During the past seventy years, worldwide more than 2250 varieties have been released that have been derived either as direct mutants or from their progenies. Induction of mutations with radiation has been the most frequently used method for directly developed mutant varieties. The prime strategy in mutation-based breeding has been to upgrade the well-adapted plant varieties by altering one or two major traits, which limit their productivity or enhance their quality value. In this paper, the global impact of mutation-derived varieties on food production and quality enhancement is presented. In addition, the economic contribution of the selected mutant varieties of rice, barley, cotton, groundnut, pulses, sunflower, rapeseed and Japanese pear is discussed. In several mutation-derived varieties, the changed traits have resulted in synergistic effect on increasing the yield and quality of the crop, improving agronomic inputs, crop rotation, and consumer acceptance. In contrast to the currently protected plant varieties or germplasm and increasing restrictions on their use, the induced mutants have been freely available for plant breeding. Many mutants have made transnational impact on increasing yield and quality of several seed-propagated crops. Induced mutations will continue to have an increasing role in creating crop varieties with traits such as modified oil, protein and starch quality, enhanced uptake of specific metals, deeper rooting system, and resistance to drought, diseases and salinity as a major component of the environmentally sustainable agriculture. Future research on induced mutations would also be important in the functional genomics of many food crops.
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Agriculture and Agri-Food Canada, 1999. Oilseeds sector pro-file. Grain and Oilseeds Division, Agriculature and Agri-Food Canada, Ontario. http://atn-riae.agr.ca/public/htmldocs/e1919.htm.
Ahloowalia, B.S. & M. Maluszynski, 2001. Induced mutations-a new paradigm in plant breeding. Euphytica 118: 167–173.
Amano, E., 2001. Report Special Committee on Evaluation of Economics for Utilization of Radiation. Japan Atomic Energy Research Institute (JAERI) 1233 Satanic Takasaki Gunma-ken.
Anonymous, 1996. Bureau of Economic and Agricultural Statistics, Bangkok, Thailand.
Anonymous, 2000. Economic scale of utilization of radiation in Japan. Science and Technology Agency, Japan.
Arain, M.A., A. Ahmad & K.A. Sodium, 2000. Utilization of induced mutations for genetic improvement of wheat. In: Mutation Techniques and Molecular Genetics for Tropical and Subtropical Plant Improvement in Asia and the Pacific Region. IAEA-SR-210/6. IAEA, Vienna, pp. 109–111.
Awan, M.A., 1991. Use of induced mutations for crop improvement in Pakistan. In: Plant Mutation Breeding for Crop Improvement. Vol. 1. IAEA, Vienna, pp. 67–72.
Badawi, A.T., 2001. Yield gap and productiviy decline in rice production in Egypt. In: Yield Gap and Productivity Decline in Rice Production. International Rice Commission, FAO, Rome, pp. 429–441.
Bhatia, C.R., 1991. Economic impact of mutant varieties in India. In: Plant Mutation Breeding for Crop Improvement. Vol. 1. IAEA, Vienna, pp. 33–45.
Bouma, J. & Z. Ohnoutka, 1991. Importance and application of the mutant 'Diamant' in spring barley breeding. In: Plant Mutation Breeding for Crop Improvement. Vol. 1. IAEA, Vienna, pp. 127–133.
Bozzini, A., L. Rossi, C. Mosconi & G.T. Scarascia-Mugnozza, 1984. The genetic improvement of durum wheat at the Energy Research Center of Casaccia. Informatore-Agrario (Italy) 40: 39–45.
Broertjes, C. & A.M. van Harten, 1988. Applied Mutation Breeding for Vegetatively Propagated Crops. Elsevier, Amsterdam.
Canadian Grain Commission, 2000. Quality of 2000 Western Canadian Canola. Canadian Grain Commission, 600-303 Main Street, Winnipeg, Canada. http://www.cgc.ca/Quality/grlreports/Canola/2000.
Canola Connection, 2001. The Growers Manual. http://www.canola-council.org/production/canvarys.html.
Chakrabarti, S.N., 1995. Mutation breeding in India with particular reference to PNR rice varieties. J Nuclear Agric Biol 24: 73–82.
Clampett, W.S., R.L. Williams & J.M. Lacy, 2001. Major achievements in closing yield gap of rice between research and farmers in Australia. In: Yield Gap and Productivity Decline in Rice Production. International Rice Comission, FAO, Rome, pp. 411–428.
Caldwell, D., N. McCallum, S. Mudie, P. Hedley, L. Ramsay, H. Liu, D. Marshall & R. Waugh, 2002. A physical/chemical mutation grid for barley functional genomics. In: Scottish Crop Research Institute. Annual Report 2001/2002, Dundee, pp. 157-158.
Dixit, G.P., D.P. Tripathi, S. Chandra, T.N. Tewari & J.L. Tickoo, 2000. MULLaRP Crops: Varieties developed during the last fifty years. All India Coordinated Research Project on MUL-LaRP(ICAR), Indian Institute of Pulses Research, Kanpur, India.
Domier, K.W., 1997. Fibre industry in Canada. Euroflax Newsl 2: 8–10.
Downey, R.K., 1990. Brassica oilseed breeding-achievements and opportunities. Plant Breed Abstracts 60: 1165–1170.
Dribnenki, J.C.P., A.G. Green & G.N. Atlin, 1996. Linola TM 989 low linolenic flax. Can J Plant Sci 76: 329–331.
FAO, 2001. FAOSTAT Database. Food and Agriculture Organization of the United Nations, Rome, Italy.
Fick, G.N. & J.F. Miller, 1997. Sunflower breeding. In: A.A. Schneiter (Ed.), Sunflower Technology and Production, pp. 395–439. American Society of Agronomy, Madison.
Forster, B.P., 2001. Mutation genetics of salt tolerance in barley: an assessment of Golden Promise and other semi-dwarf mutants. Euphytica 120: 317–328.
Foster, R., D. Egel, E. Maynard, R. Weinzierl, M. Babbadoost, H. Taber, L.W. Jett & B. Hutchinson (Eds.), 2000. Mint (peppermint and spearmint). Midwest Vegetable Production Guide for Commercial Growers, Purdue, pp. 70–72.
Green, A.G., 1986. A mutant genotype of flax (Linum usitatissimum) containing very low levels of linolenic acid in its seed oil. Can J Plant Sci 66: 499–503.
Green, A.G. & J.C.P. Dribnenki, 1996. Breeding and development of LinolaTM(low linolenic flax). In: FAO-Proc. 3rd Intern. Flax Breeding Research Group, France. FAO, Rome, pp. 145–150.
Hauser, M.T., F. Adhami, M. Dorner, E. Fuchs & J. Glossl, 1998. Generation of co-dominant PCR-based markers by duplex analysis on high resolution gels. Plant J 16: 117–125.
Health Canada, 1999. High oleic acid/low linolenic acid canola lines 45A37, 46A40. Novel Food Information-Food Biotechnology, FD/OFD-096-228-A. Office of Food Biotechnology, Food Directorate, Health Canada, Tunney's Pasture, Ottawa, Ontario, pp. 1–3.
Hensz, R.A., 1991. Mutation breeding of grapefruit (Citrus paradisi Macf.). In: Plant Mutation Breeding for Crop Improvement. Vol. I. SM-311, IAEA, Vienna, pp. 533–536.
Huang, B., 1992. Genetic manipulation of microspores and microspore-derived embryos. In Vitro Cell Dev Biol 28: 53–58.
Huitema, J.B.M., W. Preil & J. DeJong, 1991. Methods for selection of low-temperature tolerant mutants of Chrysanthemum morifolium Ramat. using irradiated cell suspension cultures. III. Comparison of mutants selected with or without preselection in vitro at low temperature. Plant Breed 107: 135–140.
Jan, C.C., 1992. Inheritance and allelism of mitomycin C-and streptomycin-induced recessive genes for male sterility in cultivated sunflower. Crop Sci 32: 317–319.
Jan, C.C. & J.N. Rutger, 1988. Mitomycin C-and streptomycin-induced male sterility in cultivated sunflower. Crop Sci 28: 792–795.
Kale, D.M., Chandra Mouli, G.S.S. Murty & M.V.P. Rao, 1997. Development of a new groundnut variety 'TG-26' by using induced mutants in cross breeding. MBNL 43: 25–27.
Maluszynski, M., B.S. Ahloowalia & B. Sigurbjörnsson, 1995. Application of in vivo and in vitro mutation techniques for crop improvement. Euphytica 85: 303–315.
Maluszynski, M., P. Gustafson, J. Maluszynska & I. Szarejko, 2001. Advanced breeding for germplasm enhancement and yield improvement. In: Yield Gap and Productivity Decline in Rice Production. FAO, Rome, pp. 191–224.
Maluszynski, M., K. Nichterlein, L. van Zanten & B.S. Ahloowalia, 2000. Officially released mutant varieties-the FAO/IAEA Database. Mut Breed Rev 12: 1–84.
Maruyama, K., H. Araki & H. Kato, 1991. Thermosensitive genetic male-sterility induced by irradiation. In: Rice Genetics II. IRRI, Manila, pp. 227–235.
Matousek, J., J. Ptacek, P. Dedic & J. Schubert, 2000. Analysis of variability of P1 gene region of N strain of potato virus Y using temperature-gradient gel elecrtophoresis and DNA heteroduplex analysis. Acta Virol 44: 41–46.
McCallum, C.M., L. Comai, E.A. Greene & S. Henikoff, 2000a. Targeted screening for induced mutations. Nature Biotech 18: 455–457.
McCallum, C.M., L. Comai, E.A. Greene & S. Henikoff, 2000b. Targeting induced local lesions in genomes (TILLING) for plant functional genomics. Plant Physiol 123: 439–442.
Miller, J.F. & G.N. Fick, 1997. The genetics of sunflower. In: A.A. Schneiter (Ed.), Sunflower Technology and Production, pp. 441–495. American Society of Agronomy, Madison.
Muller, H.J., 1927. Artificial transmutation of the gene. Science 66: 84–87.
Murray, M.J. & W.A. Todd, 1972. Registration of Todd's Mitcham peppermint. Crop Sci 12: 128.
Nichterlein, K., 1999. The role of induced mutations in the improvement of common beans (Phaseolus vulgaris L.). MBNL 44: 6–9.
Oleykowsky, C.A., C.R. Bronson Mullins, A.K. Godwin & A.T. Yeung, 1998. Mutation detection using a novel plant endonuclease. Nucleic Acids Res 26: 4597–4602.
Peterson, L. & F. Bienvenu, 1998. Peppermint oil. In: K. Hyde (Ed.), The New Rural Industries. A Handbook for Farmers and Investors. Rural Industries Research and Development Corporation, Australia.
Potts, D.A., G.W. Rakow & D.R. Males, 1999. Canola-quality Brassica juncea, a new oilseed crop for the Canadian prairies. In: New Horizons for an old crop. Proc 10th Intl rapeseed Congr, Canberra, Australia 1999. http://www.regional.org.au/au/gcirc/4/70.htm.
Qiu, Q., Z. Li, F. Shen, Ch Wang & H. Miao, 1997. Peanut breeding through mutation techniques in China. MBNL 43: 6–7.
Rampton, R., 2000. New sunflowers could change oilseed market. http://www.producer.com/articles/199912.
Ro, P.V. & D.H. At, 2000. Improvement of traditional local varieties through induced mutations using nuclear techniques. In: T.D. Quy, N.H.Dong, L.D. Thanh, N.H.M. Quyen, P.D. Truc & P.V. Ro (Eds.), Seminar on Methodology for Plant Mutation Breeding for Quality: Effective use of physical/chemical Mutagens, pp. 90–94. AGI, VAEC, STA, JAERI, Hanoi.
Röbbelen, G., 1990. Mutation breeding for quality improvement-a case study for oilseed crops. Mut Breed Rev 6: 1–44.
Rutger, J.N., 1992. Impact of mutation breeding in rice-a review. Mut Breed Rev 8: 1–24.
Sauls, J.W., 1999. Texas citrus-Rootstock and scion varieties. http://www.aggie-horticulture.tamu.edu/citrus/12304.htm pp. 1-7.
Scarascia-Mugnozza, G.T., F. D'Amato, S. Avanzi, D. Bagnara, M.L. Belli, A. Bozzini, A. Brunori, T. Cervigni, M. Devreux, B. Donini, B. Giorgi, G. Martini, L.M. Monti, E. Moschini, C. Mosconi, G. Porreca & L. Rossi, 1993. Mutation breeding for durum wheat (Triticum turgidum ssp. durum Desf.) improvement in Italy. Mut Breed Rev 10: 1–28.
Scarth, R. & P.B.E. McVetty, 1999. Designer oil canola-a review of new food-grade Brassica oils with focus on high oleic, low linolenic types. New Horizons for an Old Crop. Proc 10th Intl Rapeseed Congr, Canberra, Australia. http://www.regional.org.au/au/gcirc/4/57.html.
Shen, Y.W., Q.H. Cai & M.W. Gao, 1993. A new thermosensitive radiation-induced male-sterile rice line. RGN 10: 97–98.
Shu, Q., D. Wu & Y. Xia, 1997. The most widely cultivated rice variety 'Zhefu 802' in China and its geneology. MBNL 43: 3–5.
Skoric, D., 1988. Sunflower breeding. Uijarstvo 25: 3–90.
Soldatov, K.I., 1976. Chemical mutagenesis in sunflower breeding. In: Proceedings of the VIIth International Sunflower Conference. Vol. 1. Krasnodar, pp. 352-357.
Spiegel-Roy, P., 1990. Economic and agricultural impact of mutation breeding in fruit trees. Mut Breed Rev 5: 1–26.
Stadler, L.J., 1928. Mutations in barley induced by X-rays and radium. Science 68: 186–187.
Stokes, T., 2001. Opium-free poppy. Trends in Plant Science 6: 244.
Swanson, E.B., M.P. Coumans, G.L. Brown, J.D. Patel & W.D. Beversdorf, 1988. The characterization of herbicide tolerant plants in Brassica napus L. after in vitro selection of microspores and protoplasts. Plant Cell Rep 7: 83–87.
Temesgen, B., G.R. Brown, D.E. Harry, C.S. Kinlaw, M.M. Sewell & D.B. Neale, 2001. Genetic mapping of expressed sequence tag polymorphism (ESTP) markers in loblloly pine (Pinus taeda L.). Theor Appl Genet 102: 664–675.
United Oilseeds, 1997. Ramrod-first Polish-bred pea for UK. Press release, United Oilseeds. Devlzes, Wiltshire, UK.
Wang, L., 1995. Combining radiation mutation techniques with biotechnology for soybean breeding. Research Report, IAEA. Vienna, pp. 1–15.
Wei, W., P. Bilsborrow, P. Hooley, D. Fincham & B. Forster, 2001. Variation between two near isogenic barley (Hordeum vulgare) cultivars in expression of the B subunit of the vacuolar ARPase in response to salinity. Hereditas 135: 227–231.
Wong, R.S.C. & E. Swanson, 1991. Genetic modification of canola oil: high oleic acid canola. In: C. Haberstroh & C.E. Morris (Eds.), Fat and Cholesterol Reduced Food, pp. 154–164. Gulf, Houston, Texas.
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Ahloowalia, B., Maluszynski, M. & Nichterlein, K. Global impact of mutation-derived varieties. Euphytica 135, 187–204 (2004). https://doi.org/10.1023/B:EUPH.0000014914.85465.4f
- crop improvement
- economic impact
- induced mutations
- mutant value
- mutant variety