Dendritic changes of the pyramidal neurons in layer V of sensory-motor cortex of the rat brain during the postresuscitation period

Resuscitation

Volumn 35, Issue 2, 1997, Pages 157-164

  Akulinin, Victor A ^a   Stepanov, Sergey S ^a   Semchenko, Valeriy V ^a   Belichenko, Pavel V ^b  

^a Division of Histology and Embryology   (Russian Federation)

^b BRAIN RESEARCH INSTITUTE   (Russian Federation)

Author keywords

Dendritic changes; Golgi method; Ischemia; Pyramidal neurons; Sensory motor cortex

Indexed keywords

ANIMAL CELL; ANIMAL EXPERIMENT; ANIMAL MODEL; ANIMAL TISSUE; ARTICLE; BRAIN ISCHEMIA; CONTROLLED STUDY; DENDRITE; DENDRITIC SPINE; GOLGI STAIN; MALE; NONHUMAN; PRIORITY JOURNAL; PYRAMIDAL NERVE CELL; RAT; RESUSCITATION; SENSORIMOTOR CORTEX; TIME;

ANIMALS; BRAIN ISCHEMIA; CULTURE TECHNIQUES; DENDRITIC CELLS; DISEASE MODELS, ANIMAL; MALE; MOTOR CORTEX; NEURONS, AFFERENT; PYRAMIDAL CELLS; RATS; RATS, WISTAR; REFERENCE VALUES; RESUSCITATION; SOMATOSENSORY CORTEX; TIME FACTORS;

EID: 0030885241     PISSN: 03009572     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0300-9572(97)00048-8     Document Type: Article

References (47)

1. Belichenko P. V, Krasnov I.V. The dendritic spines of the pyramidal neurons in layer V of the rat sensorymotor cortex following a 14-days space flight. Bull Exp Biol Med. 112:1991;541-544.
2. Belichenko P.V., Oldfors A., Hagberg B., Dahlstrom A. Rett syndrome: 3-D confocal microscopy of cortical pyramidal dendrites and afferents. J Neurorep. 5:1994;1509-1513.
3. Belichenko P.V., Sourander P., Malmgren C., Nordborg C., von Essen C., Rydenhag B., Lindstrom S., Hedstrom A., Uvebrant P., Dahlstrom A. Dendritic morphology in epileptogenic cortex from TRPE patients, revealed by intracellular Lucifer Yellow microinjection and confocal laser scanning microscopy. Epilepsy Res. 18:1994;233-243.
4. Bindu P.N., Desiraju T. Increase of dendritic branching of CA3 neurons of hippocampus and self-stimulation areas in subjects experiencing self-stimulation of lateral hypothalamus and substantia nigra-ventral tegumental area. Brain Res. 171:1990;171-175.
5. Braak H., Braak E. Golgi preparation as a tool in neuropathology with particular reference to investigations of the human telencephalic cortex. Prog Neurobiol. 25:1985;93-139.
6. Burgoyne R.D. Neuronal calcium. Trends Neurosci. 10:1987;1-460.
7. Caceres A., Steward O. Dendritic reorganization in the denervated dentate gyrus of the rat following entorhinal cortical lesions: a Golgi and electron microscopic analysis. J Comp Neurol. 214:1983;387-403.
8. Calverly R.K.S., Jones D.G. Contributions of dendritic spines and perforated synapses to synaptic plasticity. Brain Res Rev. 15:1990;215-249.
9. Chizhenkova RA. Structural-function organization of the sensorimotor cortex. Science (Moscow) 1986;1-240.
10. Coss R.C., Perkel D.H. The function of dendritic spines: a review of theoretical issues. Behav Neurol Biol. 44:1985;151-185.
11. Crick F. Do dendritic spines twitch? Trends Neurosci. 5:1982;44-46.
12. Feldman ML. Morphology of the neocortical pyramidal neuron. In: Peters A, Jones EG, editors. Cerebral Cortex. Vol. 1. Cellular Components of the Cerebral Cortex. New York: Plenum Press, 1984:123-200.
13. Fifkova E., Markham J.A., Delay R.J. Calcium and spine apparatus of dendritic spines in the dentate molecular layer. Brain Res. 266:1983;163-168.
14. Fifkova E. A possible mechanism of morphometric changes in dendritic spines induced by stimulation. Cell Mol Neurobiol. 5:1985;47-63.
15. Galofre E., Ferrer J. Development of dendritic spines in the V layer pyramidal neurons of the rats somatosensory cortex. A quantitative and qualitative study with the Golgi method. J Hiratorsch. 28:1987;653-659.
16. Geinisman Y., Morrell F., DeToledo-Morrell L. Perforated synapses on double-headed dendritic spines: a possible structural substrate of synaptic plasticity. Brain Res. 480:1989;326-329.
17. Griffiths T, Evans M. Hypoxia and neuronal hyperexitiability-due to mechanisms of brain protection. Amsterdam: Meldrum Brain, 1982: 275-86.
18. Holmes W.R. The role of dendritic diameters in maximizing the effectiveness of synaptic input. Brain Res. 478:1989;127-137.
19. Isokowa M., Levesque M.F. Increased NMDA responses and dendritic degeneration in human epileptic hippocampal neurons in slices. Neurosci Lett. 132:1991;212-216.
20. Jones EG, Peters A. Cerebral cortex. Vol. 5. Sensory Motor Areas and Aspects of Cortical Connectivity. New York: Plenum Press, 1984:1-720.
21. Kandel E. Cellular basis of behaviour. San Francisco: Freeman and Company, 1976:1-727.
22. Kawai K., Nitecka L., Ruetzler C.A., Nogashima G., Joo F., Mies G., Nowak T.S., Saito N., Lohr J.M., Klatzo I. Global cerebral ischemia associated with cardiac arrest in the rat: I Dynamics of early neuronal changes. J Cereb Blood Flow Metab. 12:1992;238-249.
23. Kernell D., Zwaagstra B. Dendrites of cats spinal motoneurones: relationship between stem diameter and predicted input conductance. J Physiol. 413:1989;255-269.
24. Kolb B., Gibb R. Sparing of function after neonatal frontal lesions correlates with increased cortical dendritic branching a possible mechanism for the Kennard effect. Behav Brain Res. 43:1991;51-56.
25. Korpachov V.G., Lesenkov S.P., Tel L.S. Clinical death method and postischemic disease at the rats. J Pathol Physiol Exp Ther. 3:1982;78-80.
26. Kosizin N.S., Ionkina E.J., Serduchenko V.N. Reaction of apical dendrites of the pyramidal neurons of neocortex at experimental ischemia. Lecture AMS USSR Moscow. 298:1988;247-250.
27. Larkman A.U. Dendritic morphology of pyramidal neurons of the visual cortex of the rat: I. Branching patterns, II. Parameter correlations, III. Spine distributions. J Comparat Neurol. 306:1991;307-343.
28. Leontovich TA. Neuronal organization of the undercortex structure of the brain. Medicine (Moscow) 1978:1-327.
29. Lin C.S., Polsky K., Nadler J.V., Crain B.J. Selective neocortical and thalamic cell death in the gerbil after transient ischemia. Neuroscience. 35:1990;289-299.
30. Lowndes M., Stewart M.G. Dendritic spine density in the lobus parolfactorius of the domestic chick in increased 24h after one-trial passive avoidance training. Brain Res. 654:1994;129-136.
31. Mahajan D.S., Desiraju T. Alterations of dendritic branching and spine densities of hippocampal CA3 pyramidal neurons induced by operant conditioning in the phase of brain growth spurt. Exp Neurol. 100:1988;1-15.
32. Mies G., Kawai K., Saito N., Nagashima G., Nowak T.S., Ruetzler C.A., Klatzo I. Cardiac arrest-induced complete ischemia in the rat: dynamics of postischemic in vivo calcium uptake and protein synthesis. Neurol Res. 15:1993;253-263.
33. Mihaly A. Early morphological changes of the apical dendrites of neocortical pyramidal cells in albino rats subjected to 3-aminopyridine seizures. In: Feher O, Joo F, editors. Advances in Physiological Sciences: Cellular Analogues of Conditioning and Neural Plasticity. Vol. 36. Budapest: Pergamon, 1981:65-73.
34. Paul LA, Scheibel AB. Strutural substrates of epilepsy. In: Deldago-Escueta AV, Ward AA, Woodbury DM, AJ Porter AJ, editors. Adv Neurol 1986;44:775-86.
35. Petit T.Z., LeBoutiller J.C., Gregorio A., Libstug H. The pattern of dendritic development in the cerebral cortex of the rat. Dev Brain Res. 41:1988;209-219.
36. Rao B.S., Desiraju T., Raju T.R. Neuronal plasticity induced by self-stimulation rewarding experience in rat - a study on alteration in dendritic branching in pyramidal neurons of hippocampus and motor cortex. Brain Res. 627:1993;216-224.
37. Rihn L.L., Claiborne B.G. Dendritic growth and regression in rat dentate granule cells during late postnatal development. Dev Brain Res. 54:1990;115-124.
38. Ruiz-Marcos A., Sancher-Toscano M.J., Escobar del Roy O., Morreale de Escobar F. Thyroxine treatment and recovery of hypothyroidism-induced pyramidal cells damage. Brain Res. 239:1982;559-574.
39. Schlaepfer W.W., Zimmerman U.J.P. Mechanisms underlying the neuronal response to ischemic injury. Calcium-activated protolysis of neorofilaments. Prog Brain Res. 63:1985;185-196.
40. Semchenko V.V., Stepanov S.S., Akulinin V.A. Structural basis of information capacity changes of sensory-motor cerebral cortex of rat brain during post-resuscitation period. Resuscitation. 31:1996;151-158.
41. Semchenko V.V., Stepanov S.S., Akulinin V.A., Nikel A.E., Yereniev S.I., Belichenko P.V. Structural mechanisms of enhancement of spasmodic disposition of the albino rat brain in the postischemic period. Morphology. 103:1992;66-75.
42. Spacek J., Hartmann M. Three-dimention analysis of dendritic spines. I Quantitative observations related to dendritic spines and synaptic morphology in cerebral and cerebellar cortices. Anat Embryol. 167:1983;289-310.
43. Steward J., Kolb B. Dendritic branching in cortical pyramidal cells in response to ovariectomy in adult female rats: suppression by neonatal exposure to testosterone. Brain Res. 654:1994;149-154.
44. Uylings H.B.M., Kuypers K., Diamond M.C., Veltman W.A.M. Effects of differential environment on plasticity of dendrites of cortical pyramidal neurons in adult rats. Exp Neurol. 62:1978;658-677.
45. Vaughn D.A. Age-related deterioration of pyramidal cell basal dendrites in rat auditory cortex. J Comp Neurol. 171:1977;501-516.
46. Wickens J. Electrically coupled but chemically isolated synapses: Dendritic spines and calcium in a rule for synaptic modification. Prog Neurobiol. 31:1988;507-528.
47. Wieloch T., Siesjo B.K. Ischemic brain injury: the importance of calcium, lipolytic activities and free fatty acids. Pathol Biol. 30:1982;269-277.