NEURAL TISSUE COMPATIBILITY OF TEFLON AS AN IMPLANT MATERIAL FOR MICROVASCULAR DECOMPRESSION

被引:23
作者
AMMAR, A
LAGENAUR, C
JANNETTA, P
机构
[1] Department of Neurosurgery, College of Medicine and Medical Sciences, King Faisal University, Dammam
[2] Department of Neurobiology, Anatomy, and Cell Science, University of Pittsburgh, School of Medicine, Pittsburgh, Pennsylvania
[3] Department of Neurological Surgery, University of Pittsburgh, School of Medicine, Pittsburgh, Pennsylvania
关键词
Cell adhesion; cell culture; microvascular decompression; mouse cerebellum; Teflon; tissue compatibility;
D O I
10.1007/BF00346368
中图分类号
R74 [神经病学与精神病学];
学科分类号
摘要
Teflon is utilized in neurosurgery as well as in plastic, vascular and heart surgery. Although the effect of Teflon on different types of cells and tissues has been previously studied, we are not aware of any study in which the effect of Teflon was tested on cells of the central nervous system. We have therefore examined the tissue compatibility of spongy and fibrous Teflon by directly exposing the Teflon to dissociated cerebellar cells containing both glia and neurons in tissue culture. Daily examination of the growth of the cells adjacent to Teflon fibers using an inverted phase contrast microscope revealed that Teflon has little or no effect on the growth of these cells. When the cells are fixed after 7 days in culture and stained by the Jenner-Giemsa method, adhesion of both glia and neurons to the surface of the Teflon was seen. Attachment of neural cells to the Teflon was not extensive, as was shown by indirect immunofluorescence technique in connection with double-label staining with anti-GFAP as glia marker and anti-M6 as mouse neuron marker. Thus, these experiments show that Teflon is relatively inert when used as an implant in the central nervous system. © 1990 Walter de Gruyter & Co.
引用
收藏
页码:299 / 303
页数:5
相关论文
共 29 条
[11]  
Granstrom L., Backman L., Dahlgren S.E., Tissue reaction of polypropylene and polyester in obese patients, Biomaterials, 7, pp. 455-458, (1986)
[12]  
Hasson J.E., Wiebe D.H., Abbott W.M., Adult human vascular endothelial cell attachment and migration on novel bioabsorbable polymers, Arch Surg, 122, pp. 428-430, (1987)
[13]  
Hunter S.K., Scott J.R., Hull D., Urry R.L., The gamete and embryo compatibility of various synthetic polymers, Fertl Steril, 50, pp. 110-116, (1988)
[14]  
Jannetta P.J., Neurovascular compression in cranial nerve and systemic disease, Ann Surg, 192, pp. 518-521, (1980)
[15]  
Jannetta P.J., Hemifacial spasm, The cranial nerved, pp. 484-493, (1981)
[16]  
Jannetta P.J., Microvascular decompression in trigeminal neuralgia and hemifacial spasm, Neurological surgery of the ear and skull base, pp. 49-54, (1982)
[17]  
Jannetta P.J., Neurogenic hypertension: etiology and surgical treatment. I. Observations in 53 patients, Ann Surg, 201, pp. 391-398, (1985)
[18]  
Jannetta P.J., Moller M.B., Moller A.R., Sekhar L.N., Neurosurgical treatment of vertigo by microvascular decompression of the eight cranial nerve, Clin Neurosurg, 33, pp. 645-665, (1986)
[19]  
Lagenaur C., Schachner M., Monoclonal antibody (M<sub>2</sub>) to glial and neuronal cell surface, J Supramol Struct Cell Biochem, 15, pp. 335-346, (1981)
[20]  
Lagenaur C., Schachner M., Solter D., Knowles B., Monoclonal antibody against SSEA-1 is specific for a subpopulatins of astrocytes in mouse cerebellum, Neurosci Let, 31, pp. 181-184, (1982)