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608 results on '"Ureter embryology"'

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1. Rab35 Is Required for Embryonic Development and Kidney and Ureter Homeostasis through Regulation of Epithelial Cell Junctions.

2. Deletion of the prorenin receptor in the ureteric bud in mice inhibits Dot1/H3K79 pathway.

3. Temporally and spatially regulated collagen XVIII isoforms are involved in ureteric tree development via the TSP1-like domain.

4. Disruption of mitochondrial complex III in cap mesenchyme but not in ureteric progenitors results in defective nephrogenesis associated with amino acid deficiency.

5. Disruption of Gen1 causes ectopic budding and kidney hypoplasia in mice.

6. Proteomic analysis identifies ZMYM2 as endogenous binding partner of TBX18 protein in 293 and A549 cells.

7. FGFR2 signaling enhances the SHH-BMP4 signaling axis in early ureter development.

8. 3D kidney organoids for bench-to-bedside translation.

9. Expansion of the renal capsular stroma, ureteric bud branching defects and cryptorchidism in mice with Wilms tumor 1 gene deletion in the stromal compartment of the developing kidney.

10. Foxa1 and Foxa2 orchestrate development of the urethral tube and division of the embryonic cloaca through an autoregulatory loop with Shh.

11. ROBO2-mediated RALDH2 signaling is required for common nephric duct fusion with primitive bladder.

12. Folic acid supplementation alleviates reduced ureteric branching, nephrogenesis, and global DNA methylation induced by maternal nutrient restriction in rat embryonic kidney.

13. Genetic manipulation of ureteric bud tip progenitors in the mammalian kidney through an Adamts18 enhancer driven tet-on inducible system.

14. Delayed onset of smooth muscle cell differentiation leads to hydroureter formation in mice with conditional loss of the zinc finger transcription factor gene Gata2 in the ureteric mesenchyme.

15. Single cell analysis of the developing mouse kidney provides deeper insight into marker gene expression and ligand-receptor crosstalk.

16. Pathological changes in ureterovesical and ureteropelvic junction obstruction explained by fetal ureter histology.

17. Development of the urogenital system is regulated via the 3'UTR of GDNF.

18. Morphology of the initial nephron-collecting duct connection in mice using computerized 3D tracing and electron microscopy.

19. Serum-Free Organ Culture of the Embryonic Mouse Ureter.

20. Expression of NADPH oxidase and production of reactive oxygen species contribute to ureteric bud branching and nephrogenesis.

21. The role of the ureteric bud in the development of the ovine fetal kidney.

22. TBX2 and TBX3 act downstream of canonical WNT signaling in patterning and differentiation of the mouse ureteric mesenchyme.

23. Branching morphogenesis in the developing kidney is not impacted by nephron formation or integration.

24. Aquaporin expression in the fetal porcine urinary tract changes during gestation.

25. Loss of VAMP5 in mice results in duplication of the ureter and insufficient expansion of the lung.

26. Protein Kinase 2 β Is Expressed in Neural Crest-Derived Urinary Pacemaker Cells and Required for Pyeloureteric Contraction.

27. Reciprocal Spatiotemporally Controlled Apoptosis Regulates Wolffian Duct Cloaca Fusion.

28. Conserved and Divergent Features of Human and Mouse Kidney Organogenesis.

29. Activated Hedgehog-GLI Signaling Causes Congenital Ureteropelvic Junction Obstruction.

30. Lightsheet fluorescence microscopy of branching human fetal kidney.

31. HNF1B controls epithelial organization and cell polarity during ureteric bud branching and collecting duct morphogenesis.

32. Branching morphogenesis in the developing kidney is governed by rules that pattern the ureteric tree.

33. Loss of peri-Wolffian duct stromal Frs2α expression in mice leads to abnormal ureteric bud induction and vesicoureteral reflux.

34. Talin regulates integrin β1-dependent and -independent cell functions in ureteric bud development.

35. Prenatal diagnosis of left isomerism with normal heart.

36. Heterozygous loss-of-function mutation in Odd-skipped related 1 ( Osr1 ) is associated with vesicoureteric reflux, duplex systems, and hydronephrosis.

37. Foxd1 is an upstream regulator of the renin-angiotensin system during metanephric kidney development.

38. Retinoic acid signaling maintains epithelial and mesenchymal progenitors in the developing mouse ureter.

39. Modulation of apoptotic response by LAR family phosphatases-cIAP1 signaling during urinary tract morphogenesis.

40. BMP4 uses several different effector pathways to regulate proliferation and differentiation in the epithelial and mesenchymal tissue compartments of the developing mouse ureter.

41. [PATHOGENICALLY INDUCED APOPTOSIS CAUSED BY HYPOXIC EFFECTS IN THE URINARY SYSTEM ORGANS OF FETUSES AND NEWBORNS (EXPERIMENTAL STUDY)].

42. A Sall1-NuRD interaction regulates multipotent nephron progenitors and is required for loop of Henle formation.

43. Cellular heterogeneity in the ureteric progenitor niche and distinct profiles of branching morphogenesis in organ development.

44. A SHH-FOXF1-BMP4 signaling axis regulating growth and differentiation of epithelial and mesenchymal tissues in ureter development.

45. Diversification of Cell Lineages in Ureter Development.

46. Elf5 is a principal cell lineage specific transcription factor in the kidney that contributes to Aqp2 and Avpr2 gene expression.

47. Prorenin receptor controls renal branching morphogenesis via Wnt/β-catenin signaling.

48. Wnt7b Signaling from the Ureteric Bud Epithelium Regulates Medullary Capillary Development.

49. The contribution of branching morphogenesis to kidney development and disease.

50. Cap mesenchyme cell swarming during kidney development is influenced by attraction, repulsion, and adhesion to the ureteric tip.

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