ライフサイエンスコーパス: aqueduct

1 G from the greater signal variability in the aqueduct.

2 e floor of the fourth ventricle and cerebral aqueduct.

3 morphology, and obliteration of the cerebral aqueduct.

4 locally in the area surrounding the cerebral aqueduct.

5 f the endolymphatic duct/sac, the vestibular aqueduct.

6 cclusion of the third ventricle and cerebral aqueduct.

7 raphe nucleus, just ventral to the cerebral aqueduct.

8 l gray, and in glia surrounding the cerebral aqueduct.

9 from the subependymal layer of the cerebral aqueduct.

10 ocephalus, deregulates Yap in the developing aqueduct.

11 al cells along the ventricular lining of the aqueduct.

12 r PVN in rats with open or occluded cerebral aqueducts.

13 h a total of 39 ears with a large vestibular aqueduct and an otherwise normal cochlea, modiolar defic

14 for hearing loss with an enlarged vestibular aqueduct and Pendred syndrome.

15 lack of ependymal flow causes closure of the aqueduct and subsequent formation of triventricular hydr

16 ic to the subependymal layer of the cerebral aqueduct and third ventricle resides in the structural r

17 rmal maturation of ependymal cells along the aqueduct are critical for preventing physical blockage b

18 d volumes of human CSF flow within the brain aqueduct as part of the internal ventricular system and

19 drocephalus due to closure of their cerebral aqueduct between embryonic day 18 and post-natal day 5.

20 blockage of CSF flow occurs in the cerebral aqueduct, between the third and fourth ventricles, at em

21 ury BC, considerably later than Rome's first aqueduct built in the late fourth century BC.

22 my defect, foramen magnum (FM), and cerebral aqueduct CSF flow.

23 y, 8-OH-DPAT delivery through a probe in the aqueduct did not increase REM sleep but rather tended to

24 ing activity and promoted aberrant growth of aqueduct ependymal cells, resulting in aqueduct stenosis

25 ing loss associated with enlarged vestibular aqueduct (EVA), also known as "DFNB4," a large percentag

26 nsyndromic deafness with enlarged vestibular aqueduct (EVA; OMIM #600791).

27 ing loss associated with enlarged vestibular aqueducts (EVA).

28 uggest that all ears with a large vestibular aqueduct have associated cochlear modiolar deficiencies.

29 yndromic hearing loss and dilated vestibular aqueducts identified three people (15%) with PDS mutatio

30 s) comprised 16 ears with a large vestibular aqueduct in 10 patients, and group D (1-mm section thick

31 s) comprised 23 ears with a large vestibular aqueduct in 12 patients.

32 side of the midbrain ventral to the cerebral aqueduct in the central gray matter.

33 The cerebral aqueducts in Rnd3-null mice were partially or completely

34 inspiration was seen in all subjects at the aqueduct, in 11/12 subjects at thoracic level 2, and in

35 this new state, a functional water channel (aqueduct) is formed from the active site to a water clus

36 Thus, a large vestibular aqueduct may be only occasionally, if ever, an isolated

37 access to the internal sites by a transient aqueduct mechanism, migrating as single-file water chain

38 repeated bolus injections into the cerebral aqueduct of an antisense oligonucleotide against the alp

39 ant for cerebrospinal fluid flow through the aqueduct of Sylvius, and resulted in congenital hydrocep

40 ymal cells line the ventricular surfaces and aqueducts of the brain.

41 PV1-CTF) was identified ventrolateral to the aqueduct on the edge of the PAG.

42 massive infrastructure in the form of dams, aqueducts, pipelines, and complex centralized treatment

43 The PAG region lying near the cerebral aqueduct projects to five lateral PB sites: external lat

44 The higher incidence of aqueduct stenosis and hydrocephalus formation in patient

45 th of aqueduct ependymal cells, resulting in aqueduct stenosis and the development of congenital hydr

46 nital hydrocephalus, most commonly involving aqueduct stenosis, has been linked to genes that regulat

47 as optic pathway gliomas, dural ectasia and aqueduct stenosis.

48 l, circumscribed column ventrolateral to the aqueduct, the prime target of the PV1 nucleus.

49 induce apical flow from the patent cochlear aqueduct to the canalostomy due to influx of cerebral sp

50 of cerebrospinal fluid through the cerebral aqueduct, which we term as 'ependymal flow'.

51 of lateral, third, and fourth ventricles and aqueduct), with some accumulation at the lateral ventric