Category:Epithelial cells

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epithelial cell

cell type

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Instance of

cell type

Subclass of

animal cell
somatic cell

Part of

epithelium

Authority file
Q15176415 National Library of Spain ID: XX550132
Reasonator Scholia Wikidocumentaries PetScan statistics WikiMap Locator tool KML file Search depicted

Subcategories

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

B

Brush Border‎ (1 C, 9 F)
Buccal epithelial cells‎ (22 F)

E

Endothelial cells‎ (3 C, 323 F)
Enterocytes‎ (37 F)
Epidermal cells‎ (3 C, 2 F)
Epithelial cells in microscopic examination of the urine‎ (33 F)

F

Epithelial cells by fluorescence microscopy‎ (9 F)

G

Goblet cells‎ (3 C, 33 F)

I

IMCD3 cells‎ (4 F)

N

Neuroepithelial cells‎ (1 C, 32 F)

P

Paneth cells‎ (1 C, 6 F)

R

Recombinant GPI-Anchored TIMP-1 Stimulates Growth and Migration of Peritoneal Mesothelial Cells‎ (5 F)

Media in category "Epithelial cells"

The following 200 files are in this category, out of 558 total.

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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

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