Category:Model organisms

model organism
	organisms used to study biology across species
	Wikipedia
Subclass of	organism
Authority control
	Reasonator; Scholia; Statistics;

A model organism is one that is extensively studied to understand particular biological phenomena, with the expectation that discoveries made in the model organism will provide insight into the workings of other organisms.

Subcategories

This category has the following 19 subcategories, out of 19 total.

A

► Agrobacterium tumefaciens‎ (1 C, 41 F)
► Aliivibrio fischeri‎ (2 F)
► Animal models of disease‎ (4 C, 1940 F)
► Arabidopsis thaliana‎ (8 C, 1 P, 73 F)

C

► Candida albicans‎ (2 C, 1 P, 36 F)
► Cell cultures‎ (4 C, 106 F)
► Chlamydomonas reinhardtii‎ (49 F)

D

► Dictyostelium discoideum‎ (1 P, 130 F)
► Drosophila melanogaster‎ (15 C, 1 P, 24 F)

G

► Genetic models‎ (137 F)

H

► Hydractinia symbiolongicarpus‎ (3 F)

I

► Inbred strains‎ (2 C, 3 F)

M

► Magnaporthe oryzae‎ (18 F)
► Model Protista‎ (127 F)
► Mus musculus‎ (8 C, 1 P, 92 F)

Media in category "Model organisms"

The following 200 files are in this category, out of 2,254 total.

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201108 Arabidopsis thaliana.png 342 × 596; 31 KB
201108 budding yeast.png 329 × 209; 22 KB
201108 fission yeast.png 351 × 226; 16 KB
201108 medaka.png 384 × 211; 25 KB
201108 mouse.png 450 × 211; 46 KB
201108 nematode.png 465 × 392; 80 KB
201108 silkworm.png 490 × 112; 33 KB
201108 Xenopus laevis.png 490 × 432; 173 KB
201108 zebrafish.png 489 × 194; 71 KB
201109 honey bee.png 492 × 387; 90 KB
201109 rat.png 490 × 300; 79 KB
201109 rice.png 355 × 620; 34 KB
201202 phage.png 304 × 456; 47 KB
201203 human.png 464 × 321; 31 KB
201204 paramecium.png 347 × 534; 204 KB
201204 Tobacco hornworm.png 450 × 336; 121 KB
201207 Bacillus subtilis.png 450 × 203; 118 KB
201207 volvox.png 419 × 420; 166 KB
201208 Cyanobacteria.png 394 × 367; 71 KB
201208 Hydra.png 425 × 488; 76 KB
201208 sea hare.png 450 × 316; 140 KB
201208 spear squid.png 545 × 522; 101 KB
201208 tobacco.png 436 × 459; 48 KB
201208 wheat.png 272 × 551; 34 KB
201307 chicken embryo.png 400 × 400; 57 KB
201308 mouse before dissection.png 500 × 375; 23 KB
201408 cat.png 400 × 400; 36 KB
201408 goat.png 400 × 400; 29 KB
201408 guinea pig.png 400 × 400; 49 KB
201408 pig.png 400 × 400; 14 KB
201408 rabbit.png 400 × 400; 44 KB
201409 cow.png 400 × 400; 21 KB
201409 cow.svg 400 × 400; 68 KB
201410 BALB.png 400 × 400; 15 KB
201410 C57BL6J.png 400 × 400; 11 KB
201410 chlamydomonas.png 400 × 375; 20 KB
201410 heterocephalus glaber.png 400 × 400; 25 KB
201410 Medaka d rR.png 400 × 400; 20 KB
201410 Medaka hd rR.png 400 × 400; 19 KB
201410 Medaka HNI.png 400 × 400; 21 KB
201410 mosquito.png 400 × 400; 15 KB
201410 MSM.png 400 × 400; 11 KB
201410 rhinoceros beetle.png 400 × 400; 18 KB
201412 charonda larva.png 400 × 400; 18 KB
201412 Diving beetle.png 400 × 400; 16 KB
201412 dog.png 400 × 400; 22 KB
201412 green peach aphid.png 400 × 400; 17 KB
201412 Japanese monkey.png 400 × 400; 31 KB
201412 nude mouse.png 400 × 400; 16 KB
201412 rat.png 400 × 400; 15 KB
201412 stick insect.png 400 × 400; 6 KB
201502 Chimpanzee.png 400 × 400; 40 KB
201502 Chinese soft shelled turtle.png 400 × 400; 23 KB
201502 ferret.png 400 × 400; 23 KB
201502 gorilla.png 400 × 400; 25 KB
201510 Red flour beetle.png 400 × 605; 182 KB
201510 Tobacco hornworm larvae.png 400 × 400; 106 KB
201511 silkworm.png 400 × 400; 66 KB
201601 Swallowtail butterfly.png 400 × 390; 80 KB
201606 01 mouse.png 493 × 250; 97 KB
201606 02 rat.png 409 × 193; 55 KB
201606 03 frog.png 373 × 418; 130 KB
201606 05 marmoset.png 450 × 319; 114 KB
201606 06 cyanobacteria.png 500 × 385; 239 KB
201606 07 Arabidopsis thaliana.png 266 × 418; 71 KB
201606 08 medaka.png 392 × 116; 48 KB
201606 09 zebrafish.png 406 × 140; 54 KB
201606 hamster.png 400 × 274; 112 KB
201611 melitaea cinxia sacarina.png 374 × 312; 69 KB
201611 melitaea cinxia sacarina.svg 512 × 426; 107 KB
201611 pediculus humanus humanus.png 305 × 204; 19 KB
201612 dendroctonus ponderosae.png 375 × 277; 76 KB
201612 heliconius melpomene.png 375 × 338; 99 KB
201612 heliconius melpomene.svg 512 × 384; 116 KB
201612 tetranychus urticae.png 375 × 299; 59 KB
201707 mouse 3D black.svg 512 × 213; 987 KB
201707 mouse 3D white.svg 512 × 213; 1.42 MB
201709 Smaller tea tortrix.svg 512 × 500; 203 KB
201802 Human Female anim.png 1,920 × 1,920; 10.66 MB
201802 Human Female.png 800 × 800; 89 KB
201802 Human Female.svg 512 × 512; 826 KB
201803 Human Male anim.png 1,920 × 1,920; 7.77 MB
201803 Human Male.png 800 × 800; 95 KB
201803 Human Male.svg 512 × 512; 870 KB
201805 human skeleton anim.png 1,920 × 1,920; 16.86 MB
201805 human skeleton.png 1,920 × 1,920; 694 KB
201805 human skeleton.svg 512 × 512; 926 KB
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2D-and-3D-Organized-Cardiac-Cells-Shows-Differences-in-Cellular-Morphology-Adhesion-Junctions-pone.0038147.s001.ogv 7.9 s, 375 × 348; 1,000 KB
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2D-and-3D-Organized-Cardiac-Cells-Shows-Differences-in-Cellular-Morphology-Adhesion-Junctions-pone.0038147.s002.ogv 1.5 s, 512 × 533; 1.66 MB
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3-D-Worm-Tracker-for-Freely-Moving-C.-elegans-pone.0057484.s003.ogv 32 s, 1,046 × 506; 753 KB
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3-D-Worm-Tracker-for-Freely-Moving-C.-elegans-pone.0057484.s004.ogv 33 s, 800 × 600; 558 KB
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3-D-Worm-Tracker-for-Freely-Moving-C.-elegans-pone.0057484.s005.ogv 12 s, 436 × 188; 36 KB
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3D-Multi-isotope-Imaging-Mass-Spectrometry-Reveals-Penetration-of-18O-Trehalose-in-Mouse-Sperm-pone.0042267.s001.ogv 19 s, 1,100 × 550; 8.29 MB
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3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s001.ogv 34 s, 512 × 492; 983 KB
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3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s002.ogv 27 s, 512 × 492; 1.69 MB
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3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s003.ogv 48 s, 512 × 492; 2.28 MB
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3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s004.ogv 26 s, 512 × 492; 240 KB
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3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s005.ogv 3.8 s, 184 × 179; 164 KB
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3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s006.ogv 22 s, 480 × 400; 2.08 MB
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3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s007.ogv 12 s, 512 × 492; 509 KB
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3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s008.ogv 12 s, 512 × 492; 429 KB
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3D-Quantitative-Imaging-of-Unprocessed-Live-Tissue-Reveals-Epithelial-Defense-against-Bacterial-pone.0024008.s009.ogv 12 s, 512 × 492; 658 KB
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3D-SIM-Super-Resolution-Microscopy-Reveals-a-Bead-Like-Arrangement-for-FtsZ-and-the-Division-pbio.1001389.s004.ogv 9.9 s, 1,540 × 905; 2.62 MB
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3D-SIM-Super-Resolution-Microscopy-Reveals-a-Bead-Like-Arrangement-for-FtsZ-and-the-Division-pbio.1001389.s005.ogv 10 s, 1,540 × 906; 5.28 MB
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3D-SIM-Super-Resolution-Microscopy-Reveals-a-Bead-Like-Arrangement-for-FtsZ-and-the-Division-pbio.1001389.s006.ogv 12 s, 1,920 × 1,080; 307 KB
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A-Beta-Herpesvirus-with-Fluorescent-Capsids-to-Study-Transport-in-Living-Cells-pone.0040585.s005.ogv 9.9 s, 220 × 220; 3.31 MB
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A-Beta-Herpesvirus-with-Fluorescent-Capsids-to-Study-Transport-in-Living-Cells-pone.0040585.s006.ogv 3.9 s, 256 × 256; 5.14 MB
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A-Beta-Herpesvirus-with-Fluorescent-Capsids-to-Study-Transport-in-Living-Cells-pone.0040585.s007.ogv 3.9 s, 256 × 256; 4.12 MB
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A-Bow-Tie-Genetic-Architecture-for-Morphogenesis-Suggested-by-a-Genome-Wide-RNAi-Screen-in-pgen.1002010.s010.ogv 2 min 10 s, 1,898 × 1,226; 8.63 MB
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A-Bow-Tie-Genetic-Architecture-for-Morphogenesis-Suggested-by-a-Genome-Wide-RNAi-Screen-in-pgen.1002010.s011.ogv 2 min 10 s, 1,898 × 1,226; 10.45 MB
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A-Broad-Requirement-for-TLS-Polymerases-η-and-κ-and-Interacting-Sumoylation-and-Nuclear-Pore-pgen.1002800.s010.ogv 34 s, 407 × 473; 2.51 MB
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A-Drosophila-Model-of-High-Sugar-Diet-Induced-Cardiomyopathy-pgen.1003175.s010.ogv 30 s, 320 × 240; 1.66 MB
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A-Drosophila-Model-of-High-Sugar-Diet-Induced-Cardiomyopathy-pgen.1003175.s011.ogv 30 s, 320 × 240; 1.24 MB
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A-Drosophila-Model-of-High-Sugar-Diet-Induced-Cardiomyopathy-pgen.1003175.s012.ogv 30 s, 320 × 240; 1.51 MB
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A-Drosophila-Model-of-High-Sugar-Diet-Induced-Cardiomyopathy-pgen.1003175.s013.ogv 30 s, 320 × 240; 986 KB
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A-Drosophila-Model-of-High-Sugar-Diet-Induced-Cardiomyopathy-pgen.1003175.s014.ogv 30 s, 320 × 240; 1.23 MB
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A-Drosophila-Model-of-High-Sugar-Diet-Induced-Cardiomyopathy-pgen.1003175.s015.ogv 30 s, 320 × 240; 742 KB
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A-Drosophila-Model-of-High-Sugar-Diet-Induced-Cardiomyopathy-pgen.1003175.s016.ogv 30 s, 320 × 240; 2.44 MB
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A-Drosophila-Model-of-High-Sugar-Diet-Induced-Cardiomyopathy-pgen.1003175.s017.ogv 30 s, 320 × 240; 1.94 MB
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A-Drosophila-Model-of-High-Sugar-Diet-Induced-Cardiomyopathy-pgen.1003175.s018.ogv 30 s, 320 × 240; 2.26 MB
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A-Dynamic-Real-Time-In-Vivo-and-Static-Ex-Vivo-Analysis-of-Granulomonocytic-Cell-Migration-in-the-pone.0035194.s002.ogv 2.2 s, 480 × 360; 183 KB
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A-Dynamic-Real-Time-In-Vivo-and-Static-Ex-Vivo-Analysis-of-Granulomonocytic-Cell-Migration-in-the-pone.0035194.s003.ogv 2.2 s, 480 × 360; 228 KB
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A-Dynamic-Real-Time-In-Vivo-and-Static-Ex-Vivo-Analysis-of-Granulomonocytic-Cell-Migration-in-the-pone.0035194.s004.ogv 4.3 s, 480 × 360; 489 KB
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A-Dynamic-Real-Time-In-Vivo-and-Static-Ex-Vivo-Analysis-of-Granulomonocytic-Cell-Migration-in-the-pone.0035194.s005.ogv 8.7 s, 480 × 360; 390 KB
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A-Fully-Automated-Microfluidic-Femtosecond-Laser-Axotomy-Platform-for-Nerve-Regeneration-Studies-in-pone.0113917.s008.ogv 27 s, 854 × 480; 752 KB
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A-Fully-Automated-Microfluidic-Femtosecond-Laser-Axotomy-Platform-for-Nerve-Regeneration-Studies-in-pone.0113917.s009.ogv 17 s, 854 × 480; 237 KB
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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
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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
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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
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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
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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
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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
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A-MAP6-Related-Protein-Is-Present-in-Protozoa-and-Is-Involved-in-Flagellum-Motility-pone.0031344.s007.ogv 37 s, 640 × 480; 1.12 MB
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A-MAP6-Related-Protein-Is-Present-in-Protozoa-and-Is-Involved-in-Flagellum-Motility-pone.0031344.s008.ogv 34 s, 320 × 240; 636 KB
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A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s007.ogv 12 s, 422 × 483; 825 KB
A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s008.ogv 4.9 s, 106 × 92; 13 KB
A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s009.ogv 4.9 s, 104 × 92; 14 KB
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A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s010.ogv 58 s, 512 × 1,127; 19.81 MB
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A-Microfluidic-System-for-Studying-Ageing-and-Dynamic-Single-Cell-Responses-in-Budding-Yeast-pone.0100042.s011.ogv 58 s, 512 × 1,127; 17.4 MB
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A-Motor-Gradient-and-Clustering-Model-of-the-Centripetal-Motility-of-MTOCs-in-Meiosis-I-of-Mouse-pcbi.1005102.s010.ogv 4.8 s, 768 × 768; 14.58 MB
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A-MultiSite-Gateway-Toolkit-for-Rapid-Cloning-of-Vertebrate-Expression-Constructs-with-Diverse-pone.0159277.s001.ogv 6.8 s, 568 × 444; 44 KB
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A-MusD-Retrotransposon-Insertion-in-the-Mouse-Slc6a5-Gene-Causes-Alterations-in-Neuromuscular-pone.0030217.s001.ogv 47 s, 640 × 480; 5.74 MB
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A-Neonatal-Model-of-Intravenous-Staphylococcus-epidermidis-Infection-in-Mice-24-h-Old-Enables-pone.0043897.s002.ogv 36 s, 960 × 540; 6.62 MB
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A-New-Zebrafish-Model-of-Oro-Intestinal-Pathogen-Colonization-Reveals-a-Key-Role-for-Adhesion-in-ppat.1002815.s002.ogv 18 s, 1,024 × 1,024; 3.56 MB
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A-Novel-Cysteine-Knot-Protein-for-Enhancing-Sperm-Motility-That-Might-Facilitate-the-Evolution-of-pone.0160445.s006.ogv 15 s, 360 × 240; 2.14 MB
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A-Novel-Cysteine-Knot-Protein-for-Enhancing-Sperm-Motility-That-Might-Facilitate-the-Evolution-of-pone.0160445.s007.ogv 15 s, 360 × 240; 1.08 MB
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A-Novel-Cysteine-Knot-Protein-for-Enhancing-Sperm-Motility-That-Might-Facilitate-the-Evolution-of-pone.0160445.s008.ogv 15 s, 426 × 240; 54 KB
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A-Novel-GUSB-Mutation-in-Brazilian-Terriers-with-Severe-Skeletal-Abnormalities-Defines-the-Disease-pone.0040281.s001.ogv 15 s, 640 × 480; 3.24 MB
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A-Novel-Mouse-Model-for-Multiple-Myeloma-(MOPC315.BM)-That-Allows-Noninvasive-Spatiotemporal-pone.0051892.s004.ogv 10 s, 560 × 544; 1.03 MB
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A-Novel-Mouse-Model-for-Multiple-Myeloma-(MOPC315.BM)-That-Allows-Noninvasive-Spatiotemporal-pone.0051892.s005.ogv 5.0 s, 560 × 544; 1.02 MB
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A-Novel-Newborn-Rat-Kernicterus-Model-Created-by-Injecting-a-Bilirubin-Solution-into-the-Cisterna-pone.0096171.s004.ogv 14 s, 640 × 480; 11.71 MB
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A-Novel-Reporter-Rat-Strain-That-Conditionally-Expresses-the-Bright-Red-Fluorescent-Protein-tdTomato-pone.0155687.s005.ogv 6.0 s, 320 × 222; 2.91 MB
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A-Novel-Reporter-Rat-Strain-That-Conditionally-Expresses-the-Bright-Red-Fluorescent-Protein-tdTomato-pone.0155687.s006.ogv 11 s, 240 × 240; 1.97 MB
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A-Novel-Reporter-Rat-Strain-That-Conditionally-Expresses-the-Bright-Red-Fluorescent-Protein-tdTomato-pone.0155687.s007.ogv 7.0 s, 1,920 × 1,080; 2.27 MB
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A-Novel-Role-for-the-GTPase-Activating-Protein-Bud2-in-the-Spindle-Position-Checkpoint-pone.0036127.s002.ogv 1.9 s, 152 × 92; 28 KB
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A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s006.ogv 16 s, 1,128 × 512; 5.24 MB
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A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s007.ogv 16 s, 1,128 × 512; 5.29 MB
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A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s008.ogv 20 s, 616 × 246; 1.54 MB
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A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s009.ogv 20 s, 616 × 246; 1.19 MB
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A-Novel-Zebrafish-ret-Heterozygous-Model-of-Hirschsprung-Disease-Identifies-a-Functional-Role-for-pgen.1006439.s010.ogv 20 s, 616 × 246; 1.39 MB
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A-Quorum-Sensing-Factor-in-Vegetative-Dictyostelium-Discoideum-Cells-Revealed-by-Quantitative-pone.0026901.s009.ogv 4.8 s, 294 × 67; 106 KB
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A-Quorum-Sensing-Factor-in-Vegetative-Dictyostelium-Discoideum-Cells-Revealed-by-Quantitative-pone.0026901.s010.ogv 7.5 s, 1,168 × 354; 4.44 MB
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A-Role-for-Mesenchyme-Dynamics-in-Mouse-Lung-Branching-Morphogenesis-pone.0041643.s003.ogv 5.4 s, 768 × 576; 8.07 MB
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A-Role-for-Mesenchyme-Dynamics-in-Mouse-Lung-Branching-Morphogenesis-pone.0041643.s004.ogv 10 s, 1,280 × 720; 3.05 MB
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A-Role-for-Mesenchyme-Dynamics-in-Mouse-Lung-Branching-Morphogenesis-pone.0041643.s005.ogv 7.5 s, 1,552 × 917; 6.02 MB
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A-Safeguard-Mechanism-Regulates-Rho-GTPases-to-Coordinate-Cytokinesis-with-the-Establishment-of-pbio.1001495.s019.ogv 2.8 s, 180 × 60; 41 KB
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A-Safeguard-Mechanism-Regulates-Rho-GTPases-to-Coordinate-Cytokinesis-with-the-Establishment-of-pbio.1001495.s020.ogv 2.8 s, 180 × 60; 43 KB
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A-Safeguard-Mechanism-Regulates-Rho-GTPases-to-Coordinate-Cytokinesis-with-the-Establishment-of-pbio.1001495.s021.ogv 5.7 s, 180 × 60; 91 KB
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A-Safeguard-Mechanism-Regulates-Rho-GTPases-to-Coordinate-Cytokinesis-with-the-Establishment-of-pbio.1001495.s022.ogv 3.5 s, 180 × 60; 39 KB
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A-Safeguard-Mechanism-Regulates-Rho-GTPases-to-Coordinate-Cytokinesis-with-the-Establishment-of-pbio.1001495.s023.ogv 3.3 s, 180 × 60; 30 KB
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A-Secreted-BMP-Antagonist-Cer1-Fine-Tunes-the-Spatial-Organization-of-the-Ureteric-Bud-Tree-during-pone.0027676.s010.ogv 30 s, 950 × 355; 3.2 MB
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A-Secreted-BMP-Antagonist-Cer1-Fine-Tunes-the-Spatial-Organization-of-the-Ureteric-Bud-Tree-during-pone.0027676.s011.ogv 21 s, 820 × 475; 4.52 MB
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A-Small-Molecule-Inhibitor-Partitions-Two-Distinct-Pathways-for-Trafficking-of-Tonoplast-Intrinsic-pone.0044735.s008.ogv 2.0 s, 1,025 × 1,025; 1.92 MB
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A-Small-Molecule-Inhibitor-Partitions-Two-Distinct-Pathways-for-Trafficking-of-Tonoplast-Intrinsic-pone.0044735.s009.ogv 2.2 s, 1,080 × 1,080; 343 KB
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A-Smell-That-Causes-Seizure-pone.0041899.s004.ogv 1 min 9 s, 640 × 480; 5.91 MB
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A-Smell-That-Causes-Seizure-pone.0041899.s005.ogv 1 min 9 s, 640 × 480; 5.99 MB
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A-Smell-That-Causes-Seizure-pone.0041899.s006.ogv 1 min 9 s, 640 × 480; 6.31 MB
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A-Smell-That-Causes-Seizure-pone.0041899.s007.ogv 1 min 9 s, 640 × 480; 6.68 MB
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A-Smell-That-Causes-Seizure-pone.0041899.s008.ogv 1 min 9 s, 640 × 480; 6.03 MB
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A-Smell-That-Causes-Seizure-pone.0041899.s009.ogv 1 min 9 s, 640 × 480; 6.51 MB
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A-Spatio-Temporal-Model-of-Notch-Signalling-in-the-Zebrafish-Segmentation-Clock-Conditions-for-pone.0016980.s002.ogv 1 min 0 s, 640 × 480; 673 KB
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A-Spatio-Temporal-Model-of-Notch-Signalling-in-the-Zebrafish-Segmentation-Clock-Conditions-for-pone.0016980.s003.ogv 1 min 0 s, 640 × 480; 1.59 MB
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A-Spatio-Temporal-Model-of-Notch-Signalling-in-the-Zebrafish-Segmentation-Clock-Conditions-for-pone.0016980.s004.ogv 1 min 0 s, 640 × 480; 983 KB
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A-Spatio-Temporal-Model-of-Notch-Signalling-in-the-Zebrafish-Segmentation-Clock-Conditions-for-pone.0016980.s005.ogv 1 min 0 s, 640 × 480; 2.48 MB
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A-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s003.ogv 13 min 48 s, 321 × 240; 68.25 MB
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A-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s004.ogv 6.6 s, 1,440 × 1,080; 3.98 MB
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A-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s005.ogv 4 min 9 s, 912 × 612; 6.12 MB
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A-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s006.ogv 8.3 s, 784 × 736; 2.8 MB
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A-Spinal-Cord-Window-Chamber-Model-for-In-Vivo-Longitudinal-Multimodal-Optical-and-Acoustic-Imaging-pone.0058081.s007.ogv 8.3 s, 784 × 736; 2.12 MB
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A-Splice-Site-Mutation-in-Laminin-α2-Results-in-a-Severe-Muscular-Dystrophy-and-Growth-pone.0043794.s001.ogv 6.6 s, 1,600 × 1,200; 127 KB
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A-Splice-Site-Mutation-in-Laminin-α2-Results-in-a-Severe-Muscular-Dystrophy-and-Growth-pone.0043794.s002.ogv 6.6 s, 1,600 × 1,200; 167 KB
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A-Splicing-Mutation-in-the-Novel-Mitochondrial-Protein-DNAJC11-Causes-Motor-Neuron-Pathology-pone.0104237.s012.ogv 16 s, 1,440 × 1,080; 1.78 MB
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A-Staging-Scheme-for-the-Development-of-the-Moth-Midge-Clogmia-albipunctata-pone.0084422.s004.ogv 8 min 50 s, 465 × 178; 12.3 MB
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A-Staging-Scheme-for-the-Development-of-the-Moth-Midge-Clogmia-albipunctata-pone.0084422.s005.ogv 45 s, 2,336 × 808; 10.32 MB
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A-Staging-Scheme-for-the-Development-of-the-Scuttle-Fly-Megaselia-abdita-pone.0084421.s003.ogv 8 min 50 s, 517 × 230; 17.44 MB
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A-Staging-Scheme-for-the-Development-of-the-Scuttle-Fly-Megaselia-abdita-pone.0084421.s004.ogv 2 min 45 s, 1,168 × 495; 10.21 MB
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A-Subpopulation-of-Smooth-Muscle-Cells-Derived-from-Melanocyte-Competent-Precursors-Prevents-Patent-pone.0053183.s003.ogv 6.8 s, 372 × 392; 1.78 MB
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A-Subpopulation-of-Smooth-Muscle-Cells-Derived-from-Melanocyte-Competent-Precursors-Prevents-Patent-pone.0053183.s004.ogv 6.8 s, 424 × 298; 1.56 MB
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A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s007.ogv 12 s, 134 × 154; 91 KB
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A-Tetraploid-Intermediate-Precedes-Aneuploid-Formation-in-Yeasts-Exposed-to-Fluconazole-pbio.1001815.s008.ogv 11 s, 124 × 90; 42 KB

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