Summary
The relationship between circling behavior (rotation), isolation, and aggression was investigated in normal male mice and rats. Initially the animals were tested for spontaneous nocturnal rotation, then conspecific aggression and muricidal behavior was observed for mice and rats respectively. Subsequently, animals were paired on the basis of net nocturnal rotations and either group-housed or individually housed. Four weeks later all animals were retested for the same behaviors. Spontaneous nocturnal rotation increased significantly for the isolated mice but not for the group-housed animals. Moreover, 9 of the 10 isolates became aggressive and their net rotations were significantly and positively correlated with the number of biting attacks. None of the group-housed mice became aggressive. Rats, on other hand, showed a decrease in rotation and a relationship between rotation and muricidal behavior was not evident. The possible relationship between circling behavior, aggression, and territoriality is discussed.
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References
Brain, P., What does individual housing mean to a mouse? Life Sci.16 (1975) 187–200.
Christie, J. E., and Crow, T. J., Turning behavior as an index of the action of amphetamines and ephedrines on central dopamine-containing neurons. Br. J. Pharmac.43 (1971) 658–667.
Denenberg, V. H., Gaulin-Kremer, E., Gandelman, R., and Zarrow, M. X., The development of standard stimulus animals for mouse (Mus musculus) aggression testing by means of olfactory bulbectomy. Anim. Behav.21 (1973) 590–598.
Desjardins, C., Maruniak, J. A., and Bronson, F. H., Social rank in house mice: differentiation revealed by ultraviolet visualization of urinary marking patterns. Science182 (1973) 939–941.
Fentress, J. C., The tonic hypothesis and the patterning of behavior. Ann. N.Y. Acad. Sci.290 (1977) 370–395.
Gentsch, C., Lichtsteiner, M., and Feer, H., Individually housed rats exceed group-housed animals in rotational movements when exposed to a novel environment. Experientia39 (1983) 1412–1414.
Ginsburg, H. J., and Braud, W. G., A laboratory investigation of aggressive behavior in the Mongolian gerbil (Meriones unguiculatus). Psychonomic Sci.22 (1971) 54–55.
Glick, S. D., and Cox, R. D., Nocturnal rotation in normal rats: correlation with amphetamine-induced rotation and effects of nigrostriatal lesions. Brain Res.150 (1978) 149–161.
Glick, S. D., Jerussi, T. P., and Fleisher, L. N., Turning in circles: the neuropharmacology of rotation. Life Sci.18 (1978) 889–896.
Glick, S. D., Zimmerberg, B., and Greenstein, S., Individual differences among mice in normal and amphetamine-enhanced locomotor activity: relationship to behavioral indices of striatal asymmetry. Brain Res.105 (1976) 362–364.
Guisado, E., Fernandez-Tome, P., Garzon, J., and Del Rio, J., Increased dopamine receptor binding in the striatum of rats after long-term isolation. Eur. J. Pharmac.65 (1980) 463–464.
Harrington, J. E., Recognition of territorial boundaries by olfactory cues in mice (Mus musculus L.). Z. Tierpsych.41 (1976) 295–306.
Hutchins, D. A., Pearson, J. D. M., and Sharman, D. F., Striatal metabolism of dopamine in mice made aggressive by isolation. J. Neurochem.24 (1975) 1151–1154.
Hyde, J. F., and Jerussi, T. P., Sexual dimorphism in rats with respect to locomotor activity and circling behavior. Pharmac. Biochem. Behav.18 (1983) 725–729.
Jerussi, T. P., A simple, inexpensive rotometer for automatically recording the dynamics of circling behavior. Pharmac. Biochem. Behav.16 (1982) 353–357.
Jerussi, T. P., and Glick, S. D., Spontaneous and drug-induced rotation (circling behavior) in the Mongolian gerbil (Meriones unguiculatus). Behav. Biol.16 (1976) 241–244.
Jerussi, T. P., and Glick, S. D., Drug-induced rotation in rats without lesions: behavioral and neurochemical indices of a normal asymmetry in nigro-striatal function. Psychopharmacology47 (1976) 249–260.
Jerussi, T. P., Glick, S. D., and Johnson, C. L., Reciprocity of pre-and postsynaptic mechanisms involved in rotation as revealed by dopamine metabolism and adenylate cyclase stimulation. Brain Res.129 (1977) 385–388.
Jerussi, T. P., and Taylor, C. A., Bilateral asymmetry in striatal dopamine metabolism: implications for pharmacotherapy of schizophrenia. Brain Res.246 (1982) 71–75.
Karli, P., Vergnes, M., Eclancher, F., Schmitt, P., and Chaurand, J. P., Role of the amygdala in the control of mouse-killing behavior in the rat, in: The neurobiology of the amygdala, pp. 553–580. Ed. B. E. Eleftheriou. Plenum Press, New York 1972.
Lindzey, G., Thiessen, D. D., and Tucker, A., Development and hormonal control of territorial marking in the male mongolian gerbil (Meriones unguiculatus). Devl Psychobiol.1 (1968) 97–99.
Modigh, K., Effects of isolation and fighting in mice on the rate of synthesis of noradrenaline, dopamine and 5-hydroxytryptamine in the brain. Psychopharmacologia33 (1973) 1–17.
Morihisa, P. M., and Glick, S. D., Morphine-induced rotation (circling behavior) in rats and mice: species differences, persistence of withdrawal-induced rotation and antagonism by naloxone. Brain Res.123 (1977) 180–187.
Moyer, K. E., The Psychobiology of Aggression. Harper and Row, New York 1976.
Pycock, C. J., Turning behavior in animals. Neuroscience5 (1980) 461–514.
Robinson, T. E., Becker, J. B., and Ramirez, V. D., Sex differences in amphetamine-elicited rotational behavior and the lateralization of striatal dopamine in rats. Brain Res. Bull.5 (1980) 539–545.
Tizabi, Y., Massari, J., and Jacobowitz, D. M., Isolation-induced aggression and catecholamine variations in discrete brain areas of the mouse. Brain Res. Bull.5 (1980) 81–86.
Ungerstedt, U., Striatal dopamine release after amphetamine or nerve degeneration revealed by rotational behavior. Acta physiol. scand., suppl. 367 (1971) 49–68.
Ungerstedt, U., and Arbuthnott, G. W., Quantitative recording of rotational behavior in rats after 6-hydroxydopamine lesions of the nigro-striatal dopamine system. Brain Res.24 (1970) 485–493.
Valzelli, L., The ‘isolation syndrome’ in mice. Psychopharmacologia31 (1973) 305–320.
Valzelli, L., and Garattini, S., Biochemical and behavioral changes induced by isolation in rats. Neuropharmacology11 (1972) 17–22.
Weinstock, M., Speiser, Z., and Ashkenazi, R., Changes in brain catecholamine turnover and receptor sensitivity induced by social deprivation in rats. Psychopharmacology56 (1978) 205–209.
Winer, B. J., Statistical Principles in Experimental Design. McGraw-Hill, New York 1962.
Welch, B. L., and Welch, A. S., Greater lowering of brain and adrenal catecholamines in group-housed than in individually-housed mice administered DL-α-methyltyrosine. J. Pharm. Pharmac.20 (1968) 244–246.
Yamatoto, B. K., Lane, R. F., and Freed, C. R., Normal rats trained to circle show asymmetric caudate dopamine release. Life Sci.30 (1982) 2155–2162.
Yoshimura, H., and Ueki, S., Biochemical correlates in mouse-killing behavior of the rat: prolonged isolation and brain cholinergic function. Pharmac. Biochem. Behav.6 (1977) 193–196.
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Jerussi, T.P., Hyde, J.F. Circling behavior in mice and rats: possible relationship to isolation-induced aggression. Experientia 41, 329–331 (1985). https://doi.org/10.1007/BF02004494
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DOI: https://doi.org/10.1007/BF02004494