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Monoamines and acetyl-cholinesterase in the pineal gland and habenula of the ferret

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Summary

A histochemical method for demonstrating amines by fluorescence showed that the pinealocytes of the ferret contained a high concentration of a yellow fluorophore (probably 5-HT). Numerous green-fluorescent (noradrenaline-containing) nerve fibres occurred around intrapineal blood vessels, between pinealocytes and in the N. conarii (which entered the gland caudally). A collection of neuron-like cells (the pineal ganglion) lay, surrounded by a meshwork of nerve fibres, in the posterior part of the pineal. Neither the cells nor the fibres of the pineal ganglion contained monoamines, but both showed the presence of acetyl-cholinesterase which otherwise was found in the pineal only in fibres which stretched from the ganglion towards the cranial pole of the gland. The medial habenular nucleus showed a remarkable perivascular green fluorescence not seen in the lateral habenular nucleus nor anywhere else in the adjacent diencephalon and brain stem. The cells and fibres of this nucleus also contained much acetyl-cholinesterase.

Bilateral superior cervical ganglionectomy, or treating animals with reserpine, removed the green fluorescence from both pineal nerve fibres and the habenula. Ganglionectomy also resulted in a progressive alteration in the colour of the parenchymal fluorescence from yellow to green; the original yellow colour was restored by treating ganglionectomised animals with nialamide (a monoamine oxidase inhibitor). L-Dopa, 5-hydroxytryptophan or nialamide, alone or in combination, had no effect on the fluorescence of the nerve fibres or cells of the pineal, or on the habenula.

These results are related to previous findings that pinealectomy or ganglionectomy prevents the acceleration by artificial light of oestrus in ferrets.

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Trueman, T., Herbert, J. Monoamines and acetyl-cholinesterase in the pineal gland and habenula of the ferret. Z. Zellforsch. 109, 83–100 (1970). https://doi.org/10.1007/BF00364933

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