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The preliminary study on the optimum moisture content of ultra-dry storage and its related chemicals in seeds from six crop species

Published online by Cambridge University Press:  10 June 2016

Min Yan
Min Yan*
Affiliation:
College of Agronomy and Plant Protection, Qingdao Agricultural University, Qingdao, Shandong 266109, China
*
*Corresponding author. E-mail: [email protected]
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Abstract

Ultra-dry storage, storing orthodox seeds at ambient temperatures with moisture contents below 5%, can maintain seed viability for long periods with low input. Optimum moisture contents for ultra-dry storage exist and vary substantially among different seed lots due to their differences in desiccation tolerance, which is associated with the accumulation of protective compounds. To study the relationship between moisture contents of ultra-dry stored species, seed composition and the free-radical scavenging activity (FRSA). Eleven seed lots of maize, wheat, pepper, peanut, Chinese cabbage, and cucumber were chosen and multiple stepwise regression analysis was applied. In general, analysis of the seed lots revealed that optimum moisture contents for highest seed viability are below equilibrium moisture at 13% relative humidity and 20°C. Nevertheless, seed composition differed significantly among species. Lipids, flavonoids and the FRSA were significantly negatively correlated with the optimum moisture content of ultra-dry stored whole seeds and accounted for 97.7% of the total variation in the optimum moisture content. Lipids had the highest effect (90.0%) on the optimum moisture content of ultra-dry storage, which is consistent with the previous results. The FRSA and flavonoids accounted for 4.8 and 2.9% of total variation of optimum moisture content of ultra-dry stored whole seeds, respectively. The FRSA and flavonoids were also significantly negatively correlated with the optimum moisture content for non-lipid fraction of ultra-dry stored seeds, and accounted for 74.1 and 15.3% of the total variation in the optimum moisture content, respectively.

Keywords

chemical compositioncrop seedfree-radical scavenging activityoptimum moisture contentultra-dry storage
Type
Research Article
Information
Plant Genetic Resources , Volume 15 , Issue 6 , December 2017 , pp. 506 - 514
Copyright
Copyright © NIAB 2016 

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References

Angelovici, R, Galili, G, Fernie, AR and Fait, A (2010) Seed desiccation: a bridge between maturation and germination. Trends in Plant Science 15: 211–218.Google Scholar
AOAC (2000) Official Methods of Analysis of the Association of the Analytical Chemists. 17th edn. Association of Official Analytical Chemists.Google Scholar
Bailly, C (2004) Active oxygen species and antioxidants in seed biology. Seed Science Research 14: 93–107.Google Scholar
Berjak, P (2006) Unifying perspectives of some mechanisms basic to desiccation tolerance across life forms. Seed Science Research 16: 1–15.Google Scholar
Black, M, Corbineau, F, Grzesik, M, Guy, P and Côme, D (1996) Carbohydrate metabolism in the developing and maturing wheat embryo in relation to its desiccation tolerance. Journal of Experiment Botany 47: 161–169.Google Scholar
Blois, MS (1958) Antioxidant determinations by the use of a stable free radical. Nature 26: 1199–1200.Google Scholar
Boaretto, LF, Carvalho, G, Borgo, L, Creste, S, Landell, MG, Mazzafera, P and Azevedo, RA (2014) Water stress reveals differential antioxidant responses of tolerant and non-tolerant sugarcane genotypes. Plant Physiology and Biochemistry 74: 165–175.Google Scholar
Bradford, MM (1976) A rapid and sensitive method for the quantitation of microgram quantities of protein utilizing the principle of protein-dye binding. Analytical Biochemistry 72: 248–254.Google Scholar
Daniel, IO (2007) Longevity of maize (Zea mays L.) seeds during low input storage under ambient conditions of southwestern Nigeria. Journal of Tropical Agriculture 45: 42–48.Google Scholar
Ellis, RH and Hong, TD (2006) Temperature sensitivity of the low-moisture-content limit to negative seed longevity-moisture content relations in hermetic storage. Annals of Botany 97: 785–791.Google Scholar
Ellis, RH and Roberts, EH (1980) Improved equations for the prediction of seed longevity. Annals of Botany 45: 13–30.Google Scholar
Ellis, RH, Hong, TD and Roberts, EH (1988) A low-moisture-content limit to logarithmic relations to between seed moisture content and longevity. Annals of Botany 61: 405–408.Google Scholar
Ellis, RH, Hong, TD and Roberts, EH (1989) A comparison of the low-moisture-content limit to the logarithmic relation between seed moisture content and longevity in twelve species. Annals of Botany 63: 601–611.Google Scholar
Ellis, RH, Hong, TD and Roberts, EH (1990a) Moisture content and the longevity of seeds of Phaseolus vulgaris . Annals of Botany 66: 41–48.Google Scholar
Ellis, RH, Hong, TD, Roberts, EH and Tao, KL (1990b) Low moisture content limits to relations between seed longevity and moisture. Annals of Botany 65: 493–504.Google Scholar
Farrant, JM, Berjak, P and Pammenter, NW (1992) Proteins in development and germination of a desiccation-sensitive (recalcitrant) seed species. Plant Growth Regulation 11: 257–265.Google Scholar
Farrant, JM and Moore, J (2011) Programming desiccation-tolerance: from plants to seeds to resurrection plants. Current Opinion in Plant Biology 14: 340–345.Google Scholar
Goffman, FD, Velasco, L and Thies, W (1999) Quantitative determination of tocopherols in single seeds of rapeseed (Brassica napus L.). Fett/Lipid 101: 142–145.Google Scholar
Hendry, GAF (1993) Oxygen, free radical processes and seed longevity. Seed Science Research 3: 141–153.Google Scholar
Hoekstra, FA, Golovina, EA and Buitink, J (2001) Mechanisms of plant desiccation tolerance. Trends in Plant Science 6: 431–438.Google Scholar
Horwitz, W (ed.) (1975) Analytical Chemists. Official Methods of Analysis of the Association of Official, 12th edn. Washington, DC: Association of Official Analytical Chemists, p. 311.Google Scholar
International Seed Testing Association (ISTA) (2007) International Rules for Seed Testing Edition 2007, 1st edn. Bassersdorf: International Seed Testing Association.Google Scholar
Karimi, E, Mehrabanjoubani, P, Keshavarzian, M, Oskoueian, E, Jaafar, HZ and Abdolzadeh, A (2014) Identification and quantification of phenolic and flavonoid components in straw and seed husk of some rice varieties (Oryza sativa L.) and their antioxidant properties. Journal of the Science of Food and Agriculture 94: 2324–2340.Google Scholar
Koornneef, M (1981) The complex syndrome of ttg mutants. Arabidopsis Information Service 18: 45–51.Google Scholar
Koster, KL and Leopold, AC (1988) Sugars and desiccation tolerance in seeds. Plant Physiology 88: 829–832.Google Scholar
Labuza, TP, Tannenabum, SR and Karel, M (1970) Water content and stability of low-moisture, intermediate-moisture foods. Food Technology 25: 543.Google Scholar
Li, Y, Qu, JJ, Yang, XM and An, LZ (2008) A report on ultra-dry storage experiment of Zygophyllum xanthoxylon seeds. Botanical Studies 49: 243–251.Google Scholar
Mazumdar, BC and Majumder, K (2003) Methods on Physico-chemical Analysis of Fruits. Daya Publishing House, Delhi, pp. 108–109.Google Scholar
McDonald, MB (2007) Seed moisture and the equilibrium seed moisture content curve. Journal of Seed Technology 29: 7–18.Google Scholar
Mierziak, J, Kostyn, K and Kulma, A (2014) Flavonoids as important molecules of plant interactions with the environment. Molecules 19: 16240–16265.CrossRefGoogle ScholarPubMed
Mira, S, Estrelles, E and González-Benito, ME (2014) Effect of water content and temperature on seed longevity of seven Brassicaceae species after 5 years of storage. Plant Biology 17: 153–162.Google Scholar
Ordonez, AAL, Gomez, JD, Vattuone, MA and Isla, MI (2006) Antioxidant activities of Sechium edule (Jacq.) Swartz extracts. Food Chemistry 97: 452–458.Google Scholar
Petra, M, Susanne, N, Angelika, K, Monika, S and Éva, H (2014) Singlet oxygen scavenging by leaf flavonoids contributes to sunlight acclimation in Tilia platyphyllos . Environmental and Experimental Botany 100: 1–9.Google Scholar
Pourcel, L, Routaboul, JM, Cheynier, V, Lepiniec, L and Debeaujon, I (2007) Flavonoid oxidation in plants: from biochemical properties to physiological functions. Trends in Plant Science 12: 29–36.Google Scholar
Roberts, EH and Ellis, RH (1989) Water and seed survival. Annals of botany 63: 39–52.Google Scholar
Sonia, C, Patricia, B, Joaquima, M, Eric, L, María, C and Blanca, SS (2014) Overexpression of a calcium-dependent protein kinase confers salt and drought tolerance in rice by preventing membrane lipid peroxidation. Plant Physiology 165: 688–704.Google Scholar
Stevenson, DE and Hurst, RD (2007) Polyphenolic phytochemicals – just antioxidants or much more? Cellular and Molecular Life Sciences 64: 2900–2916.Google Scholar
Thongchai, W and Liawruangrath, B (2007) High-performance liquid chromatographic determination of arbutin in skin-whitening creams and medicinal plant extracts. International Journal of Cosmetic Science 29: 488.Google Scholar
Treutter, D (2006) Significance of flavonoids in plant resistance: a review. Environmental Chemistry Letters 4: 147–157.Google Scholar
Vertucci, CW, Roos, EE and Crane, J (1994) Theoretical basis of protocols for seed storage III. Optimum moisture contents for pea seeds stored at different temperatures. Annuals of Botany 74: 531–540.Google Scholar
Walters-Vertucci, C, Crane, J and Vance, NC (1996) Physiological aspects of Taxus brevifolia seeds in relation to seed storage characteristics. Physiologia Plantarum 98: 1–12.Google Scholar
Zhang, M, Zhuo, JJ, Wang, X, Wu, S and Wang, XF (2010) Optimizing seed water content: relevance to storage stability and molecular mobility. Journal of Integrative Plant Biology 52: 324–331.Google Scholar