Behavioural Effects of Pituitary Hormones

  • Victor M. Wiegant
  • David de Wied


Hormones secreted by the pituitary play an important role in maintaining homeostasis for the organism. Observations by Selye (1950) on the ‘general adaptation syndrome’ implicated pituitary-adrenal-system hormones as functional principles in adaptational processes. Little attention has been paid to the relation of hormonal effects on behaviour and the functioning of central nervous structures. For, from a classic-endocrinological point of view, the brain was not recognized as a target organ for these hormones. The study of impaired learning behaviour of animals after removal of the pituitary (de Wied, 1969), however, clearly indicated that hypophyseal principles are involved in a number of brain functions and that they are important for the maintenance of normal behavioural patterns. Impaired behaviour, as mentioned above, was readily restored by the substitution of ACTH or α-MSH, but also by treatment with fragments of these peptide hormones that lack the classic endocrine activity of the parent hormone. Also, in intact animals it was found that learning and memory processes can be modulated by peptides related to ACTH or β-LPH (de Wied, 1969; de Wied et al., 1978a). Based on such observations, it was postulated that the pituitary manufactures peptides that are released upon adequate stimulation and influence processes of learning, memory and motivation by direct action on the central nervous system (de Wied, 1969). Indeed, ACTH, α-MSH, β-LPH and fragments of this hormone, the endorphins, have been found not only in the pituitary, but in many brain structures as well (Krieger et al., 1977; Orwall et al., 1979; Rossier et al., 1977). Recently, it has been suggested that specific enzyme systems present in pituitary and brain generate bioactive peptides from inactive precursor molecules (Walter et al., 1973; Austen et al., 1977; Burbach et al., 1979). In this way, β-endorphin (β-LPH61–91), a peptide with opiate-like properties, can be generated from the nonopiate-like hormone β-LPH (Gráf et al., 1976; Bradbury et al., 1976b). β-Endorphin, in turn, may serve as precursor for a series of shorter sequences with a variety of behavioural activities. For, in the presence of brain membranes, β-endorphin can be metabolized to α-endorphin, [des-tyrl] -α-endorphin, γ-endorphin and [des-tyr1] -γ-endorphin (Burbach et al., 1979, 1980). Likewise, ACTH may function as a precursor molecule for smaller peptides with differential activities (de Wied, 1974). Interestingly, it has been demonstrated that ACTH, β-LPH and possibly still other peptides are derived from the same large precursor molecule (Mains et al., 1977; Peng Loh, 1979). In addition, immunohistochemical studies revealed a widespread and diffuse neuronal system in the central nervous system, containing ß-LPH, β-endorphin and ACTH- immunoreactivity (see Watson et al., 1978a; Watson and Akil, 1980). Thus, on environmental stimulation, peptides with different intrinsic activities may be released from pituitary or central cells and modulate the activity of neuronal systems in the brain. This altered activity finally results in behavioural adaptation of the organism to the environmental stimulus.


Behavioural Effect Avoidance Behaviour Avoidance Response Pituitary Hormone Excessive Grooming 


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© Pavel D. Hrdina and Radhey L. Singhal 1981

Authors and Affiliations

  • Victor M. Wiegant
  • David de Wied

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