Category:Gastrulation

**gastrulation**
	Phase in the early embryonic development of most animals.
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Instance of	biological process;
Subclass of	embryonic morphogenesis;
Has part(s)	endoderm formation; ectoderm formation; mesoderm formation;
Follows	Blastulation;
Authority file
	Q1141026; GND ID: 4297661-3; Library of Congress authority ID: sh85053502; Bibliothèque nationale de France ID: 12261762r; BNCF Thesaurus ID: 43227; J9U ID: 987007560577805171
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Subcategories

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

E

G

Germ disc (empty)
Germ layers (3 C, 32 F)

K

Koller's sickle (14 F)

P

T

The evolution of man: a popular exposition of the principal points of human ontogeny and phylogene (1 C, 66 F)

Media in category "Gastrulation"

The following 197 files are in this category, out of 197 total.

A conserved developmental mode emerges upon removal of species-specific extraembryonic environments.jpg 1,500 × 815; 216 KB
A putative model of how the organizer induces germ layer specification and patterning.png 3,666 × 2,059; 911 KB
ADMP establishes a self-regulatory network that controls the size of the organizer domain Spemann's organizer.jpg 1,011 × 529; 263 KB
ADMP provides dorsal signal required in Spemann's organizer at the onset of gastrulation.jpg 583 × 1,008; 461 KB
ADMP restricts the size of the organizer domain Spemann's organizer.jpg 818 × 665; 397 KB
Aligning pluripotent cells in culture with the pluripotent lineage in the embryo.png 1,074 × 836; 432 KB
ALK1 is required to restrict the size of the organizer domain Spemann's organizer.jpg 1,374 × 1,026; 1.27 MB
ALK2 is required for the expansion of the organizer domain Spemann's organizer.jpg 607 × 608; 301 KB
AMEs extended from the grafted st. 4 node or isolated st. 5 AME elicits the gathering of surrounding epiblast cells, which develop into secondary brain tissues.jpg 1,170 × 878; 951 KB
Amphibia formation of the neural tube, notochord, mesoderm, and coelom in vertebrates. cross-sections..jpg 1,777 × 712; 592 KB
Antedon rosacea early stages.jpg 801 × 735; 425 KB
Apposition and adhesion of blastocyst to luminal epithelium.jpg 2,017 × 1,363; 597 KB
Arquénteron.jpg 1,066 × 1,061; 73 KB
At E6.5, PGC precursors can still change fate when placed heterotopically.png 1,142 × 1,487; 1.29 MB
Avian development before gastrulation.jpg 2,767 × 3,354; 1.41 MB
Blocking the ALK1 receptor preferentially blocks the anti-organizer activity of ADMP Spemann's organizer.jpg 1,013 × 825; 671 KB
Branchiostoma formation of the neural tube, notochord, mesoderm, and coelom.jpg 1,172 × 857; 562 KB
Caudata process of invagination and mesoderm-formation.jpg 805 × 823; 698 KB
Cell contacts and pericellular matrix in the Xenopus gastrula chordamesoderm Abundance of cell contacts but not relative adhesiveness is reduced in adhesion factor morphants.PNG 1,685 × 2,100; 2.68 MB
Cell contacts and pericellular matrix in the Xenopus gastrula chordamesoderm LSM in FN, Has1 and Syn-4 depleted CM.PNG 1,338 × 2,011; 2.32 MB
Cell contacts and pericellular matrix in the Xenopus gastrula chordamesoderm LSM in gaps..PNG 1,342 × 1,857; 876 KB
Cell contacts and pericellular matrix in the Xenopus gastrula chordamesoderm LSM in normal and C-cad depleted CM..PNG 1,656 × 1,947; 2.9 MB
CENTROLECITHES.png 351 × 540; 12 KB
Characterization of MZfz7ab mutants at the embryo and tissue level.jpg 2,199 × 2,662; 667 KB
Classification of the different types of connective tissues.png 1,448 × 700; 708 KB
Columnar trophoblast-cells from the base of a fcetal villus of the placenta of the cow at the third month of pregnancy, to show phagocytosis.jpg 868 × 830; 208 KB
Comparative embryology of the vertebrates; with 2057 drawings and photos. grouped as 380 illus (1953) (20047812224).jpg 1,878 × 1,822; 927 KB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s009.ogv 6.2 s, 264 × 264; 701 KB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s010.ogv 6.2 s, 264 × 264; 388 KB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s011.ogv 6.2 s, 264 × 264; 454 KB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s012.ogv 7.6 s, 418 × 416; 1.51 MB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s013.ogv 7.5 s, 419 × 416; 680 KB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s014.ogv 6.5 s, 512 × 512; 532 KB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s015.ogv 10 s, 308 × 309; 426 KB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s016.ogv 11 s, 1,024 × 529; 2.41 MB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s017.ogv 5.7 s, 370 × 383; 589 KB
Control-of-Directed-Cell-Migration-In-Vivo-by-Membrane-to-Cortex-Attachment-pbio.1000544.s018.ogv 6.5 s, 370 × 370; 738 KB
Coordination of Cell Polarity during Xenopus Gastrulation A heterogeneous combination of tissues can confer planar cell polarity..png 2,916 × 4,607; 4.35 MB
Coordination of Cell Polarity during Xenopus Gastrulation EB3 shows polarized movement independent of cell morphology in the early phases..png 3,487 × 4,215; 6.24 MB
Coordination of Cell Polarity during Xenopus Gastrulation Notochord-somite boundary andor extra-notochord tissue attracts EB3 movement..png 2,989 × 2,442; 4.15 MB
Cultured ppl explant from MZfz7ab;Tg(gscGFP-CAAX) mutant embryos expressing membrane-RFP and Opto-Fz7 and injected with 9-cis-retinal.ogv 12 s, 986 × 720; 990 KB
Deficient-Induction-Response-in-a-Xenopus-Nucleocytoplasmic-Hybrid-pbio.1001197.s005.ogv 13 s, 434 × 668; 351 KB
DELAMINATION.png 934 × 573; 26 KB
Detection of lymphangiogenesis by whole-mount staining LYVE1 (red) and CD31 (green) at different time points (24 week) after vascular transplantation..png 3,199 × 1,678; 2.5 MB
Development of the notochord in CS9 to CS12 (19–30 days).tiff 1,300 × 1,308; 1.82 MB
Developmental outcome of the node graft labeled with mCherry depended on the graft sites. (A) Development of the node grafts from mCherry-expressing st. 4 Japanese quail embryos.jpg 1,336 × 962; 808 KB
Diagram of cross-sections of vertebrate embryos to show the differentiation of the epimere into dermatome (skin-producer), myotome (muscle-producer), and sclerotome (skeleton-producer).jpg 1,754 × 766; 660 KB
Diaphanous-Related-Formin-2-and-Profilin-I-Are-Required-for-Gastrulation-Cell-Movements-pone.0003439.s006.ogv 8.1 s, 650 × 512; 1.79 MB
Differentiation of the mesoderm in holoblastic and meroblastic types of development.jpg 1,617 × 1,467; 1,022 KB
Diversity of vertebrate gastrulation.jpg 1,073 × 1,021; 415 KB
During gastrulation, the VE is important for the formation of normal number of PGC precursors.jpg 1,200 × 1,263; 990 KB
Early blastocyst adhesion and invasion in primate and mouse.jpg 1,961 × 810; 312 KB
Early ectodermal patterning at the anterior epiblast.jpg 1,168 × 724; 442 KB
Early gastrulation in amphibian embryos.png 3,570 × 1,358; 1,007 KB
Early human embryo (01).jpg 675 × 563; 209 KB
Early human embryo (02).jpg 915 × 432; 257 KB
Early human embryo.jpg 761 × 738; 272 KB
Early pre- and post-implantation mouse embryonic development until the egg cylinder stage.png 1,089 × 1,228; 613 KB
EMBRIO 1 nltxt.jpg 559 × 119; 83 KB
EMBRIO 1.jpg 571 × 116; 14 KB
EMBRIO 2.jpg 943 × 729; 59 KB
EMBRIO 3.jpg 341 × 346; 17 KB
EMBRIO 4.jpg 376 × 193; 10 KB
EMBRIO 5.jpg 398 × 283; 10 KB
Embryonic development in mice versus primates.jpg 1,016 × 1,286; 798 KB
Embryonic origins of skeletal muscles mouse embryo.png 1,573 × 695; 425 KB
EPIBOLIE.png 934 × 573; 26 KB
Epiboly Drawing.png 2,550 × 2,073; 5.64 MB
Epiboly svg hariadhi.svg 512 × 512; 17 KB
Example of a Gastruloid.png 673 × 336; 134 KB
Experimental manipulation of the gastrulation mode in different organisms.jpg 1,166 × 1,480; 850 KB
Expression patterns of foxc1a, tbx1 and tbx20 genes resolve into three longitudinal strips in zebrafish head mesoderm (3ss, 11hpf).jpg 1,602 × 799; 843 KB
Extraembryonic tissues during amniote development.jpg 1,456 × 1,398; 1.97 MB
Feto-maternal interface showing uterine milk.jpg 2,994 × 1,475; 458 KB
Fig 3. Proceso de gastrulación en el nemátodo C.elegans..png 1,278 × 427; 121 KB
Figure 2. Types of implantation. Types of implantation strategies employed by mouse, marmoset, rhesus macaque and human.png 1,609 × 730; 647 KB
Formation of the primitive body plan following gastrulation in the mouse.png 1,279 × 1,187; 1,016 KB
Frog egg gray crescent.jpg 1,060 × 816; 133 KB
From mesenchymal stem cells to specific connective tissue cell types.png 1,085 × 877; 337 KB
Gastrulatie.png 1,780 × 1,520; 1.6 MB
LL-Q150 (fra)-WikiLucas00-gastrulation.wav 1.4 s; 131 KB
Gastrulation (01).jpg 1,001 × 980; 289 KB
Gastrulation forms in vertebrates.jpeg 1,280 × 1,173; 88 KB
Gastrulation gives rise to the three primary germ layers of the mouse embryo proper..png 1,209 × 806; 202 KB
Gastrulation of Asterina pectinifer.jpg 1,351 × 521; 212 KB
Gastrulation stomodeal invagination, dorsal folds form; elongation of germ band; clear parasegmentation. Aphidoletes aphidimyza.png 850 × 592; 591 KB
Gastrulation.png 801 × 486; 63 KB
Gastrulatsiooni toimumine.jpg 690 × 354; 67 KB
Gastrulação.png 695 × 349; 13 KB
Gray12.png 1,115 × 491; 192 KB
HETEROLECITHES.png 322 × 224; 5 KB
Histological sections of three stage 8 (17–19 days) human embryos.tiff 1,234 × 652; 702 KB
Human embryo Recent findings about tissue-specific lymphatic progenitor cells..jpg 1,380 × 912; 289 KB
Human embryo The molecular pathways involved in LEC differentiation from embryonic progenitors..jpg 2,211 × 1,888; 1.31 MB
Human embryo The molecular pathways responsible for LEC differentiation during adulthood stage.jpg 2,186 × 1,863; 1.2 MB
Human embryo. The origin of lymphatic progenitor cells and physiological lymphagiogenesis process at E12.5.png 3,258 × 1,593; 1.25 MB
Human notochord development textbook concepts compared to our proposed theory..png 1,300 × 504; 118 KB
Implantation depth in primates at lacunar stage.jpg 1,985 × 2,656; 1.13 MB
INGRESSION.png 934 × 573; 26 KB
Initial invasion of luminal epithelium.jpg 1,441 × 622; 281 KB
Koller's Sickle and Avian Gastrulation.jpg 1,967 × 1,968; 863 KB
Koller's sickle and its role in avian gastrulation.jpg 271 × 448; 47 KB
Kudede päritolu gastrulatsioonis.jpg 600 × 700; 74 KB
Lacertilia From medial vertical sections through embryonic disk showing five successive stages in gastrulation.jpg 2,040 × 2,281; 1.58 MB
Left-right asymmetry in the sea urchin - journal.pbio.1001404.g001.png 1,459 × 420; 235 KB
Live imaging of Histone H2B–GFP mouse embryo at E6.5.ogv 6.4 s, 804 × 631; 674 KB
Live imaging of mouse embryo at E5.5.ogv 4.3 s, 366 × 375; 145 KB
Live imaging of mouse embryo at E6.ogv 8.6 s, 520 × 491; 497 KB
Live imaging of the whole mouse embryo at E6 (A to D) and E5.5. (E to H).png 1,910 × 2,240; 3.3 MB
Live imaging of the whole mouse embryo at E6.5 using DSLM.png 2,059 × 1,366; 2.24 MB
Mathematical model for the interaction between ALK1, ALK2, and ADMP Spemann's organizer.jpg 1,189 × 766; 293 KB
Mesoderm-ring to -crescent transition.jpg 1,173 × 1,826; 1.01 MB
Meyers b5 s0350 b1.png 570 × 218; 53 KB
Modeling-Gastrulation-in-the-Chick-Embryo-Formation-of-the-Primitive-Streak-pone.0010571.s002.ogv 17 s, 648 × 492; 16.95 MB
Modeling-Gastrulation-in-the-Chick-Embryo-Formation-of-the-Primitive-Streak-pone.0010571.s003.ogv 9.5 s, 700 × 350; 5.23 MB
Modeling-Gastrulation-in-the-Chick-Embryo-Formation-of-the-Primitive-Streak-pone.0010571.s004.ogv 21 s, 700 × 350; 17.02 MB
Modeling-Gastrulation-in-the-Chick-Embryo-Formation-of-the-Primitive-Streak-pone.0010571.s005.ogv 22 s, 1,050 × 350; 19.89 MB
Modeling-Gastrulation-in-the-Chick-Embryo-Formation-of-the-Primitive-Streak-pone.0010571.s007.ogv 15 s, 700 × 700; 10.8 MB
Modeling-Gastrulation-in-the-Chick-Embryo-Formation-of-the-Primitive-Streak-pone.0010571.s008.ogv 30 s, 1,050 × 350; 22.29 MB
Modeling-Gastrulation-in-the-Chick-Embryo-Formation-of-the-Primitive-Streak-pone.0010571.s009.ogv 0.0 s, 1,056 × 352; 22.13 MB
Morphological characterization of END2, PYS2 and XEN cells.png 2,068 × 1,632; 2.77 MB
Morphological differences between human and mouse gastrulation.jpg 2,994 × 3,411; 397 KB
Movement of MZfz7ab mutant and wt donor ppl cells (magenta) transplanted into the ppl of wt Tg(gscGFP-CAAX) host embryos.ogv 10 s, 960 × 720; 1.64 MB
Movement of MZfz7ab mutant donor ppl cells expressing Opto-Fz7, injected with 9-cis-retinal and transplanted into the ppl of a wt Tg(gscGFP-CAAX) host.ogv 10 s, 960 × 720; 817 KB
MZfz7ab donor cells expressing Opto-Fz7 and injected with 9-cis-retinal transplanted into the ppl of a wt Tg(gscGFP-CAAX) host ppl.ogv 9.1 s, 960 × 720; 1.4 MB
MZfz7ab mutant and wt donor ppl cells (magenta) transplanted into the ppl of a Tg(gscGFP-CAAX) host embryo with the same genotype (homotypic transplantations).ogv 17 s, 960 × 720; 1.1 MB
MZfz7ab prechordal plate progenitor migration.jpg 1,747 × 1,802; 438 KB
MZfz7ab prechordal plate progenitor protrusion formation.jpg 2,042 × 2,918; 599 KB
Nematode Variations in gastrulation.jpg 1,800 × 1,909; 1.74 MB
Neurula.png 873 × 317; 21 KB
OLIGOLECITHES.png 324 × 235; 4 KB
Only epiblast cells that contact the posterior part of the embryo become PGCs.png 1,102 × 1,378; 1.06 MB
Organization of endodermal progenitors and extraembryonic endoderm at onset of gastrulation in chick and mouse embryos..jpg 751 × 776; 335 KB
Overview of the developing notochord in relation to the fusion of the dorsal aortae human embryo.png 1,300 × 880; 673 KB
Paracentrotus lividus gastrula.jpg 1,245 × 934; 1.08 MB
PhOTO-Zebrafish-A-Transgenic-Resource-for-In-Vivo-Lineage-Tracing-during-Development-and-pone.0032888.s005.ogv 1.7 s, 1,984 × 1,952; 2.06 MB
PhOTO-Zebrafish-A-Transgenic-Resource-for-In-Vivo-Lineage-Tracing-during-Development-and-pone.0032888.s006.ogv 1.7 s, 1,984 × 1,476; 1.5 MB
PhOTO-Zebrafish-A-Transgenic-Resource-for-In-Vivo-Lineage-Tracing-during-Development-and-pone.0032888.s007.ogv 2.5 s, 1,972 × 1,972; 5.84 MB
PhOTO-Zebrafish-A-Transgenic-Resource-for-In-Vivo-Lineage-Tracing-during-Development-and-pone.0032888.s008.ogv 2.5 s, 1,972 × 1,476; 3.08 MB
Pluripotency factor expression during early embryonic development. Pluripotency factors are expressed throughout the pluripotency state (2).jpg 1,015 × 642; 186 KB
Pluripotency factor expression during early embryonic development. Pluripotency factors are expressed throughout the pluripotency state (3).jpg 1,298 × 758; 234 KB
Pluripotency factor expression during early embryonic development. Pluripotency factors are expressed throughout the pluripotency state.jpg 1,158 × 791; 489 KB
Ppl and overlying neurectoderm cell movements in MZfz7ab mutant and wt Tg(gscGFP-CAAX) embryos from 7 to 10 hpf.ogv 13 s, 884 × 720; 2.83 MB
Ppl movement in a MZfz7ab; Tg(gscTurbo-RFP) embryo expressing H2B-GFP and Opto-Fz7 and injected with 9-cis-retinal.ogv 13 s, 718 × 720; 3.52 MB
Presumptive primitive streak area of ROCK-inhibited embryos reveals abnormality of orientation of cell divisions as well as of actin distribution.jpg 1,277 × 1,154; 921 KB
Primary axis formation during gastrulation in metazoan embryos and corresponding artificial systems.jpg 1,500 × 1,014; 199 KB
Primary Bovine Extra-Embryonic Cultured Cells. Phenotypes of in vivo micro-dissected cell types at D18.png 1,153 × 1,153; 972 KB
Proximal VE and ExE are sufficient to induce PGCs in distal epiblast.png 1,142 × 2,493; 2.96 MB
Proximal visceral endoderm and extraembryonic ectoderm regulate the formation of primordial germ cell precursors.tiff 1,791 × 827; 678 KB
Reconstructed epiblast nuclei from a lateral view.ogv 6.4 s, 1,031 × 728; 518 KB
Reconstructed epiblast nuclei from distal view.ogv 6.4 s, 924 × 636; 571 KB
Reconstructed trajectories of mesodermal cells.ogv 4.3 s, 637 × 567; 807 KB
Regulation-of-Embryonic-Cell-Adhesion-by-the-Prion-Protein-pbio.1000055.sv001.ogv 8.0 s, 299 × 299; 1.19 MB
Regulation-of-Embryonic-Cell-Adhesion-by-the-Prion-Protein-pbio.1000055.sv002.ogv 8.0 s, 356 × 357; 1.66 MB
Regulation-of-Embryonic-Cell-Adhesion-by-the-Prion-Protein-pbio.1000055.sv003.ogv 12 s, 158 × 155; 88 KB
Regulation-of-Embryonic-Cell-Adhesion-by-the-Prion-Protein-pbio.1000055.sv004.ogv 12 s, 158 × 156; 92 KB
Regulation-of-Embryonic-Cell-Adhesion-by-the-Prion-Protein-pbio.1000055.sv005.ogv 2.1 s, 1,024 × 1,024; 1.68 MB
Regulation-of-Embryonic-Cell-Adhesion-by-the-Prion-Protein-pbio.1000055.sv006.ogv 12 s, 523 × 512; 340 KB
RG347357480 Fig1.png 850 × 377; 60 KB
Rho kinase (ROCK1) is expressed during the mammalian gastrulation.jpg 795 × 563; 466 KB
Schematic dorsal overview of the developing notochord and the fusion of the paired dorsal aortae in humans.tiff 1,300 × 619; 146 KB
Sea Urchin Gastrulation.png 752 × 300; 187 KB
Single-cell RNA-sequencing (scRNAseq) analysis of the posterior tissue precursors during posterior axis formation chicken embryo.jpg 1,888 × 2,855; 1,001 KB
Spatio-temporal expression of anterior lateral plate mesoderm (ALPM) marker tbx20 during zebrafish early development.jpg 1,598 × 695; 531 KB
Spatio-temporal expression of cranial lateral mesoderm marker genes (tbx1, cyp26c1 and alx1) during zebrafish early development.jpg 1,595 × 1,988; 2.31 MB
Spatio-temporal expression of cranial paraxial mesoderm marker genes (foxc1a and fsta) during zebrafish early development.jpg 1,598 × 1,345; 1.02 MB
Spatio-temporal expression of prechordal plate marker genes (gsc, pitx2 and isl1) during zebrafish early development.jpg 1,595 × 1,354; 1.42 MB
Spectrum of pluripotency in the human embryo.jpg 1,950 × 1,006; 324 KB
Spectrum of pluripotency in the mouse embryo.jpg 1,959 × 838; 904 KB
Stages of mammals embryos.jpg 976 × 1,102; 849 KB
Staging Human Gastrulation.jpg 3,493 × 3,010; 538 KB
TELOLECITHES.png 487 × 384; 5 KB
The ALK2 receptor positively regulates the expression of organizer genes Spemann's organizer.jpg 1,156 × 845; 961 KB
The Biological bulletin (19758011533).jpg 2,004 × 1,310; 608 KB
The changing morphology and tissue composition of the mouse conceptus.jpg 1,881 × 1,891; 651 KB
The evolution of man (1920) plate III.jpg 753 × 1,173; 1.21 MB
The evolution of man- a popular exposition of the principal points of human ontogeny and phylogeny (1920) (14760848311).jpg 909 × 1,445; 1.87 MB
The process during the embryo implantation.jpg 1,944 × 567; 217 KB
Time-lapse changes of triangles connected neighboring nuclei at the first time point (2).ogv 5.5 s, 638 × 541; 1.77 MB
Time-lapse migrations of mesodermal cells.ogv 9.1 s, 635 × 569; 2.26 MB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s003.ogv 32 s, 450 × 500; 9.66 MB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s004.ogv 28 s, 450 × 500; 7.62 MB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s005.ogv 4.4 s, 481 × 509; 1.93 MB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s006.ogv 20 s, 256 × 246; 952 KB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s007.ogv 11 s, 200 × 237; 205 KB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s008.ogv 3.1 s, 430 × 428; 664 KB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s009.ogv 1.8 s, 430 × 428; 388 KB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s010.ogv 6.9 s, 508 × 511; 4.04 MB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s011.ogv 12 s, 500 × 355; 6.95 MB
Tissue-Tissue-Interaction-Triggered-Calcium-Elevation-Is-Required-for-Cell-Polarization-during-pone.0008897.s012.ogv 33 s, 508 × 510; 13.02 MB
Tracking of EB3-GFP movement shows microtubule growth in Xenopus explants.png 2,243 × 2,960; 1.42 MB
Transversal sections of the notochord in a 24 hour stage chicken embryo.tiff 348 × 621; 283 KB
VE and ExE are both important for the formation of PGC precursors.jpg 1,200 × 800; 554 KB
Vertebrates Transverse sections through the germshield of a higher Vertebrate, showing the origin of the tubular from the bent germ-layerrudimentary.jpg 1,515 × 689; 663 KB
Xenopus-Nucleocytoplasmic-Hybrid.ogv 15 s, 292 × 782; 557 KB
Α5β1-Integrin-Mediated-Adhesion-to-Fibronectin-Is-Required-for-Axis-Elongation-and-Somitogenesis-in-pone.0022002.s006.ogv 14 s, 543 × 446; 1,001 KB
Α5β1-Integrin-Mediated-Adhesion-to-Fibronectin-Is-Required-for-Axis-Elongation-and-Somitogenesis-in-pone.0022002.s007.ogv 13 s, 554 × 445; 1.08 MB

Category:Gastrulation

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