s004.ogv 51 s, 320 × 240; 358 KB
  
• A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s005.ogv 51 s, 320 × 240; 515 KB
  
• A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s006.ogv 51 s, 320 × 240; 706 KB
  
• A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s007.ogv 55 s, 320 × 240; 2.33 MB
  
• A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s008.ogv 55 s, 320 × 240; 4.84 MB
  
• A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s009.ogv 55 s, 320 × 240; 3.85 MB
  
• A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s010.ogv 51 s, 320 × 240; 333 KB
  
• A-Computational-Approach-to-Understand-In-Vitro-Alveolar-Morphogenesis-pone.0004819.s011.ogv 51 s, 320 × 240; 285 KB
  
• 
  A-Fluorescent-Chromatophore-Changes-the-Level-of-Fluorescence-in-a-Reef-Fish-pone.0037913.g001.jpg 692 × 692; 88 KB
  
• 
  A-Fluorescent-Chromatophore-Changes-the-Level-of-Fluorescence-in-a-Reef-Fish-pone.0037913.g002.jpg 692 × 557; 99 KB
  
• 
  A-Fluorescent-Chromatophore-Changes-the-Level-of-Fluorescence-in-a-Reef-Fish-pone.0037913.g003.jpg 765 × 152; 51 KB
  
• 
  A-Fluorescent-Chromatophore-Changes-the-Level-of-Fluorescence-in-a-Reef-Fish-pone.0037913.g004.jpg 738 × 568; 69 KB
  
• 
  A-Fluorescent-Chromatophore-Changes-the-Level-of-Fluorescence-in-a-Reef-Fish-pone.0037913.g005.jpg 664 × 637; 52 KB
  
• 
  A-Fluorescent-Chromatophore-Changes-the-Level-of-Fluorescence-in-a-Reef-Fish-pone.0037913.g006.jpg 765 × 191; 66 KB
  
• A-Fluorescent-Chromatophore-Changes-the-Level-of-Fluorescence-in-a-Reef-Fish-pone.0037913.s001.ogv 28 s, 732 × 480; 2.56 MB
  
• A-Fluorescent-Chromatophore-Changes-the-Level-of-Fluorescence-in-a-Reef-Fish-pone.0037913.s002.ogv 24 s, 720 × 576; 460 KB
  
• A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s001.ogv 11 s, 436 × 567; 4.3 MB
  
• A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s002.ogv 6.0 s, 816 × 2,086; 8.67 MB
  
• A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s003.ogv 5.0 s, 816 × 1,490; 4.33 MB
  
• A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s005.ogv 14 s, 1,174 × 532; 4.37 MB
  
• A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s006.ogv 7.1 s, 318 × 268; 1.01 MB
  
• A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s007.ogv 4.3 s, 446 × 438; 424 KB
  
• A-Functional-Genomic-Screen-Combined-with-Time-Lapse-Microscopy-Uncovers-a-Novel-Set-of-Genes-pone.0022229.s008.ogv 10 s, 376 × 310; 3.94 MB
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s001.ogv 17 s, 1,200 × 800; 2.51 MB
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s002.ogv 21 s, 1,200 × 800; 1.71 MB
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s003.ogv 21 s, 1,200 × 800; 1.38 MB
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s004.ogv 21 s, 1,200 × 800; 2.33 MB
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s005.ogv 21 s, 1,200 × 800; 1.75 MB
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s006.ogv 17 s, 1,200 × 800; 1.6 MB
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s007.ogv 17 s, 1,200 × 800; 1.29 MB
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s008.ogv 21 s, 1,200 × 800; 1.08 MB
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s009.ogv 17 s, 1,200 × 800; 726 KB
  
• Artificial-human-Met-agonists-based-on-macrocycle-scaffolds-ncomms7373-s2.ogv 15 s, 960 × 540; 2.45 MB
  
• Automated-Quantification-and-Integrative-Analysis-of-2D-and-3D-Mitochondrial-Shape-and-Network-pone.0101365.s001.ogv 41 s, 768 × 576; 5.07 MB
  
• Automated-Quantification-and-Integrative-Analysis-of-2D-and-3D-Mitochondrial-Shape-and-Network-pone.0101365.s002.ogv 41 s, 768 × 576; 13.15 MB
  
• Automated-Quantification-and-Integrative-Analysis-of-2D-and-3D-Mitochondrial-Shape-and-Network-pone.0101365.s003.ogv 41 s, 768 × 576; 10.88 MB
  
• 
  Bacterial UTI picture of urine microscopy showing plenty of pus cells and bacteria.jpg 3,264 × 2,448; 1.07 MB
  
• Bat-Airway-Epithelial-Cells-A-Novel-Tool-for-the-Study-of-Zoonotic-Viruses-pone.0084679.s002.ogv 17 s, 640 × 480; 9.1 MB
  
• 
  Bio-Assembler vs. Matrigel with Human Mammary Epithelial Cells.tiff 690 × 536; 109 KB
  
• Botulinum-toxin-A-complex-exploits-intestinal-M-cells-to-enter-the-host-and-exert-neurotoxicity-ncomms7255-s2.ogv 12 s, 320 × 240; 110 KB
  
• Botulinum-toxin-A-complex-exploits-intestinal-M-cells-to-enter-the-host-and-exert-neurotoxicity-ncomms7255-s3.ogv 12 s, 320 × 240; 164 KB
  
• 
  Breast cancer acinar structures cultured by MLM.tif 717 × 496; 2.57 MB
  
• Building-Bridges-toward-Invasion-Tumor-Promoter-Treatment-Induces-a-Novel-Protein-Kinase-C-pone.0090722.s001.ogv 21 s, 300 × 300; 443 KB
  
• Building-Bridges-toward-Invasion-Tumor-Promoter-Treatment-Induces-a-Novel-Protein-Kinase-C-pone.0090722.s002.ogv 21 s, 300 × 300; 679 KB
  
• Campylobacter-jejuni-Survives-within-Epithelial-Cells-by-Avoiding-Delivery-to-Lysosomes-ppat.0040014.sv001.ogv 24 s, 312 × 263; 98 KB
  
• Campylobacter-jejuni-Survives-within-Epithelial-Cells-by-Avoiding-Delivery-to-Lysosomes-ppat.0040014.sv002.ogv 7.3 s, 430 × 339; 162 KB
  
• Campylobacter-jejuni-Survives-within-Epithelial-Cells-by-Avoiding-Delivery-to-Lysosomes-ppat.0040014.sv003.ogv 9.3 s, 235 × 196; 156 KB
  
• Campylobacter-jejuni-Survives-within-Epithelial-Cells-by-Avoiding-Delivery-to-Lysosomes-ppat.0040014.sv004.ogv 9.3 s, 235 × 196; 307 KB
  
• 
  Carbon nanotubes penetrating lung cell.tif 1,280 × 886; 1.1 MB
  
• 
  Cartoon representation of Planar polarity in fly and mouse epithelia.png 1,842 × 2,126; 372 KB
  
• CEBPbeta-2-confers-EGF-independent-growth-and-disrupts-the-normal-acinar-architecture-of-human-1476-4598-4-43-S1.ogv 3.5 s, 640 × 480; 118 KB
  
• CEBPbeta-2-confers-EGF-independent-growth-and-disrupts-the-normal-acinar-architecture-of-human-1476-4598-4-43-S2.ogv 11 s, 640 × 480; 202 KB
  
• CEBPbeta-2-confers-EGF-independent-growth-and-disrupts-the-normal-acinar-architecture-of-human-1476-4598-4-43-S3.ogv 5.0 s, 640 × 480; 108 KB
  
• CEBPbeta-2-confers-EGF-independent-growth-and-disrupts-the-normal-acinar-architecture-of-human-1476-4598-4-43-S4.ogv 9.5 s, 640 × 480; 269 KB
  
• CEBPbeta-2-confers-EGF-independent-growth-and-disrupts-the-normal-acinar-architecture-of-human-1476-4598-4-43-S5.ogv 6.0 s, 640 × 480; 54 KB
  
• CEBPbeta-2-confers-EGF-independent-growth-and-disrupts-the-normal-acinar-architecture-of-human-1476-4598-4-43-S6.ogv 11 s, 640 × 480; 125 KB
  
• CEBPbeta-2-confers-EGF-independent-growth-and-disrupts-the-normal-acinar-architecture-of-human-1476-4598-4-43-S7.ogv 14 s, 640 × 480; 199 KB
  
• Cell-movement-pbio.1001256.s006.ogv 15 s, 375 × 525; 308 KB
  
• Cell-movement-pbio.1001256.s007.ogv 2.7 s, 734 × 512; 356 KB
  
• Cell-movement-pbio.1001256.s008.ogv 4.7 s, 734 × 512; 659 KB
  
• Cell-movement-pbio.1001256.s009.ogv 10 s, 720 × 492; 2.37 MB
  
• Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s006.ogv 23 s, 640 × 480; 655 KB
  
• Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s007.ogv 53 s, 512 × 500; 1.99 MB
  
• Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s008.ogv 8.5 s, 1,392 × 1,040; 423 KB
  
• Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s009.ogv 13 s, 434 × 348; 131 KB
  
• Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s010.ogv 21 s, 530 × 512; 754 KB
  
• Cells-Expressing-the-CEBPbeta-Isoform-LIP-Engulf-Their-Neighbors-pone.0041807.s011.ogv 25 s, 512 × 512; 276 KB
  
• Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s010.ogv 8.0 s, 480 × 384; 2.71 MB
  
• Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s011.ogv 8.3 s, 480 × 360; 2.06 MB
  
• Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s012.ogv 8.3 s, 480 × 384; 3.43 MB
  
• Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s013.ogv 5.0 s, 1,280 × 1,024; 816 KB
  
• Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s014.ogv 5.0 s, 1,280 × 1,024; 425 KB
  
• Cellular-Architecture-Regulates-Collective-Calcium-Signaling-and-Cell-Contractility-pcbi.1004955.s015.ogv 5.0 s, 1,392 × 1,040; 1.56 MB
  
• 
  Cellule epiteliale.JPG 3,648 × 2,736; 2.6 MB
  
• Characterization-of-Cross-Linked-Porous-Gelatin-Carriers-and-Their-Interaction-with-Corneal-pone.0054058.s002.ogv 26 s, 640 × 480; 2.67 MB
  
• Chemotaxis-and-Binding-of-Pseudomonas-aeruginosa-to-Scratch-Wounded-Human-Cystic-Fibrosis-Airway-pone.0150109.s002.ogv 30 s, 720 × 240; 827 KB
  
• 
  Chlamydia pneumoniae.jpg 275 × 180; 7 KB
  
• 
  Cholera toxin.jpg 720 × 405; 40 KB
  
• Chronic-Alcohol-Exposure-Renders-Epithelial-Cells-Vulnerable-to-Bacterial-Infection-pone.0054646.s004.ogv 11 s, 1,404 × 590; 15.41 MB
  
• Chronic-Alcohol-Exposure-Renders-Epithelial-Cells-Vulnerable-to-Bacterial-Infection-pone.0054646.s005.ogv 6.7 s, 1,404 × 590; 11.32 MB
  
• Chronic-Alcohol-Exposure-Renders-Epithelial-Cells-Vulnerable-to-Bacterial-Infection-pone.0054646.s006.ogv 6.8 s, 1,404 × 606; 7.59 MB
  
• Chronic-Alcohol-Exposure-Renders-Epithelial-Cells-Vulnerable-to-Bacterial-Infection-pone.0054646.s007.ogv 4.1 s, 1,404 × 592; 6.63 MB
  
• Chronic-Alcohol-Exposure-Renders-Epithelial-Cells-Vulnerable-to-Bacterial-Infection-pone.0054646.s008.ogv 6.7 s, 1,404 × 590; 8.86 MB
  
• Chronic-Alcohol-Exposure-Renders-Epithelial-Cells-Vulnerable-to-Bacterial-Infection-pone.0054646.s009.ogv 8.1 s, 1,404 × 590; 19.07 MB
  
• Chronic-Alcohol-Exposure-Renders-Epithelial-Cells-Vulnerable-to-Bacterial-Infection-pone.0054646.s010.ogv 4.1 s, 1,404 × 590; 7.22 MB
  
• Chronic-Alcohol-Exposure-Renders-Epithelial-Cells-Vulnerable-to-Bacterial-Infection-pone.0054646.s011.ogv 12 s, 1,404 × 412; 10.59 MB
  
• Chronic-Alcohol-Exposure-Renders-Epithelial-Cells-Vulnerable-to-Bacterial-Infection-pone.0054646.s012.ogv 12 s, 1,404 × 412; 6.99 MB
  
• Ciliary-Beating-Recovery-in-Deficient-Human-Airway-Epithelial-Cells-after-Lentivirus-Ex-Vivo-Gene-pgen.1000422.s004.ogv 20 s, 272 × 132; 922 KB
  
• Ciliary-Beating-Recovery-in-Deficient-Human-Airway-Epithelial-Cells-after-Lentivirus-Ex-Vivo-Gene-pgen.1000422.s005.ogv 20 s, 272 × 132; 1.53 MB
  
• Clks-1-2-and-4-prevent-chromatin-breakage-by-regulating-the-Aurora-B-dependent-abscission-checkpoint-ncomms11451-s2.ogv 9.0 s, 248 × 248; 25 KB
  
• Clks-1-2-and-4-prevent-chromatin-breakage-by-regulating-the-Aurora-B-dependent-abscission-checkpoint-ncomms11451-s3.ogv 9.0 s, 240 × 240; 67 KB
  
• Clks-1-2-and-4-prevent-chromatin-breakage-by-regulating-the-Aurora-B-dependent-abscission-checkpoint-ncomms11451-s4.ogv 6.0 s, 300 × 300; 10 KB
  
• Clks-1-2-and-4-prevent-chromatin-breakage-by-regulating-the-Aurora-B-dependent-abscission-checkpoint-ncomms11451-s5.ogv 6.0 s, 210 × 210; 47 KB
  
• Clks-1-2-and-4-prevent-chromatin-breakage-by-regulating-the-Aurora-B-dependent-abscission-checkpoint-ncomms11451-s6.ogv 13 s, 278 × 330; 58 KB
  
• Clks-1-2-and-4-prevent-chromatin-breakage-by-regulating-the-Aurora-B-dependent-abscission-checkpoint-ncomms11451-s7.ogv 5.0 s, 330 × 270; 21 KB
  
• Clks-1-2-and-4-prevent-chromatin-breakage-by-regulating-the-Aurora-B-dependent-abscission-checkpoint-ncomms11451-s8.ogv 6.0 s, 300 × 270; 26 KB
  
• Coherent-Motion-of-Monolayer-Sheets-under-Confinement-and-Its-Pathological-Implications-pcbi.1004670.s023.ogv 1 min 7 s, 998 × 652; 47.22 MB
  
• Coherent-Motion-of-Monolayer-Sheets-under-Confinement-and-Its-Pathological-Implications-pcbi.1004670.s024.ogv 1 min 7 s, 998 × 652; 29.6 MB
  
• Coherent-Motion-of-Monolayer-Sheets-under-Confinement-and-Its-Pathological-Implications-pcbi.1004670.s033.ogv 21 s, 1,000 × 634; 10.47 MB
  
• Coherent-Motion-of-Monolayer-Sheets-under-Confinement-and-Its-Pathological-Implications-pcbi.1004670.s034.ogv 21 s, 998 × 652; 9.03 MB
  
• Coherent-Motion-of-Monolayer-Sheets-under-Confinement-and-Its-Pathological-Implications-pcbi.1004670.s035.ogv 27 s, 998 × 652; 11.35 MB
  
• Coherent-Motion-of-Monolayer-Sheets-under-Confinement-and-Its-Pathological-Implications-pcbi.1004670.s036.ogv 33 s, 800 × 660; 81.28 MB
  
• Coherent-Motion-of-Monolayer-Sheets-under-Confinement-and-Its-Pathological-Implications-pcbi.1004670.s037.ogv 5.0 s, 1,000 × 972; 3.66 MB
  
• Coherent-Motion-of-Monolayer-Sheets-under-Confinement-and-Its-Pathological-Implications-pcbi.1004670.s038.ogv 7.4 s, 1,000 × 972; 5.57 MB
  
• Coherent-Motion-of-Monolayer-Sheets-under-Confinement-and-Its-Pathological-Implications-pcbi.1004670.s039.ogv 8.7 s, 1,000 × 972; 7.37 MB
  
• Computational-Screening-of-Tip-and-Stalk-Cell-Behavior-Proposes-a-Role-for-Apelin-Signaling-in-pone.0159478.s001.ogv 25 s, 800 × 800; 5.63 MB
  
• Computational-Screening-of-Tip-and-Stalk-Cell-Behavior-Proposes-a-Role-for-Apelin-Signaling-in-pone.0159478.s002.ogv 25 s, 644 × 644; 6.03 MB
  
• Computational-Screening-of-Tip-and-Stalk-Cell-Behavior-Proposes-a-Role-for-Apelin-Signaling-in-pone.0159478.s003.ogv 25 s, 800 × 800; 8.6 MB
  
• Computational-Screening-of-Tip-and-Stalk-Cell-Behavior-Proposes-a-Role-for-Apelin-Signaling-in-pone.0159478.s004.ogv 40 s, 800 × 458; 7.27 MB
  
• Computational-Screening-of-Tip-and-Stalk-Cell-Behavior-Proposes-a-Role-for-Apelin-Signaling-in-pone.0159478.s005.ogv 25 s, 800 × 800; 8.37 MB
  
• Control-of-Airway-Tube-Diameter-and-Integrity-by-Secreted-Chitin-Binding-Proteins-in-Drosophila-pone.0067415.s005.ogv 3.3 s, 365 × 276; 41 KB
  
• Control-of-Airway-Tube-Diameter-and-Integrity-by-Secreted-Chitin-Binding-Proteins-in-Drosophila-pone.0067415.s006.ogv 3.3 s, 358 × 283; 43 KB
  
• 
  Cuticular wing hair defect in Frizzled mutant flies.png 2,530 × 2,250; 1.06 MB
  
• Cytoplasmic-Capes-Are-Nuclear-Envelope-Intrusions-That-Are-Enriched-in-Endosomal-Proteins-and-pone.0093680.s003.ogv 37 s, 494 × 380; 11.23 MB
  
• Cytoplasmic-Capes-Are-Nuclear-Envelope-Intrusions-That-Are-Enriched-in-Endosomal-Proteins-and-pone.0093680.s004.ogv 11 s, 640 × 480; 4.78 MB
  
• Cytoplasmic-Capes-Are-Nuclear-Envelope-Intrusions-That-Are-Enriched-in-Endosomal-Proteins-and-pone.0093680.s005.ogv 28 s, 426 × 336; 7.34 MB
  
• DeltaNp63-Has-a-Role-in-Maintaining-Epithelial-Integrity-in-Airway-Epithelium-pone.0088683.s007.ogv 9.8 s, 1,446 × 1,080; 2.01 MB
  
• DeltaNp63-Has-a-Role-in-Maintaining-Epithelial-Integrity-in-Airway-Epithelium-pone.0088683.s008.ogv 35 s, 1,446 × 1,080; 71.45 MB
  
• DeltaNp63-Has-a-Role-in-Maintaining-Epithelial-Integrity-in-Airway-Epithelium-pone.0088683.s009.ogv 35 s, 1,446 × 1,080; 43.42 MB
  
• Differential-Effects-of-TNF-(TNFSF2)-and-IFN-γ-on-Intestinal-Epithelial-Cell-Morphogenesis-and-pone.0022967.s003.ogv 6.4 s, 836 × 736; 1.25 MB
  
• 
  Diseases of the horse's foot (Page 54) BHL24175489.jpg 1,849 × 3,156; 453 KB
  
• 
  Diseases of the horse's foot (Page 55) BHL23615249.jpg 2,307 × 3,676; 940 KB
  
• 
  Diseases of the horse's foot (Page 55) BHL24175490.jpg 1,849 × 3,156; 480 KB
  
• Distinct-Contributions-of-Astrocytes-and-Pericytes-to-Neuroinflammation-Identified-in-a-3D-Human-pone.0150360.s006.ogv 5.1 s, 1,920 × 1,080; 3.53 MB
  
• Distinct-Contributions-of-Astrocytes-and-Pericytes-to-Neuroinflammation-Identified-in-a-3D-Human-pone.0150360.s007.ogv 5.1 s, 1,920 × 1,080; 2.36 MB
  
• Down-Regulation-of-Desmosomes-in-Cultured-Cells-The-Roles-of-PKC-Microtubules-and-pone.0108570.s001.ogv 18 s, 339 × 364; 1.95 MB
  
• Dramatic-increase-in-SHP2-binding-activity-of-Helicobacter-pylori-Western-CagA-by-EPIYA-C-srep15749-s2.ogv 6.0 s, 512 × 512; 2.45 MB
  
• Dramatic-increase-in-SHP2-binding-activity-of-Helicobacter-pylori-Western-CagA-by-EPIYA-C-srep15749-s3.ogv 6.0 s, 512 × 512; 2.05 MB
  
• Dramatic-increase-in-SHP2-binding-activity-of-Helicobacter-pylori-Western-CagA-by-EPIYA-C-srep15749-s4.ogv 6.0 s, 512 × 512; 1.89 MB
  
• 
  EB1911 Cytology - nervous and sensory cells.jpg 853 × 954; 212 KB
  
• 
  EB1911 Cytology - types of cells (2).jpg 789 × 737; 299 KB
  
• 
  EB1911 Cytology - types of nuclei.jpg 798 × 409; 144 KB
  
• 
  EB1911 Epithelial - Fig. 1.—Epithelial Cells of the Frog.jpg 106 × 179; 9 KB
  
• 
  EB1911 Epithelial - Fig. 10.jpg 265 × 128; 10 KB
  
• 
  EB1911 Epithelial - Fig. 11.jpg 131 × 223; 10 KB
  
• 
  EB1911 Epithelial - Fig. 12.jpg 197 × 164; 15 KB
  
• 
  EB1911 Epithelial - Fig. 13.jpg 210 × 86; 9 KB
  
• 
  EB1911 Epithelial - Fig. 2.jpg 116 × 77; 4 KB
  
• 
  EB1911 Epithelial - Fig. 3.jpg 112 × 90; 5 KB
  
• 
  EB1911 Epithelial - Fig. 4.jpg 191 × 271; 23 KB
  
• 
  EB1911 Epithelial - Fig. 5.jpg 109 × 113; 5 KB
  
• 
  EB1911 Epithelial - Fig. 9.jpg 87 × 281; 9 KB
  
• Edaravone-Protects-against-Methylglyoxal-Induced-Barrier-Damage-in-Human-Brain-Endothelial-Cells-pone.0100152.s005.ogv 9.0 s, 1,128 × 668; 597 KB
  
• Edaravone-Protects-against-Methylglyoxal-Induced-Barrier-Damage-in-Human-Brain-Endothelial-Cells-pone.0100152.s006.ogv 9.0 s, 1,128 × 668; 520 KB
  
• 
  Endometrial epithelium with proliferation - high mag.jpg 4,272 × 2,848; 1.85 MB
  
• 
  Endometrial epithelium with proliferation - intermed mag.jpg 4,272 × 2,848; 1.66 MB
  
• Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s008.ogv 3.0 s, 454 × 237; 792 KB
  
• Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s009.ogv 3.5 s, 1,024 × 1,024; 5.1 MB
  
• Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s010.ogv 6.3 s, 1,024 × 1,024; 20.39 MB
  
• Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s011.ogv 3.0 s, 159 × 133; 180 KB
  
• Endothelial-Cells-Use-a-Formin-Dependent-Phagocytosis-Like-Process-to-Internalize-the-Bacterium-ppat.1005603.s012.ogv 20 s, 236 × 179; 696 KB
  
• 
  Epitelio cebolla 2.jpg 755 × 773; 391 KB
  
• 
  Epitelio cilindrico ciliato.JPG 3,648 × 2,736; 2.5 MB
  
• 
  Epitelio cilindrico.JPG 3,648 × 2,736; 2.51 MB
  
• 
  Epitelio cubico.JPG 3,648 × 2,736; 2.55 MB
  
• 
  Epitelio intestinale.JPG 3,648 × 2,736; 2.31 MB
  
• 
  Epithelial cell cast.jpg 3,264 × 2,448; 1.55 MB
  
• 
  Epithelial Cells Human Inside of Mouth, Stained Microscope Slide 2.jpg 1,600 × 1,200; 717 KB
  
• 
  Epithelial Cells Human Inside of Mouth, Stained Microscope Slide.jpg 1,600 × 1,200; 966 KB
  
• 
  Epithelial cells in PAP Smear.jpg 8,000 × 6,000; 7.13 MB
  
• 
  Epithelial Tissues Simple Squamous Epithelium (frog) (27847646938).jpg 3,264 × 1,840; 4.75 MB
  
• 
  Epithelial Tissues Simple Squamous Epithelium (frog) (27847648428).jpg 3,264 × 1,840; 7.4 MB
  
• 
  Epithelial Tissues Simple Squamous Epithelium (frog) (39909208420).jpg 3,264 × 1,840; 5.82 MB
  
• Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s013.ogv 9.5 s, 696 × 520; 7.95 MB
  
• Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s014.ogv 12 s, 480 × 480; 762 KB
  
• Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s015.ogv 24 s, 696 × 520; 21.41 MB
  
• Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s016.ogv 24 s, 696 × 520; 11.61 MB
  
• Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s017.ogv 16 s, 696 × 520; 13.27 MB
  
• Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s018.ogv 17 s, 696 × 520; 13.69 MB
  
• Epithelial-Sheet-Folding-Induces-Lumen-Formation-by-Madin-Darby-Canine-Kidney-Cells-in-a-Collagen-pone.0099655.s019.ogv 10 s, 696 × 520; 10.15 MB
  
• 
  Epithelioid hemangioendothelioma Case 170 (5600771713).jpg 2,560 × 1,920; 2.22 MB
  
• 
  Epithelioid hemangioendothelioma Case 170 (5600772189).jpg 2,560 × 1,920; 2.57 MB
  
• 
  Epithelioid hemangioendothelioma Case 170 (5600772691).jpg 2,560 × 1,920; 2.8 MB
  
• 
  Epithelioid mesothelioma - Case 297 (15762835753).jpg 2,560 × 1,920; 2.24 MB
  
• 
  Epithelioid mesothelioma - Case 297 (16195219088).jpg 2,560 × 1,920; 2.08 MB
  
• 
  Epithelioid mesothelioma - Case 297 (16196621099).jpg 2,560 × 1,920; 2.16 MB
  
• 
  Epithelioid mesothelioma - Case 297 (16196943287).jpg 2,560 × 1,920; 2.29 MB
  
• 
  Epithelioid mesothelioma - Case 297 (16381120771).jpg 2,560 × 1,920; 2.38 MB
  
• 
  EPITHELIUM (GILL COVERING) OF A CHANNEL CATFISH DAMAGED BY EXPOSURE TO METHYL MERCURIC CHLORIDE IN THE WATER. CAMERA... - NARA - 551615.jpg 2,023 × 3,000; 660 KB
  
• ErbB2-Dependent-Chemotaxis-Requires-Microtubule-Capture-and-Stabilization-Coordinated-by-Distinct-pone.0055211.s008.ogv 8.0 s, 748 × 382; 404 KB
  
• Escaping-Underground-Nets-Extracellular-DNases-Degrade-Plant-Extracellular-Traps-and-Contribute-to-ppat.1005686.s003.ogv 2 min 33 s, 1,280 × 960; 10.33 MB
  
• Escaping-Underground-Nets-Extracellular-DNases-Degrade-Plant-Extracellular-Traps-and-Contribute-to-ppat.1005686.s004.ogv 28 s, 1,280 × 960; 4.9 MB
  
• Escaping-Underground-Nets-Extracellular-DNases-Degrade-Plant-Extracellular-Traps-and-Contribute-to-ppat.1005686.s005.ogv 23 s, 1,280 × 960; 2.03 MB
  
• Escaping-Underground-Nets-Extracellular-DNases-Degrade-Plant-Extracellular-Traps-and-Contribute-to-ppat.1005686.s006.ogv 55 s, 1,280 × 960; 5.93 MB
  
• Escaping-Underground-Nets-Extracellular-DNases-Degrade-Plant-Extracellular-Traps-and-Contribute-to-ppat.1005686.s007.ogv 55 s, 1,280 × 960; 6.68 MB
  
• 
  Esquema de les interaccions establertes per LIGHT i consequencies.jpg 1,152 × 720; 89 KB
  
• 
  Esquema que mostra les consecuències de la unió de DcR3 a LIGHT.png 598 × 319; 32 KB
  
• Essential-role-for-a-novel-population-of-binucleated-mammary-epithelial-cells-in-lactation-ncomms11400-s2.ogv 33 s, 1,920 × 1,076; 54.6 MB
  
• 
  Estomas lirio.jpg 868 × 1,193; 831 KB
  
• Factors-necessary-to-produce-basoapical-polarity-in-human-glandular-epithelium-formed-in-1741-7007-7-77-S2.ogv 7.0 s, 820 × 791; 977 KB
  
• Factors-necessary-to-produce-basoapical-polarity-in-human-glandular-epithelium-formed-in-1741-7007-7-77-S3.ogv 12 s, 300 × 300; 1.94 MB
  
• Factors-necessary-to-produce-basoapical-polarity-in-human-glandular-epithelium-formed-in-1741-7007-7-77-S4.ogv 7.8 s, 300 × 300; 233 KB