Top Abstract Purchase Related
Home
>
Node
>
Subnode

Vibration-induced morphological changes in the brain stem and spinal cord of the guinea pig

Sopek, M.; Gałasińska-Pomykoł, I.; Finkiewicz-Murawiejska, L.; Zalewska, H.

Medycyna Pracy 34(5-6): 361-367

1983

ISSN/ISBN: 0465-5893
PMID: 6672522
Document Number: 204790
Some disorders of the brain stem and spinal cord microcirculation were observed in male adult guinea pigs exposed to vertical vibration of frequency 40 Hz and amplitude 1 mm for 3 hours daily during 7, 14, 30 days. These changes after 7 days of vibration were seen as congestion with single small haemorrhages and after 14 days as diffuse spongiosis of the brain stem and spinal cord. After 30 days both congestion with haemorrhages and spongiosis were noted but the first predominated.

Document emailed within 1 workday
Secure & encrypted payments

Druga, R.; Petrovický, P. 1977: Descendent connection of the rat brain stem with the spinal cord segment Acta Universitatis Carolinae. Medica 23(5-6): 293-320
Taranova, N.P.; Illiger, E. 1977: Guinea pig brain and spinal cord phospholipids and cholesterol in tricresyl phosphate poisoning Biulleten' Eksperimental'noi Biologii i Meditsiny 84(9): 297-299
Goto, Y.; Kimura, K.; Kishi, S.; Ishii, M.; Cho, N.; Yamaguchi, N.; Kamimura, O.; Iwasa, M.; Mori, A.; Ando, K. 1991: Adrenoleukodystrophy with high signal intensity areas in the pyramidal tract from internal capsule to the brain stem and spinal cord in MRi (long TR) No to Hattatsu 23(4): 421-423
Chen, S.Z.; Han, J.S. 1994: High frequency electroacupuncture induced changes of IP3 level in rat brain and spinal cord Chinese Medical Journal 107(6): 440-443
Ide, R.; Fukusaki, M.; Yamaguchi, K.; Matsumoto, M.; Ogata, K.; Sumikawa, K. 1997: Effect of controlled hypotension induced by prostaglandin E1 on evoked spinal cord potential and spinal cord blood flow Masui. Japanese Journal of Anesthesiology 46(10): 1342-1346
Konecki, J.; Jonek, J.; Stoklosa, E. 1971: The influence of vibration on ultrastructure of spinal cord motoneurons Acta Medica Polona 12(2): 219-223
Melchiorri, G.; Andreoli, A.; Padua, E.; Sorge, R.; De Lorenzo, A. 2007: Use of vibration exercise in spinal cord injury patients who regularly practise sport Functional Neurology 22(3): 151-154
Nenashev, A.A.; Pacheva, M.T.; Tishchenko, I.M.; Chausov, V.I. 1986: Effect of vibration and hyperbaric oxygenation on the brain stem reticular formation in animals Gigiena Truda i Professional'nye Zabolevaniya (4): 52
Sudo, N. 1980: Clinical application of the evoked spinal cord potentials. Part 1. Neurophysiological assessment of the evoked spinal cord potentials in experimental cord trauma - with reference to cord compression and ischemia Nihon Seikeigeka Gakkai Zasshi 54(12): 1631-1647
Mironova, V.N.; Vendt, V.P.; Belik, I.V.; Terletskaia, I.T.; Koval', V.G. 1977: Guinea pig spinal cord sterols in allergic encephalomyelitis Ukrains'kyi Biokhimichnyi Zhurnal 49(1): 97-100
Kato, H.; Mano, T.; Yanagi, T.; Saito, M.; Sobue, I. 1976: Spinal dystonia, with special reference to a case with dystonic postures of the left arm induced by cervical spinal cord dsyfunction Rinsho Shinkeigaku 16(10): 699-705
Strashnov, V.I.; Volchkov, V.A.; Boĭkova, N.V.; Tomson, V.V. 2001: Morphological and histochemical changes in the spinal cord after epidural administration of prosidol in dogs Anesteziologiia i Reanimatologiia 4: 37-39
Palenova, N.G.; Muchaudze, I.A.; Afonina, L.G. 1979: Clinico-morphological comparisons in premature infants with spinal cord lesions Pediatriia 5: 41-44
Isu, T. 1990: Spinal cord evoked potential in experimental spinal cord injury--the changes in spinal cord evoked potential following impact injury, and effect of mannitol administration on acute experimental spinal cord injury Hokkaido Journal of Medical Science 65(2): 142-151
Malínský, J.; Malínská, J. 1983: Quantitative analysis of morphological changes in the spinal cord of the hibernating bat. II. Ultrastructure of the cytoplasm organelles Folia Morphologica 31(1): 46-50
Savro, V.A. 1996: The comparative morphological aspect of the formation of the macroglial environment of the spinal cord motor neurons Morfologiia 110(6): 55-59
Gilerovich, E.G.; Fedorova, E.A.; Abdurasulova, I.N.; Karpenko, M.N.; Sokolov, A.V.; Zakharova, E.T.; Zhitnukhin, I.L.; Korzhevskiĭ, D.É; Vasil'ev, V.B. 2010: Analysis of morphological manifestations of the inflammatory reaction in wistar rat spinal cord in experimental model Morfologiia 137(5): 16-20
Soeda, S. 1988: An experimental study on conductive spinal cord action potentials evoked by direct stimulation of the spinal cord--pathway and source of conductive action potentials in the spinal cord Nihon Seikeigeka Gakkai Zasshi 62(5): 535-549
Burian, M.; Gstöttner, W. 1987: Vestibulocochlear anastomosis in the brain stem of the guinea pig. Preliminary report Laryngologie Rhinologie Otologie 66(8): 404-405
Tupitsyn, N.N.; Yaryghin, V.N.; Bryukhovetskiy, A.S.; Grivtsova, L.Y.; Mentkevich, G.L.; Dolgopolov, I.S.; Zaitsev, A.Y.; Davydov, M.I. 2006: Immunophenotypic peculiarities of mobilized stem (CD34+) cells in blood from patients with severe spinal cord injury Journal of Biological Regulators and Homeostatic Agents 20(1-2): 36-40