Summary
A procedure has been standardized for high frequency plant regeneration response from nodal explant cultures of Mentha arvensis Linn. var. piperascens Holmes. Murashige and Skoog's medium supplemented with IAA or NAA (0.5–2.0 mgl−1) alone, supported axillary shoot elongation while BAP (2.0–3.0 mgl−1) alongwith IAA (1.0 mgl−1) supported multiple shoot production. In vitro-derived shoots readily developed roots when cultured on NAA (1.0 mgl−1) fortified MS medium. Regenerated plantlets were successfully transferred to glasshouse (90–95% survival rate) and ultimately to the field. Among 280 plants transferred to the field a wide range of variation was observed for various agronomic traits i.e. plant height (32.0–92.0 cm), leaf-stem weight ratio (0.53–2.32), herb yield (105.0–870.0 g), oil content (0.32–1.10%) and oil yield (0.66–5.22 ml/plant). In addition, variations were also recorded for four major constituents of the essential oil i.e. menthol (65.2–94.77%), menthone (1.40–20.89%), isomenthone (0.96–5.14%) and menthyl acetate (0.75–8.52%). A positive correlation is found for oil yield with plant height and herb yield, whereas a negative correlation exists between herb yield and oil content. Based on the initial agronomic assessments on individual plant basis, 27 somaclones were selected and further evaluated in a replicated plant to row trial with parent plant CIMAP/Hy-77 as standard check. Somaclones Sc 59 and Sc 179, selected on the basis of higher herb yield in the initial screening, recorded 55.8% and 64.3% increase in oil yield over the control, respectively. Somaclones Sc 93, Sc 114, Sc 121 and Sc 124 that were selected for their better oil content exhibited 47.2%, 50.6%, 57.5% and 48.2% increase in oil yield over the parent variety, respectively. The performance of these clones in evaluation trials is discussed in relation to the possibility of genetic improvement of mints through somaclonal breeding.
Similar content being viewed by others
References
Aviv, D., E. Krochmal, A. Dantes & E. Galun, 1981. Biotransformation of monoterpenes by Mentha cell lines: Conversion of menthone to neomenthol. Planta Med. 42: 236–243.
Aviv, D., A. Dantes, E. Krochmal & E. Galun, 1983. Biotransformation of monoterpenes by Mentha cell lines: Conversion of pulegone-substitutes and related unsaturated α-β ketone. Planta Med. 47: 7–10.
Bhaumic, C. & P.C. Datta, 1982. Menthol in static and suspension cultures of Mentha arvensis Linn. var. piperascens Holmes. Ind. Drugs 19: 387–388.
Gamborg, O.L., R.A. Miller & K. Ojima, 1968. Nutrient requirements of suspension cultures of soybean root cells. Expt. Cell Res. 50: 151–158.
Gottschalk, E. & G. Wolff, 1983. General aspects of mutation breeding with regard to the improvement of seed storage substances. In: R. Frankel, G.A.E. Gall, M. Grossmann, H.F. Linskens & R. Riley (Eds.) Induced Mutations in Plant Breeding, pp. 178–181, Springer-Verlag, Berlin.
Heffendehl, F.W. & M.J. Murray, 1976. Genetic aspects of the bio-synthesis of natural odors. Llyodia 39: 39–51.
Hirata, T., S. Murakami, K. Ogihara & T. Suga, 1990. Volatile monoterpenoid constituents of the plantlets of Mentha spicata produced by shoot tip culture. Phytochemistry 29: 493–495.
Hoagland, D.R. & D.I. Arnon, 1950. The water culture method for growing plants without soil: Calif. Agric. Sta. Circ. No. 437.
Holm, Y., R. Hiltunen, K. Jokinen, T. Tormala, 1989. On quality of volatile oil in micropropagated peppermint. Flavour and Fragrance Journal 4: 81–84.
Kak, S.N. & B.L. Kaul, 1978. Mutation breeding of some novel chemotypes in Japanese mint, Mentha arvensis L. Ind. Perfumer 22: 249–251.
Kak, S.N. & B.L. Kaul, 1980. Radiation induced useful mutants of Japanese mint, Mentha arvensis L. Z. Pflanzenzüchtg 85: 170–174.
Karasawa, D. & S. Shimizu, 1980. Triterpene acids in callus tissues from Mentha arvensis var. piperascens MAL. Agric. Biol. Chem. 44: 1203–1205.
Korneva, E.I., 1983. Interspecific and distant hybridization in breeding high yielding varieties of peppermint. Sel'Shokhozyaistvennaya Biologiya No. 12, pp. 69–72.
Kovineva, V.M. & A.G. Kodash, 1976. A new species hybrid of mint. Herba Pol. 22: 281–283.
Linsmaeir, E.M. & F. Skoog, 1965. Organic growth factor requirements of tobacco tissue cultures. Physiol. Plant. 18: 100–127.
Mathur, A.K., P.S. Ahuja, B. Pandey, A.K. Kukreja & S. Mandal, 1988. Screening and evaluation of somaclonal variations for qualitative and quantitative traits in an aromatic grass, Cymbopogon winterianus Jowitt. Pl. Breed. 101: 321–334.
Murashige, T. & F. Skoog, 1962. A revised medium for rapid growth and bioassays with tobacco tissue cultures. Physiol. Plant. 15: 473–497.
Ono, S. & N. Ikeda, 1970. Studies on the inter subgeneric hybridization in the genus—Mentha. III. Studies on the artificial cultures of hybrid embryo. Jap. J. Breed. 20: 96–100.
Rech, E.L. & M.J.P. Piers, 1986. Tissue culture propagation of Mentha spp. by the use of axillary buds. Pl. Cell Rep. 5: 17–18.
Repcáková, K., M. Rychlova, E. Cellarova & R. Honcariv, 1986. Micropropagation of Mentha piperita L. through tissue cultures. Herba Hung. 25: 77–88.
Rodov, V.S. & D.A. Davidova, 1987. The propagation of mint by meristem culture. Trudy VN II Efiromaslichnykh Kultur 18: 78–83.
Tyagi, B.R., 1986. Breeding for improving essential oil yield and quality in Mentha arvensis L., Mentha spicata L. and Mentha cardiaca Baker. In: Plantation Opportunities in India' pp. 59 Symp. Organised by Hindustan Lever Research Foundation, Bombay, New Delhi.
Tyagi, B.R. & A.A. Naqvi, 1987. Relevance of chromosomic number variation to yield and quality of essential oil in Mentha arvensis. Cytologia 52: 377–385.
Author information
Authors and Affiliations
Additional information
CIMAP Publication No. 1012
Rights and permissions
About this article
Cite this article
Kukreja, A.K., Dhawan, O.P., Mathur, A.K. et al. Screening and evaluation of agronomically useful somaclonal variations in Japanese mint (Mentha arvensis L.). Euphytica 53, 183–191 (1991). https://doi.org/10.1007/BF00023270
Received:
Accepted:
Issue Date:
DOI: https://doi.org/10.1007/BF00023270