Literature DB >> 6767586

The subarachnoid space: a review.

D G McLone.   

Abstract

A historical review of our knowledge of the subarachnoid space dates from the ancients through the modern electron microscope era. Conflicting observation resulted from various methods of tissue preservation and species variability. A comparative submicroscopic study shows striking similarities in the ultrastructure and distribution of the subarachnoid space in mice, cats, monkeys and man. Development of the pia-arachnoid membranes in the mouse occurs in four stages: the first follows closure of the neural tube and is a period of initial vascularization of the developing telencephalon; the second is a period of delineation during which the limits of the subarachnoid space are defined; the third is a period of ensheathment of pia-arachnoidal blood vessels; and the fourth includes addition of smooth muscle to larger vessels, the appearance of macrophages in the subarachnoid space, and a general increase in extracellular collagenous and elastic fibers. The subarachnoid space over the telencephalic surface in the 10-day fetus exists prior to the secretion of cerebrospinal fluid as the typically large extracellular space of mesenchyme. By the 13th fetal day cerebrospinal fluid begins to seep into and replace the ground substance of the mesenchyme. The mesenchymal extracellular compartment is reduced peripherally, resulting in a compacted pia-arachnoidal tissue which limits the peripheral extent of the subarachnoid space. By the 21st postnatal day a subarachnoid space typical of the adult animal has been established. The developmental sequence occurring in the tissues surrounding the central nervous system is important to our understanding of the pathogenesis of hydrocephalus and congenital anomalies.

Entities:  

Mesh:

Year:  1980        PMID: 6767586     DOI: 10.1159/000119893

Source DB:  PubMed          Journal:  Childs Brain        ISSN: 0302-2803


  8 in total

1.  The corpus callosum, the other great forebrain commissures, and the septum pellucidum: anatomy, development, and malformation.

Authors:  Charles Raybaud
Journal:  Neuroradiology       Date:  2010-04-27       Impact factor: 2.804

Review 2.  Spinal meningeal malformations in children (without meningoceles or meningomyeloceles).

Authors:  J Richaud
Journal:  Childs Nerv Syst       Date:  1988-04       Impact factor: 1.475

3.  Permeability of the arachnoid and pia mater. The role of ion channels in the leptomeningeal physiology.

Authors:  Aristotelis S Filippidis; Sotirios G Zarogiannis; Maria Ioannou; Konstantinos Gourgoulianis; Paschalis-Adam Molyvdas; Chrissi Hatzoglou
Journal:  Childs Nerv Syst       Date:  2012-01-18       Impact factor: 1.475

4.  Molecular and Cellular Analysis of the Repair of Zebrafish Optic Tectum Meninges Following Laser Injury.

Authors:  Payel Banerjee; Paul Joly; Luc Jouneau; Yan Jaszczyszyn; Mickaël Bourge; Pierre Affaticati; Jean-Pierre Levraud; Pierre Boudinot; Jean-Stéphane Joly
Journal:  Cells       Date:  2022-06-24       Impact factor: 7.666

5.  Pre- and postnatal MR imaging of hypothalamic hamartomas associated with arachnoid cysts.

Authors:  Timothy N Booth; Charles Timmons; Kenneth Shapiro; Nancy K Rollins
Journal:  AJNR Am J Neuroradiol       Date:  2004-08       Impact factor: 3.825

Review 6.  MR assessment of pediatric hydrocephalus: a road map.

Authors:  Charles Raybaud
Journal:  Childs Nerv Syst       Date:  2015-09-04       Impact factor: 1.475

7.  Giant hypothalamic hamartoma associated with an intracranial cyst in a newborn.

Authors:  Joo Yeon Lee; Hye-Kyung Yoon; Shin Kwang Khang
Journal:  Ultrasonography       Date:  2016-03-23

8.  Group B Streptococcus interactions with human meningeal cells and astrocytes in vitro.

Authors:  Khalil Alkuwaity; Alexander Taylor; John E Heckels; Kelly S Doran; Myron Christodoulides
Journal:  PLoS One       Date:  2012-08-10       Impact factor: 3.240

  8 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.