Category:Blastocyst

**blastocyst**
	structure formed around day 5 of mammalian embryonic development
	Upload media
	Wikipedia
Instance of	class of anatomical entity;
Subclass of	conceptus; embryonic structure;
Authority file
	Q227717; NDL Authority ID: 00562770; BabelNet ID: 00011149n
	Reasonator; Scholia; Wikidocumentaries; PetScan; statistics; WikiMap; Locator tool; KML file; Search depicted;

Subcategories

This category has only the following subcategory.

I

Inner cell mass (3 F)

Media in category "Blastocyst"

The following 139 files are in this category, out of 139 total.

. Endoderm development in the mouse embryo.png 1,049 × 744; 435 KB
. Inhibition of p38 MAPK affects TJP1 localization after 12 h and 24h. Blastocysts.png 1,810 × 1,335; 2.43 MB
Aligning pluripotent cells in culture with the pluripotent lineage in the embryo.png 1,074 × 836; 432 KB
Anterograde and retrograde transport along the cytoplasmic string.jpg 791 × 817; 373 KB
Apical junctional complex formation and maturation into distinct TJ, AJ, D, G starting from the 4-cell stage until the blastocyst stage.jpg 2,453 × 1,954; 442 KB
Apposition and adhesion of blastocyst to luminal epithelium.jpg 2,017 × 1,363; 597 KB
At E6.5, PGC precursors can still change fate when placed heterotopically.png 1,142 × 1,487; 1.29 MB
Blactocyst.tif 2,000 × 1,741; 9.96 MB
Blastocisti.png 320 × 320; 26 KB
Blastocisto2.jpg 960 × 720; 45 KB
Blastocyst - 2.png 341 × 322; 26 KB
Blastocyst embryo.png 500 × 375; 115 KB
Blastocyst English.svg 608 × 504; 88 KB
Blastocyst(blastotsüst) Eesti.png 608 × 504; 66 KB
Blastocyst, day 5.JPG 640 × 480; 23 KB
Blastocyst.JPG 500 × 375; 106 KB
Blastocyste.png 507 × 600; 67 KB
Blastocyt hatch from the zona pellucida and then transition to large spherical, tubular and filamentous conseptuses.png 1,302 × 904; 806 KB
BMP4 expression is excluded from the AVH.png 1,440 × 2,187; 4.81 MB
Bovine Blastocyst.JPG 2,560 × 1,920; 3.04 MB
BRACHYURY expression commences at stage 4-EmE.png 1,442 × 1,199; 3.18 MB
Cattle embryo staging system from post-hatching to the start of gastrulation.png 1,961 × 2,014; 1.35 MB
Cattle Embryos from Hatched Blastocyst to Early Gastrulation Stages. CER1 expression.png 1,253 × 2,100; 5.73 MB
Cdc20-Is-Critical-for-Meiosis-I-and-Fertility-of-Female-Mice-pgen.1001147.s004.ogv 22 s, 1,404 × 700; 527 KB
Cdc20-Is-Critical-for-Meiosis-I-and-Fertility-of-Female-Mice-pgen.1001147.s005.ogv 24 s, 1,404 × 700; 616 KB
Cell shape changes within the primitive endoderm during implantation.ogv 17 s, 514 × 250; 1.13 MB
Cellular debris or fragments in the zona pellucida of day 5, 6, and 7 blastocysts.png 3,267 × 2,024; 2.36 MB
Characterisation-of-the-dynamic-behaviour-of-lipid-droplets-in-the-early-mouse-embryo-using-1471-2121-11-38-S2.ogv 9.5 s, 567 × 501; 926 KB
Characterisation-of-the-dynamic-behaviour-of-lipid-droplets-in-the-early-mouse-embryo-using-1471-2121-11-38-S3.ogv 7.8 s, 567 × 501; 827 KB
Characterisation-of-the-dynamic-behaviour-of-lipid-droplets-in-the-early-mouse-embryo-using-1471-2121-11-38-S4.ogv 6.2 s, 567 × 501; 940 KB
Comparison across several species of establishment of hypoblast signalling centre.png 1,624 × 1,234; 90 KB
Cucumaria doliolum embryo at the end of the fourth day.jpg 604 × 689; 513 KB
Development of embryonic disc and primary villi.jpg 961 × 815; 720 KB
Diagram of Blastocyst stage.png 671 × 509; 329 KB
Didelphidae early development of blastoderm.jpg 1,045 × 788; 621 KB
Different degrees of fragmentation in cleavage stage human embryos.png 3,135 × 1,897; 1.07 MB
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 pre- and post-implantation mouse embryonic development until the egg cylinder stage.png 1,089 × 1,228; 613 KB
EB development and TJ formation.png 1,350 × 2,712; 1.93 MB
Embryonic development mouse.png 2,200 × 1,173; 815 KB
Entire blastomeres are excluded upon blastocyst formation.png 3,130 × 1,809; 1.46 MB
EOMES expression.png 2,163 × 1,440; 5.5 MB
Expanded blastocyst with cytoplasmic strings (CS+ group) and without CS (CS- group).jpg 796 × 386; 64 KB
Expression of extraembryonic ectoderm and ectoplacental cone markers in Cul4b-null embryos.png 2,220 × 1,397; 1.74 MB
Extraembryonic ectoderm folding is followed by visceral endoderm expansion 1.ogv 19 s, 452 × 239; 1.18 MB
Extraembryonic ectoderm folding is followed by visceral endoderm expansion.ogv 11 s, 888 × 341; 2.32 MB
Extraembryonic tissues during amniote development.jpg 1,456 × 1,398; 1.97 MB
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 extraembryonic endoderm in mouse development.png 2,262 × 1,908; 1.16 MB
Four diagrams showing hypothetical stages of early human embryos.jpg 1,631 × 1,434; 943 KB
Further Differentiation of Zygote (Hypothetical).png 552 × 445; 422 KB
Generation and analysis of a combined human sequencing dataset. Human embryo.png 2,168 × 2,153; 2.36 MB
Histotroph includes molecules secreted or transported into the uterine lumen to stimulate growth and development of the conceptus.png 618 × 587; 407 KB
Human blastocyst.jpg 246 × 247; 13 KB
Human blastoid.jpg 1,089 × 1,089; 1.24 MB
Hypothetical scheme for the possible involvement of APNCD13 and DPPIVCD26 expressed in MVslysosomes in blastocyte adhesion to EECs.png 3,213 × 1,867; 1.7 MB
Images of a mid-blastocyst stained for DNA and early ICM marker SOX2. A slice is shown for transmitted light and maximum intensity projections are shown for fluorescence images.jpg 1,383 × 786; 482 KB
Implantation depth in primates at lacunar stage.jpg 1,985 × 2,656; 1.13 MB
Implanting embryo.jpg 1,497 × 2,381; 215 KB
Inactivation-of-aPKCλ-Reveals-a-Context-Dependent-Allocation-of-Cell-Lineages-in-Preimplantation-pone.0007117.s002.ogv 35 s, 199 × 212; 51 KB
Inactivation-of-aPKCλ-Reveals-a-Context-Dependent-Allocation-of-Cell-Lineages-in-Preimplantation-pone.0007117.s003.ogv 17 s, 314 × 315; 174 KB
Inbound2890638149762117997.jpg 3,000 × 4,000; 2.24 MB
Inhibition of apical constriction results in defective egg cylinder formation Mouse.ogv 12 s, 434 × 452; 766 KB
Initial invasion of luminal epithelium.jpg 1,441 × 622; 281 KB
Intra-epiblast cavitation and RL disappearance as marked by CRIPTO and FURIN expression respectively.png 1,445 × 1,950; 3.17 MB
IVEN development and implementation in preimplantation stages of the murine embryo..PNG 4,110 × 4,600; 6.18 MB
Junctional mRNA expression levels from mice, shown in order as cumulus-oocyte-complex, 2-cell, 4-cell, uncompacted 8-cell, compacted 8-cell, 16-cell, early blastocyst and late blastocyst stages.jpg 1,821 × 1,729; 251 KB
Lipid-rafts-enriched-in-monosialylGb5Cer-carrying-the-stage-specific-embryonic-antigen-4-epitope-1471-213X-11-22-S1.ogv 12 s, 174 × 174; 44 KB
Loss of Cul4b in the ICM formed from blastocysts cultured in vitro causes proliferation defects.png 2,220 × 1,725; 3.13 MB
Loss-of-Maternal-ATRX-Results-in-Centromere-Instability-and-Aneuploidy-in-the-Mammalian-Oocyte-and-pgen.1001137.s004.ogv 5.3 s, 95 × 107; 14 KB
Loss-of-Maternal-ATRX-Results-in-Centromere-Instability-and-Aneuploidy-in-the-Mammalian-Oocyte-and-pgen.1001137.s005.ogv 5.3 s, 91 × 105; 15 KB
Major changes in nuclear and global chromatin structure occur in nuclei from the zygote to the E5.5 postimplantation stage embryo. Mouse.png 4,071 × 2,097; 379 KB
Many human blastoids.jpg 1,500 × 671; 620 KB
Morphogenesis of extra-embryonic tissues directs the remodelling of the mouse embryo at implantation. Cell shape changes and polarized cell divisions drive polar TE expansion.jpg 2,062 × 1,634; 1.79 MB
Morphogenesis of extra-embryonic tissues directs the remodelling of the mouse embryo at implantation. Establishment of tissue boundary within the trophectoderm.jpg 1,791 × 1,183; 1.44 MB
Morphogenesis of extra-embryonic tissues directs the remodelling of the mouse embryo at implantation. Polar trophectoderm transformation.jpg 1,897 × 2,389; 2.49 MB
Morphogenesis of extra-embryonic tissues directs the remodelling of the mouse embryo at implantation. Primitive endoderm behaviour during the blastocyst to egg cylinder transition.jpg 2,067 × 2,251; 3.03 MB
Morphogenesis of extra-embryonic tissues directs the remodelling of the mouse embryo at implantation. Tissue boundary is necessary for polar trophectoderm expansion.jpg 725 × 1,012; 613 KB
Morphogenesis of extra-embryonic tissues directs the remodelling of the mouse embryo at implantation. Trophectoderm folding final step the blastocyst to egg cylinder transformation.jpg 1,932 × 2,128; 2.43 MB
Morphogenetic events during pre-implantation mouse development.png 850 × 515; 365 KB
Mouse and human embryonic development from the zygote to early post-implantation stages.png 3,594 × 2,095; 968 KB
Network of microlumens in embryos and description of the model.png 4,400 × 1,910; 5.36 MB
NODAL expression.png 889 × 2,400; 4.38 MB
Only epiblast cells that contact the posterior part of the embryo become PGCs.png 1,102 × 1,378; 1.06 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
Polar trophectoderm expansion 1.ogv 35 s, 304 × 321; 950 KB
Polar trophectoderm expansion. Mouse.ogv 45 s, 512 × 512; 2.88 MB
Promising-System-for-Selecting-Healthy-In-Vitro–Fertilized-Embryos-in-Cattle-pone.0036627.s005.ogv 2.0 s, 680 × 256; 391 KB
Promising-System-for-Selecting-Healthy-In-Vitro–Fertilized-Embryos-in-Cattle-pone.0036627.s006.ogv 2.8 s, 680 × 256; 539 KB
Proposed model for human embryogenesis with amnion as an organizer.png 1,219 × 972; 616 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
PSTT.jpg 640 × 473; 121 KB
Representative examples of nine key embryonic developmental events in pig.jpg 2,145 × 2,138; 2.59 MB
Role of vascular endothelial growth factor (VEGF) in the human endometrium and interaction between endometrium and embryo.png 3,836 × 3,382; 2.39 MB
Schema of Differentiation of Zygote (Bryce's Ovum).png 768 × 584; 772 KB
Schema of Differentiation of Zygote (Peter's Ovum).png 864 × 777; 1.1 MB
Schematic representation of a blastocyst approaching the receptive endometrium, defined by the integrin profile and appearance of pinopodes.jpg 1,238 × 848; 574 KB
Schematic representation of an implanting blastocyst, highlighting interactions between trophoblastic and endometrial cells.png 1,230 × 874; 986 KB
Schematic representation of early embryonic development and the structure of human amniotic membrane.jpg 1,584 × 1,792; 272 KB
Schematic representation of recent partially and fully integrated stem cell-based embryo models mimicking early human post-implantation development.jpg 659 × 979; 594 KB
Schematic representation of the dynamics of the endolysosomal system and exocytosis of lysosomes.png 3,237 × 2,160; 600 KB
Schematic representation of the morphological and molecular criteria used to improve the chances of successful embryo implantation.png 4,299 × 1,695; 1.49 MB
Schematic representation of the various fragment-like cellular structures detected in embryos.png 2,232 × 1,891; 1.87 MB
Section showing three stages in the formation of the amnion of bat embryo.jpg 1,407 × 1,695; 911 KB
Silencing expression of progesterone receptor (PGR) and signal transducer and activator of transcription facor 1.png 821 × 1,046; 282 KB
Simplified schematic presentation of basic structural components and molecular composition of intercellular junctions.jpg 1,886 × 1,622; 343 KB
Simulating-the-Mammalian-Blastocyst---Molecular-and-Mechanical-Interactions-Pattern-the-Embryo-pcbi.1001128.s012.ogv 30 s, 696 × 256; 1.54 MB
Simulating-the-Mammalian-Blastocyst---Molecular-and-Mechanical-Interactions-Pattern-the-Embryo-pcbi.1001128.s013.ogv 20 s, 252 × 296; 711 KB
Simulating-the-Mammalian-Blastocyst---Molecular-and-Mechanical-Interactions-Pattern-the-Embryo-pcbi.1001128.s014.ogv 1 min 0 s, 300 × 344; 1.98 MB
Simulating-the-Mammalian-Blastocyst---Molecular-and-Mechanical-Interactions-Pattern-the-Embryo-pcbi.1001128.s015.ogv 40 s, 532 × 540; 2.57 MB
Simulating-the-Mammalian-Blastocyst---Molecular-and-Mechanical-Interactions-Pattern-the-Embryo-pcbi.1001128.s016.ogv 30 s, 900 × 320; 1.23 MB
Simulating-the-Mammalian-Blastocyst---Molecular-and-Mechanical-Interactions-Pattern-the-Embryo-pcbi.1001128.s017.ogv 30 s, 900 × 320; 1.21 MB
Simulating-the-Mammalian-Blastocyst---Molecular-and-Mechanical-Interactions-Pattern-the-Embryo-pcbi.1001128.s018.ogv 30 s, 900 × 320; 965 KB
Simulating-the-Mammalian-Blastocyst---Molecular-and-Mechanical-Interactions-Pattern-the-Embryo-pcbi.1001128.s019.ogv 30 s, 480 × 548; 3.55 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
Stem cells resembling early embryonic lineages in mice and humans. Many of these stem cell types have been derived from existing ES cells by modifying culture conditions.jpg 922 × 957; 477 KB
Structure-chart-of-pinopodes.png 1,952 × 1,052; 1.73 MB
Summary of strategies used for blastoid formation in mouse and human.jpg 1,088 × 952; 698 KB
Summary of the early developmental process in natural mouse and human embryos and the corresponding developmental potency of the various synthetic embryos and gastruloids reported.png 3,675 × 2,856; 1.99 MB
Sus domesticus blastocyst.jpg 1,016 × 759; 647 KB
TE cell flow during pre-implantation development. Mouse.ogv 24 s, 666 × 648; 1,016 KB
The cat - an introduction to the study of backboned animals, especially mammals (1881) (20398797108).jpg 1,292 × 584; 199 KB
The crayfish - An introd. to the study of zoology. - (1896) (20700496512).jpg 2,210 × 3,256; 2.26 MB
The descent of the primates; lectures delivered on the occasion of the sesquicentennial celebration of Princeton university (1897) (14766416861).jpg 1,622 × 1,928; 862 KB
The process during the embryo implantation.jpg 1,944 × 567; 217 KB
The-environmental-toxicant-2378-tetrachlorodibenzo-p-dioxin-disrupts-morphogenesis-of-the-rat-pre-1471-213X-8-1-S5.ogv 0.8 s, 484 × 485; 153 KB
Tight junction formation and force dependent junctional maturation, enabling hydraulic fracturing and blastocoel expansion, from E2.75 until E4.5..jpg 2,229 × 1,588; 389 KB
Traditional morphology examination compared to time-lapse-based morphokinetic examination.jpg 1,594 × 901; 583 KB
Trophectoderm cell flow stops upon embryo implantation 1.ogv 11 s, 538 × 606; 671 KB
Trophectoderm cell flow stops upon embryo implantation. Mouse.ogv 7.6 s, 596 × 742; 679 KB
Trophectoderm formation and apico-basal cell polarity in Trophectoderm appear normal in p38 MAPK inhibited embryos.png 1,710 × 1,310; 1.59 MB
Trophectoderm tissue boundary forms during embryo implantation Mouse 2.ogv 8.0 s, 277 × 305; 510 KB
VE and ExE are both important for the formation of PGC precursors.jpg 1,200 × 800; 554 KB
Бластоциста человека 5-е сутки развития.jpg 548 × 477; 445 KB