d-amphetamine attenuates decreased cerebral glucose utilization after unilateral sensorimotor cortex contusion in rats

Brain Research

Volumn 777, Issue 1-2, 1997, Pages 42-50

  Queen, Susan A ^a   Chen, Michael J ^b   Feeney, Dennis M ^c  

^a UNIVERSITY OF MONTANA   (United States)

^b UTAH STATE UNIVERSITY   (United States)

^c UNIVERSITY OF NEW MEXICO   (United States)

Author keywords

Amphetamine; Cerebral glucose utilization; Cortical contusion; Remote functional depression; Traumatic brain injury

Indexed keywords

CARBON 14; DEOXYGLUCOSE; DEXAMPHETAMINE; NORADRENALIN;

ANIMAL MODEL; ARTICLE; BRAIN CONTUSION; BRAIN INJURY; BRAIN METABOLISM; CONTROLLED STUDY; DRUG EFFECT; GLUCOSE BRAIN LEVEL; GLUCOSE METABOLISM; HEMIPARESIS; INTRAPERITONEAL DRUG ADMINISTRATION; NONHUMAN; NORADRENALIN RELEASE; PRIORITY JOURNAL; RAT; SENSORIMOTOR CORTEX;

ANIMALS; BRAIN CONCUSSION; BRAIN STEM; CENTRAL NERVOUS SYSTEM STIMULANTS; CORPUS STRIATUM; DEXTROAMPHETAMINE; GLUCOSE; HIPPOCAMPUS; MALE; PARIETAL LOBE; RATS; RATS, SPRAGUE-DAWLEY; SOMATOSENSORY CORTEX;

EID: 0031589750     PISSN: 00068993     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0006-8993(97)00717-8     Document Type: Article

References (75)

1. [1] T. Beck, J. Krieglstein, Cerebral circulation, metabolism, and blood-brain barrier of rats in hypocapnic hypoxia, Am. J. Physiol. 252 (1987) H504-H512.
2. [2] T. Beck, A. Wree, A. Schleicher, Glucose utilization in rat hippocampus after long-term recovery from ischemia, J. Cereb. Blood Flow Metab. 10 (1990) 542-549.
3. [3] T. Beck, H.-J. Goller, A. Wree, Chronic depression of glucose metabolism in postischemic rat brains, Stroke 26 (1995) 1107-1113.
4. [4] M.G. Boyeson, D.M. Feeney, Intraventricular norepinephrine facilitates recovery following sensorimotor cortex injury, Pharmacol. Biochem. Behav. 35 (1990) 497-501.
5. [5] M.G. Boyeson, R.L. Harmon, Effects of trazodone and desipramine on motor recovery in brain injured rats, Am. J. Phys. Med. Rehab. 72 (1993) 286-293.
6. [6] D.W. Choi, Calcium-mediated neurotoxicity: relationship to specific channel types and role in ischemic damage, Trends Neurosci. 11 (1988) 465-469.
7. [7] D. Choi, S.M. Rothman, The role of glutamate neurotoxicity in hypoxic-ischemic neuronal death, Ann. Rev. Neurosci. 13 (1990) 171-182.
8. [8] L.M. Colle, L.J. Holmes, H.M. Pappius, Correlation between behavioral status and cerebral glucose utilization in rats following freezing lesion, Brain Res. 397 (1986) 27-36.
9. [9] F.L. Contreres, M. Kadekaro, H.M. Eisenberg, The effect of hyperbaric oxygen on glucose utilization in a freeze-traumatized rat brain, J. Neurosurg. 68 (1988) 137-141.
10. [10] R.M. Cooper, G.A. Thurlow, 2-Deoxyglucose uptake in the thalamus of awake rats after neocortical ablations, Exp. Neurol. 86 (1984) 261-271.
11. [11] R.M. Cooper, G.A. Thurlow, B.J. Rooney, 2-Deoxyglucose uptake and histologic changes in rat thalamus after neocortical ablations, Exp. Neurol. 83 (1984) 134-143.
12. [12] S.C. Cortez, T.K. McIntosh, L.J. Noble, Experimental fluid percussion brain injury: vascular disruption and neuronal and glial alterations, Brain Res. 482 (1989) 271-282.
13. [13] E.A. Crisostomo, P.W. Duncan, M. Propst, D.V. Dawson, J.N. Davis, Evidence that amphetamine with physical therapy promotes recovery of motor function in stroke patients, Ann. Neurol. 23 (1988) 94-97.
14. [14] W.G. Dail, D.M. Feeney, H.M. Murray, R.T. Linn, M.G. Boyeson, Responses to cortical injury II. Widespread depression of the activity of an enzyme in cortex remote from a focal injury, Brain Res. 211 (1981) 79-89.
15. [15] G.W. Dauth, S. Gilman, K.A. Frey, J.B. Penney Jr., Basal ganglia glucose utilization after recent precentral ablation in the monkey, Ann. Neurol. 17 (1984) 431-438.
16. [16] W.D. Dietrich, M.D. Ginsberg, R. Busto, B.D. Watson, Photochemically induced cortical infarction in the rat 2. Acute and subacute alterations in local glucose utilization, J. Cereb. Blood Flow Metab. 6 (1986) 195-202.
17. [17] W.D. Dietrich, O. Alonso, R. Busto, B.D. Watson, Y. Loor, M.D. Ginsberg, Influence of amphetamine treatment on somatosensory function of the normal and infarcted rat brain, Stroke 21 (SIII) (1990) III147-III150.
18. [18] W.D. Dietrich, O. Alonso, R. Busto, M.D. Ginsberg, Widespread metabolic depression and reduced somatosensory circuit activation following traumatic brain injury in rats, J. Neurotrauma 11 (1994) 629-640.
19. [19] A.I. Faden, P. Demediuk, S.S. Panter, R. Vink, The role of excitatory amino acids and NMDA receptors in traumatic brain injury, Science 244 (1989) 798-800.
20. [20] D.M. Feeney, Pharmacologic modulation of recovery after brain injury: a reconsideration of diaschisis, J. Neuro. Rehab. 5 (1991) 113-128.
21. [21] D.M. Feeney, Rehabilitation pharmacology: noradrenergic enhancement of physical therapy, in: M. Ginsberg, J. Bogousslavsky (Eds.), Cerebrovascular Diseases, Vol. I, Blackwell Scientific Press Cambridge, MA (in press).
22. [22] D.M. Feeney, J. Baron, Diaschisis, Stroke 17 (1986) 817-830.
23. [23] D.M. Feeney, M.G. Boyeson, R.T. Linn, H.M. Murray, W.G. Dail, Responses to cortical injury 1. Methodology and local effects of contusions in the rat, Brain Res. 211 (1981) 67-77.
24. [24] D.M. Feeney, R.L. Sutton, M.G. Boyeson, D.A. Hovda, W.G. Dail, The locus coeruleus and cerebral metabolism: recovery of function after cortical injury, Physiol. Psychol. 13 (1985) 197-203.
25. [25] D.M. Feeney, R.L. Sutton, Pharmacotherapy for recovery of function after brain injury, CRC Crit. Rev. Neurobiol. 3 (1987) 135-197.
26. [26] D.M. Feeney, R.L. Sutton, Catecholamines and recovery of function after brain damage, in: D.G. Stein, B.A. Sabel (Eds.), Pharmacological Approaches to the Treatment of Brain and Spinal Cord Injury, Plenum Press, New York, 1988, pp. 121-142.
27. [27] D.M. Feeney, M.P. Weisend, A.E. Kline, Noradrenergic pharmacotherapy, intracerebral infusion and adrenal transplantation promote functional recovery after cortical damage, J. Neural Transplant. Plast. 4 (1993) 199-213.
28. 45Ca autoradiographic study, Brain Res. 624 (1993) 94-102.
29. [29] S. Gilman, G.W. Dauth, K.A. Frey, J.B. Penney Jr, Experimental hemiplegia in the monkey: basal ganglia glucose activity during recovery, Ann. Neurol. 22 (1987) 370-376.
30. [30] W.-D. Heiss, V. Holthoff, G. Pawlik, M. Neveling, Effect of nimodipine on regional cerebral glucose metabolism in patients with acute ischemic stroke as measured by positron emission tomography, J. Cereb. Blood Flow Metab. 10 (1990) 127-132.
31. [31] R.R. Hicks, D.H. Smith, T.A. Gennarelli, T. McIntosh, Kynurenate is neuroprotective following experimental brain injury in the rat, Brain Res. 655 (1994) 91-96.
32. [32] S. Hosokawa, M. Kato, Y. Aiko, F. Shima, Altered local cerebral glucose utilization by unilateral frontal cortical ablations in rats, Brain Res. 343 (1985) 8-15.
33. [33] D.A. Hovda, Metabolic dysfunction, in: R.K. Narayan, J.E. Wilberger, J.T. Povlishock (Eds.), Neurotrauma, McGraw-Hill, Inc., New York, 1996, pp. 1459-1478.
34. [34] D.A. Hovda, A. Yoshino, T. Kawamata, D.P. Becker, Diffuse prolonged depression of cerbral oxidative metabolism following concussive brain injury in the rat: a cytochrome oxidase histochemical study, Brain Res. 567 (1991) 1-10.
35. [35] B.E. Hurwitz, W.D. Dietrich, P.M. McCabe, O. Alonso, B.D. Watson, M.D. Ginsberg, N. Schneiderman, Amphetamine promotes recovery from sensory-motor integration deficit after thrombotic infarction of the primary somatosensory rat cortex, Stroke 22 (1991) 648-654.
36. [36] F. Inglis, Y. Kuroda, R. Bullock, Glucose hypermetabolism after acute subdural hematoma is ameliorated by a competitive NMDA antagonist, J. Neurotrauma 9 (1992) 75-84.
37. [37] Y. Katayama, D.P. Becker, T. Tamura, D.A. Hovda, Massive increases in extracellular potassium and the indiscriminate release of glutamate following concussive brain injury, J. Neurosurg. 73 (1990) 889-900.
38. [38] T. Kawamata, Y. Katayama, D.A. Hovda, A. Yoshino, D.P. Becker, Administration of excitatory amino acid antagonists via microdialysis attenuates the increase in glucose utilization seen following concussive brain injury, J. Cereb. Blood Flow Metab. 12 (1992) 12-24.
39. [39] T. Kawamata, Y. Katayama, D.A. Hovda, A. Yoshino, D.P. Becker, Lactate accumulation following concussive brain injury: the role of ionic fluxes induced by excitatory amino acids, Brain Res. 674 (1995) 196-204.
40. [40] A.E. Klein, R.A. Salazar, E.A. Bustos, D.M. Feeney, Effects of amphetamine on beam-walk recovery following right or left sensorimotor cortex contusion in rat, Soc. Neurosci. Abstr. 19 (1993) 1878.
41. [41] K. Kogure, P. Scheinberg, H. Kishikawa, Y. Utsunomiya, R. Busto, Adrenergic control of cerebral blood flow and energy metabolism in the rat, Stroke 10 (1979) 179-184.
42. [42] K.A. Krobert, D.M. Feeney, Effects of amphetamine on biogenic amine levels following right sensorimotor cortex ablation in rat, Soc. Neurosci. Abstr. 16 (1990) 43.
43. [43] K.A. Krobert, R.L. Sutton, D.M. Feeney, Spontaneous and amphetamine-evoked release of cerebellar noradrenaline after sensorimotor cortex contusion: an in vivo microdialysis study in the awake rat, J. Neurochem. 62 (1994) 2233-2240.
44. [44] R. Kuczenski, Biochemical actions of amphetamine and other stimulants, in: I. Creese (Ed.), Stimulants: Neurochemical, Behavioral and Clinical Perspectives, Raven Press, New York, 1983, pp. 31-61.
45. [45] E.T. MacKenzie, J. Muculloch, M. O'Keane, J.D. Pickard, A.M. Harper, Cerebral circulation and norepinephrine: relevance of the blood-brain barrier, Am. J. Physiol. 231 (1976) 483-488.
46. 31P nuclear magnetic resonance, J. Neurochem. 49 (1987) 1530-1540.
47. [47] T.K. McIntosh, R. Vink, L. Noble, I. Yamakami, S. Fernyak, H. Soares, A.I. Faden, Traumatic brain injury in the rat: characterization of a lateral fluid-percussion model, Neuroscience 28 (1989) 233-244.
48. [48] B. Meldrum, J. Garthwaite, Excitatory amino acid neurotoxicity and neurodegenerative disease, Trends Pharmacol. Sci. 11 (1990) 379-386.
49. [49] G. Mies, W. Paschen, K.-A. Hossmann, Cerebral blood flow, glucose utilization, regional glucose, and ATP content during the maturation period of delayed ischemic injury in gerbil brain, J. Cereb. Blood Flow Metab. 10 (1990) 638-645.
50. [50] M. Nedergaard, J. Jakobsen, N.H. Diemer, Autoradiographic determination of cerebral glucose content, blood flow, and glucose utilization in focal ischemia of the rat brain: influence of the plasma glucose concentration, J. Cereb. Blood Flow Metab. 8 (1988) 100-108.
51. [51] P. Nilsson, L. Hillered, U. Ponten, U. Ungerstedt, Changes in cortical extracellular levels of energy-related metabolites and amino acids following concussive brain injury in rats, J. Cereb. Blood Flow Metab. 10 (1990) 631-637.
52. 2+ levels following cortical compression contusion trauma in rats, J. Cereb. Blood Flow Metab. 13 (1993) 183-192.
53. [53] K. Okiyama, D.H. Smith, T.A. Gennarelli, R.P. Simon, M. Leach, T.K. McIntosh, The sodium channel blocker and glutamate release inhibitor BW1003C87 and magnesium attenuate regional cerebral edema following experimental brain injury in the rat, J. Neurochem. 64 (1995) 802-809.
54. [54] F. Orzi, D. Dow-Edwards, J. Jehle, C. Kennedy, L. Sokoloff, Comparative effects of acute and chronic administration of amphetamine on local cerebral glucose utilization in the conscious rat, J. Cereb. Blood Flow Metab. 3 (1983) 154-160.
55. [55] A. Panigrahy, S.M. Lee, N. Balady, D.A. Hovda, D.P. Becker, Amphetamine enhances meatabolic recovery following moderate and severe concussive head injuries in adult rats, Soc. Neurosci. Abstr. 21 (1995) 2119.
56. [56] H.M. Pappius, Local cerebral glucose utilization in thermally traumatized rat brain, Ann. Neurol. 9 (1981) 484-491.
57. [57] H.M. Pappius, Brain injury: new insights into neurotransmitter and receptor mechanisms, Neurochem. Res. 16 (1991) 941-949.
58. [58] L.J. Pellegrino, A.S. Pellegrino, A.J. Cushman, A Stereotaxic Atlas of the Rat Brain, Plenum Press, New York, 1986.
59. [59] L.J. Porrino, G. Lucignani, D. Dow-Edwards, L. Sokoloff, Correlation of dose-dependent effects of acute amphetamine administration on behavior and local cerebral metabolism in rats, Brain Res. 307 (1984) 311-320.
60. [60] S.A. Queen, D.M. Feeney, Temporally changing patterns of hippocampal cerebral glucose utilization following sensorimotor contusion in rats, Brain Res. 724 (1996) 246-250.
61. [61] R. Rischke, J. Krieglstein, Postischemic neuronal damage causes astroglial activation and increase in local cerebral glucose utilization of rat hippocampus, J. Cereb. Blood Flow Metab. 11 (1991) 106-113.
62. [62] M.L. Schroder, J.P. Muizelaar, M.R. Bullock, J.B. Salvant, J.T. Povlishock, Focal ischemia due to traumatic contusions documented by stable xenon-CT and ultrastructural studies, J. Neurosurg. 82 (1995) 966-971.
63. [63] M. Shibuya, N. Arita, Y.L. Yamamoto, Regional differences in local cerebral blood flow (LCBF) and glucose utilization (LCGU) in the basal ganglia after occlusion of the middle cerebral artery in rats, J. Neurotrans. 68 (1987) 271-287.
64. [64] I. Shimoyama, G.W. Dauth, S. Gilman, K.A. Frey, J.B. Penney Jr., Thalamic, brainstem and cerebellar glucose metabolism in the hemiplegic monkey, Ann. Neurol. 24 (1988) 718-726.
65. [65] K. Shiraishi, F. Sharp, R.P. Simon, Sequential metabolic changes in rat brain following middle cerebral artery occlusion: a 2-deoxyglucose study, J. Cereb. Blood Flow Metab. 9 (1989) 765-773.
66. [66] H.D. Soares, M. Thomas, K. Cloherty, T.K. McIntosh, Development of prolonged focal cerebral edema and regional cation changes following experimental brain injury in the rat, J. Neurochem. 58 (1992) 1845-1852.
67. 14C]-deoxyglucose method for the measurement of local cerebral glucose utilization: theory, procedure and normal values in the conscious and anesthetized albino rat, J. Neurochem. 28 (1977) 897-915.
68. [68] O. Sorg, P.J. Magistretti, Characterization of the glycogenolysis elicited by vasoactive intestinal peptide, noradrenaline and adenosine in primary cultures of mouse cerebral cortical astrocytes, Brain Res. 563 (1991) 227-233.
69. [69] C. Von Monakow, Diaschisis, the localization in the cerebrum and functional impairment by cortical loci (translated and excerpted by G. Harris), in: K.H. Pribam (Ed.), Mood States and Mind, Brain and Behavior, Vol. 1, Penguin, Baltimore, 1969, pp. 27-37.
70. [70] D. Walker-Batson, P. Smith, S. Curtis, H. Unwin, R. Greenlee, Amphetamine paired with physical therapy accelerates motor recovery after stroke, Stroke 26 (1996) 2254-2259.
71. [71] L.R. Wechsler, H.E. Savaki, L. Sokoloff, Effects of d- and l-amphetamine on local cerebral glucose utilization in the conscious rat, J. Neurochem. 32 (1979) 15-21.
72. [72] I. Yamakami, T.K. McIntosh, Alterations in regional cerebral blood flow following brain injury in the rat, J. Cereb. Blood Flow Metab. 11 (1991) 655-660.
73. [73] H. Yao, M.D. Ginsberg, D.D. Eveleth, J.C. LaManna, B.D. Watson, O.F. Alfonso, J.Y. Loor, J.H. Foreman, R. Busto, Local cerebral glucose utilization and cytoskeletal proteolysis as indicies of evolving focal ischemic injury in core and penumbra, J. Cereb. Blood Flow Metab. 15 (1995) 398-408.
74. [74] A. Yoshino, D.A. Hovda, T. Kawamata, Y. Katayama, D.P. Becker, Dynamic changes in local cerebral glucose utilization following cerebral concussion in rats: evidence of a hyper- and subsequent hypometabolic state, Brain Res. 561 (1991) 106-119.
75. [75] N. Yu, J.-L. Martin, N. Stella, P.J. Magistretti, Arachadonic acid stimulates glucose uptake in cerebral cortical astrocytes, Proc. Natl. Acad. Sci. 90 (1993) 4042-4046.