Abstract
Mentha spicata is the commonest mint species growing wild in Greece, exhibiting great morphological and chemical variability. The oil content from different wild populations examined ranged from 0.3% to 2.2%; the most common value being ca.1%. Though commercially exploited M. spicata plants are always rich in carvone and dihydrocarvone, wild populations are very variable; four different chemotypes were distinguished within the species. These chemotypes are characterized by the high contribution of the following compounds: (1) linalool, (2) piperitone oxide or piperitenone oxide, (3) carvone-dihydrocarvone and (4) pulegone-menthone-isomenthone. This chemical variability suggests the possibility of further developing and exploiting the full potential of the species.
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Literature cited
Aviv, D., and E. Galun. 1978. Biotransformation of monoterpenes byMentha cell lines: conversion of pulegone to isomenthone. PI. Med. 33:70–77.
Bugaenko, L. A., and S. A. Reznikova. 1984 Genetic control of terpene biosynthesis in mint II: variability and inheritance of terpene composition at interspecific crossings. Genetica 20:2018–2024.
Burbott, A. J., and W. D. Loomis. 1967 Effects of light and temperature on the monoterpenes of peppermint. PL Physiol. 42:20–28.
DePooter, H. L., L.F. DeBuyck, and N.M. Schamp. 1986 The volatiles ofCalamintha nepeta subsp.glandulosa. Phytochemistry 25:691–694.
Gill, L. S., B.M. Lawrence, and J.K. Morton. 1973 Variation inMentha arvensis L. (Labiatae). I. The North American populations. Bot. J. Linn. Soc. 67:213–232.
Góra, J., M. Druri, J. Kaminska, and D. Kalemba. 1975 Chemical composition of essential oil fromMentha spicata L. subsp.longifolia (L.) Tacik. Herba Polon. 20:357–365.
Handa, K. L., D.M. Smith, I.C. Nigam, and L. Levi. 1964 Essential oils and their constituents XXIII. Chemotaxonomy of the genusMentha. J. Pharmacol. Sci. 53:1407–1409.
Harley, R. M. 1963 Taxonomic studies in the genusMentha. D. Phil, thesis, Oxford University, Oxford.
—. 1972Mentha. Pages 183–186in T.G. Tutin et al., eds., Fl. Europaea 3. University Press, Cambridge.
—. 1982Mentha. Pages 384–394in P.H. Davis, ed., Flora of Turkey and the East Aegean Islands. Vol. 7. University Press, Edinburgh.
—, and C.A. Brighton. 1977 Chromosome numbers in the genusMentha L. Bot. J. Linn. Soc. 74:71–96.
Hefendehl, F. W., and M.J. Murray. 1976 Genetic aspects of the biosynthesis of natural odors. Lloydia 39:39–52.
Hendriks, H. 1971 Chemotaxonomisch onderzoek vanMentha rotundifolia (L.) Hudson. Pharm. Weekbl. 106:158–165.
—. 1974 De vluchtige olie van enkele chemotypen vanMentha suaveolens Ehrh. en van hybriden metMentha longifolia (L.) Hudson. Ph.D. thesis, Rijksuniversiteit, Groningen.
—, F.H. L. Van Os, and V.J. Feenstra. 1976 Crossing experiments between some chemotypes ofMentha longifolia andMentha suaveolens. PL Med. 30:154–162.
Katsuhara, J. 1966 An aspect of biogenesis of terpenoids inMentha species. Koryo 83:51–62.
Kokkini, S. 1983 Taxonomic studies in the genusMentha L. in Greece. Doctorate thesis, Faculty of Sciences, University of Thessaloniki, Thessaloniki.
—, and V.P. Papageorgiou. 1982 Morphological, cytological and chemical investigations ofMentha spicata L. in Greece. Pages 131–140in N. Margaris, A. Koedam, and D. Vokou, eds., Aromatic plants: basic and applied aspects. Martinus Nijhoff Publishers, The Hague.
—, and —. 1987 Constituents of essential oils fromMentha xvilloso-nervata Opiz. growing wild in Greece. J. Flavour & Fragrance. 2:119–121.
—, and —. 1988a. Constituents of essential oils fromMentha longifolia growing wild in Greece. PL Med. 54:59–60.
—, and —. 1988b. Constituents of essential oils fromMentha xrotundifolia growing wild in Greece. PL Med. 54:166–167.
Kusner, T. S., and F.L. Grinberg. 1935 Composition of oil of UkranianMentha crispa. J. Appl. Chem. U.S.S.R. 8:1221–1225.
Lawrence, B. M. 1978 A study of the monoterpene interrelationships in the genusMentha with special reference to the origin of pulegone and menthofuran. Ph.D. thesis, Rijksuniversiteit, Groningen.
Lincoln, D. E., and M.J. Murray. 1978 Monogenic basis for reduction of (+)-pulegone to (-)-menthone inMentha oil biogenesis. Phytochemistry 17:1727–1730.
Murray, M. J. 1960a. The genetic basis for the conversion of menthone to menthol in Japanese mint. Genetics 45:925–929.
— 1960b. The genetic basis for a third ketone group inMentha spicata L. Genetics 45:931–937.
—, and D. E. Lincoln. 1970 The genetic basis of acyclic constituents inMentha citrata Ehrh. Genetics 65:457–471.
Shimizu, S., and N. Ikeda. 1962 The essential oils ofMentha spicata with 36 or 48 somatic chromosomes. Agric. Biol. Chem. 26:543–545.
Stebbins, G. L. 1971 Chromosomal evolution in higher plants. Edward Arnold, London.
Todd, W. A., and M.J. Murray. 1968 New essential oils from hybridization of Mentha citrata Ehrh. Perfumery Essential Oil Rec. 9:97–102.
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Kokkini, S., Vokou, D. Mentha spicata (Lamiaceae) chemotypes growing wild in Greece. Econ Bot 43, 192–202 (1989). https://doi.org/10.1007/BF02859860
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DOI: https://doi.org/10.1007/BF02859860


