ライフサイエンスコーパス: serosa

1 al alterations in the mucosa, submucosa, and serosa.

2 cable at the boundary between the amnion and serosa.

3 ve extra-embryonic membranes, the amnion and serosa.

4 nsed at the posterior pole in the absence of serosa.

5 tudinal muscles and within the submucosa and serosa.

6 Another part forms extra-embryonic serosa.

7 istinct extraembryonic membranes, amnion and serosa.

8 inct extra-embryonic tissues, the amnion and serosa.

9 ce of the human and mouse lung from lumen to serosa.

10 cted to mesenchymal cells subadjacent to the serosa.

11 nterlayer junctional path, followed by PE-to-serosa active Na+ transport.

12 extraembryonic (EE) tissues - the amnion and serosa - actively rupture and withdraw in late embryogen

13 Thus, the role of zen in the interaction of serosa, amnion, and embryo may differ between species.

14 s of the beetle Tribolium are protected by a serosa, an extraembryonic epithelium that is present in

15 d Episyrphus balteatus (Syrphidae) develop a serosa and a dorsal amnion, suggesting that a dorsal amn

16 ity profile and function of BMP signaling in serosa and amnion patterning of the scuttle fly Megaseli

17 sog) by RNA interference revealed that both serosa and amnion specification of M. abdita are depende

18 ng specifies two extraembryonic tissues, the serosa and amnion, in basal-branching flies such as Mega

19 other insects two extraembryonic epithelia, serosa and amnion, line the inner eggshell and the ventr

20 onize not only systemic tissues but also the serosa and lamina propria region of the large intestine.

21 Medium-sized and large-sized vessels of the serosa and mesentery preferentially demonstrated histolo

22 rs of T cells and eosinophils infiltrate the serosa and mucosa of the inflamed intestines.

23 d during GS stage due to increased mucosa-to-serosa and serosa-to-mucosa flux, respectively.

24 primarily involves vessels of the submucosa, serosa, and mesentery, some mucosal alterations have bee

25 Moreover, the expanded amnion and serosa anlage correlates with a broader domain of Dpp si

26 f orthodenticle is sufficient to confine the serosa anlage of Episyrphus to dorsal blastoderm.

27 Size and position of the serosa anlage vary between species, and previous work ra

28 on differentiation laterally adjacent to the serosa anlage.

29 specification that features an anterodorsal serosa anlage.

30 amnion as 'initiator' to coordinate with the serosa as 'driver' to achieve withdrawal.

31 amples were obtained by puncturing the bowel serosa at the identified ROIs and lactates were measured

32 ) controls the fusion of the amnion with the serosa before dorsal closure.

33 n-regulated at the developmental stage, when serosa cells in lower Cyclorrhapha begin to expand.

34 RNAi phenotypes demonstrate that the serosa contracts autonomously.

35 ss of postgastrular zen expression abrogates serosa development but allows amnion development.

36 ons and the conserved requirement of zen for serosa development suggest that the origin of an amniose

37 npigmented (NPE; aqueous) and pigmented (PE; serosa) epithelial side hemichambers, respectively.

38 ced in mice by surgical abrasion of adjacent serosa followed by close apposition.

39 f u-shaped group genes are not essential for serosa formation but mediate germband retraction and dor

40 ion of zen in early Megaselia embryos allows serosa formation but perturbs amnion development.

41 criptome assays were performed with isolated serosa from Anopheles gambiae embryos.

42 robial peptides in wild-type eggs but not in serosa-less eggs.

43 how that bacteria propagate twice as fast in serosa-less eggs.

44 ra-embryonic domain into separate amnion and serosa lineages in A. gambiae correlates with novel patt

45 ereby mosquitoes contain separate amnion and serosa lineages while higher flies such as Drosophila me

46 29 vs 632 mum; P = .013) muscularis propria, serosa (median, 245 vs 64 mum; P = .019), and muscularis

47 ermal cells, the ordered colonization of the serosa-mucosa axis by clonal descendants, and gut expans

48 submucosa, n = 4; muscularis propria, n = 3; serosa, n = 1).

49 uring A. gambiae embryogenesis, first in the serosa of early embryos and then again during late stage

50 Benzalkonium chloride was applied to the serosa of the antrum in anaesthetized rats.

51 f cardiac pacing wires were implanted on the serosa of the stomach.

52 afluoroethylene (PTFE) ring placed under the serosa of the stomach.

53 urrence seems to correlate with a mid-dorsal serosa or amnioserosa anlage.

54 a redistribution of flow between mucosa and serosa, or an adjustment in the heterogeneity of perfusi

55 ion of these pathways, we compared mucosa-to-serosa permeability of small and large permeability mark

56 or 10 micro M digitonin led to an aqueous-to-serosa-positive ISC.

57 We conclude that the serosa provides insect eggs with a full-range innate imm

58 rointestinal patterning events involving the serosa, pylorus, and villus smooth muscle.

59 Increased serosa-to-mucosa flux of both Na+ and Cl- characterized

60 stage due to increased mucosa-to-serosa and serosa-to-mucosa flux, respectively.

61 lude the following: mesothelial cells of the serosa transduce Hedgehog signals in fetal life; the hin

62 lanted with 4 pairs of electrodes on gastric serosa were used in a 5-session study.