The use of d-amphetamine pellet implantation as a model for d-amphetamine tolerance in the mouse
- 18 Downloads
- 15 Citations
Abstract
The use of d-amphetamine pellet implantation as a method for producing rapid central drug tolerance was investigated. Mice were implanted with d-amphetamine pellets containing 2 mg of drug and were challenged 24 h later, a time when no detectable drug was present, with various doses of d-amphetamine i.p. Implantation was found to potentiate the stereotyped activity and produced tolerance to the exploratory activity induced by d-amphetamine. Daily pellet implantation for 3 days was not found to produce tolerance to the stereotyped activities. Animals administered a single pellet showed no difference in the brain disposition or metabolism of a subsequent dose of 3H-d-amphetamine. Twenty-four hour pellet implantation markedly increased the rate of conversion of 3H-tyrosine to 3H-dopamine (330%) and 3H-norepinephrine (61%) in the subcortex. However, this effect was reversed by the administration of 10 mg/kg of d-amphetamine.
Key words
d-Amphetamine Pellet Implantation Tolerance Locomotor Activity Exploratory Activity CatecholaminesPreview
Unable to display preview. Download preview PDF.
References
- Anton, A. H., Sayre, D. F.: A study of factors affecting the aluminium oxidetrihydroxyindole procedure for the analysis of catecholamines. J. Pharmacol. exp. Ther. 138, 360–375 (1962).Google Scholar
- Ansell, G. B., Beeson, M. F.: A rapid and sensitive procedure for the combined assay of noradrenaline, dopamine and serotonin in a single brain sample. Analyt. Biochem. 23, 196–206 (1968).Google Scholar
- Axelrod, J.: Studies on sympathetic amines. II. The biotransformation and physiological disposition of d-amphetamine, d-P-hydroxyamphetamine and d-methamphetamine. J. Pharmacol. exp. Ther. 110, 315–326 (1954).Google Scholar
- Brodie, B. B., Cho, A. K., Stefano, F. J. E., Gessa, G. L.: On mechanisms of noradrenaline release by amphetamine and tyramine and tolerance to their effects. In: Advances in biochemical psychopharmacology (E. Costa and P. Greengard, Eds.), pp. 219–238. New York: Raven Press 1969.Google Scholar
- Cheney, D. L., Goldstein, A., Algeri, S., Costa, E.: Narcotic tolerance and dependence: Lack of relationship with serotonin turnover in the brain. Science 171, 1169–1170 (1971).Google Scholar
- Costa, E., Groppetti, A.: Biosynthesis and storage of catecholamines in tissues of rats injected with various doses of d-amphetamine. In: Amphetamines and related compounds (E. Costa and S. Garattini, Eds.), pp. 231–256. New York: Raven Press 1970.Google Scholar
- Dring, L. G., Smith, R. L., Williams, R. T.: The fate of amphetamine in man and other mammals. J. Pharm. Pharmacol. 18, 402–405 (1966).Google Scholar
- Fuxe, K., Ungerstedt, U.: Histochemical, biochemical and functional studies on central monoamine neurons after acute and chronic amphetamine administration. In: Amphetamines and related compounds (E. Costa and S. Garattini, Eds.), pp. 257–288. New York: Raven Press 1970.Google Scholar
- Goldstein, M., Anagnoste, B.: The conversion in vivo of d-amphetamine (+)p-hydroxynorephedrine. Biochim biophys. Acta (Amst.) 107, 166 (1965).Google Scholar
- Gupta, B. D., Dandiya, P. C., Gupta, M. L., Gabba, M. K.: An examination of the effect of central nervous system stimulant and antidepressant drug on openfield performance in rats. Europ. J. Pharmacol. 13, 341–346 (1971).Google Scholar
- Gupta, B. C., Holland, H. C.: Emotion as a determinant of the effects of drugs and their combination on different components of behavior in rats. Neuropharmacology 11, 31–38 (1972).Google Scholar
- Hanson, L. C. F.: Evidence that the central action of (+)-amphetamine is mediated via catecholamines. Psychopharmacologia (Berl.) 10, 289–296 (1967).Google Scholar
- Harrison, J. W. E., Ambras, C. M., Ambrus, J. L.: Tolerance of rats toward amphetamine and methamphetamine. J. Amer. pharm. Ass. 41, 539–541 (1952).Google Scholar
- Hitzemann, R., Loh, H.: Tolerance to amphetamine-induced psychomotor stimulation in mice. Proc. West. Pharmacol. Soc. 15, 110–113 (1972).Google Scholar
- Hitzemann, R., Loh, H.: Effect of p-hydroxynorephedrine on brain catecholamine synthesis. J. Pharmacol. (1972).Google Scholar
- Holland, H. C., Gupta, B. D., Weldon, E.: A note on rearing and on environmental constraint. Activ. nerv. sup. (Praha) 8, 140–144 (1966).Google Scholar
- Hollinger, M.: Effect of reserpine, α-methyl-p-tyrosine, p-chlorophenyl-alanine and pargyline on levorphanol-induced running activity in mice. Arch. int. Pharmacodyn. 179, 419–424 (1969).Google Scholar
- Ikeda, M., Fahien, L. A., Udenfriend, S.: A kinetic study of bovine adrenal tyrosine hydroxylase. J. biol. Cbem. 241, 4452–4456 (1966).Google Scholar
- Kalant, O. J.: The amphetamines. University of Toronto Press, Toronto 1966.Google Scholar
- Kasman, M. E., Unna, K. R.: Effects of the chronic administration of amphetamine and other stimulants on behavior. Clin. Pharmacol.Ther. 9, 240–254 (1967).Google Scholar
- Kopin, I. J., Breese, G. R., Krauss, K. R., Weise, V. K.: Selective release of newly synthesized norepinephrine from the cat spleen during sympathetic nerve stimulation. J. Pharmacol. exp. Ther. 161, 271–278 (1968).Google Scholar
- Lat, J.: The spontaneous exploratory reactions as a tool for psychopharmacologic studies. Proc. 2nd Intern. Pharmacol. Meeting (Czechoslovak Medical Press, Praha), pp. 47–66 (1965).Google Scholar
- Lewander, T.: A mechanism for the development of tolerance to amphetamine in rats. Psychopharmacologia (Berl.) 21, 17–31 (1971).Google Scholar
- Newton, G., Levine, S.: Early experience and behavior, p. 152. Springfield, Ill.: Ch. C. Thomas 1968.Google Scholar
- Persson, T.: Drug induced changes in 3H-catecholamine accumulation after 3H-tyrosine. Acta pharmacol. (Kbh.) 28, 378–390 (1970).Google Scholar
- Randrup, A., Munkvad, I.: Biochemical, anatomical and psychological investigations of stereotyped behavior induced by amphetamines. In: Amphetamines and related compounds (E. Costa and S. Garattini, Eds.), pp. 695–715. New York: Raven Press 1970.Google Scholar
- Smith, R. L., Dring, R. G.: Patterns of metabolism of Β-phenylisopropylamines in man and other species. In: Amphetamines and related compounds (E. Costa and S. Garattini, Eds.), pp. 121–140. New York: Raven Press 1970.Google Scholar
- Sulser, F., Owens, M. L., Norvich, M. R., Dingell, J. V.: The relative role of storage and synthesis of brain norepinephrine in the psychomotor stimulation evoked by amphetamine or by desipramine and tetrabenazine. Psychopharmacologia (Berl.) 12, 322–332 (1968).Google Scholar
- Taylor, K. M., Laverty, R.: The metabolism of tritiated dopamine in regions of the rat brain in vivo. I. The separation of catecholamines and their metabolites. J. Neurochem. 16, 1361–1366 (1969).Google Scholar
- Thoenen, H., Hurlimann, K. F., Gey, K. F., Haefly, W.: Liberation of p-hydroxynorephedrine from cat spleen by sympathetic nerve stimulation after pretreatment with amphetamine. Life Sci. 5, 1715–1722 (1966).Google Scholar
- Weiner, N., Rabadjija, M.: The effect of nerve stimulation on the synthesis and metabolism of norepinephrine in the isolated guinea-pig hypogastric nerve—vas deferens preparation. J. Pharmacol. exp. Ther. 160, 61–71 (1968).Google Scholar
- Weissman, A., Koe, B. K., Tenen, S. S.: Antiamphetamine effects following inhibition of tyrosine hydroxylase. J. Pharmacol. exp. Ther. 151, 329–352 (1966).Google Scholar