Milling properties of winter triticale grain varieties
https://doi.org/10.36107/spfp.2021.145
Abstract
The use in various branches of the food and processing industry of processed products of an unconventional grain crop - triticale, is currently attracting more and more attention from both grain producers and scientists in our country and abroad. This circumstance is due to the increase in acreage, the creation of new varieties of triticale grain, included in the register of varieties, numerous studies of the technological, biochemical and biological potential of triticale grain. In this regard, the goal of our research was to determine the potential milling properties of new varieties of winter triticale grain as a raw material for the production of triticale flour for various purposes. The object of research on the potential milling properties of winter grain triticale are 5 new varieties - Consul, Kapral, Aztec, Cornet and Topaz. Grinding was carried out on grinding-sorting units PCA-4 with rifled and smooth, microrough rollers. All torn systems and the grinding system used grooved rollers with a grooved edge on the tip, and the grinding systems used rollers with a smooth micro-rough surface. The presence of 3 stages of the formation of triticale flour was established, which is clearly seen from the graphs of the cumulative curves. The first section is grinding the central part of the endosperm and includes 3-4 streams. Next comes the second section, where the endosperm and the peripheral part are ground, which includes 3-4 streams. In the third, final section, the shells are ground out and includes 3-4 streams. The total yield of triticale flour from the Consul variety was 73.8% with an ash content of 0.80%, from the Kapral variety it was 77.2% with an ash content of 0.94%, from the Aztec variety it was 76.4% with an ash content of 0.71%, from the Cornet variety it was 75.6% ash content 0.82%, from Topaz grade it was 73.2% ash content 0.73%. The best milling properties of the presented samples of triticale are possessed by the Aztec variety, the yield of triticale flour of the highest grade T-60 of which was 59.2% with an ash content of 0.59%.
Keywords
About the Authors
Roman Kh. KandrokovRussian Federation
Georgy N. Pankratov
Russian Federation
Alexander A. Ryndin
Russian Federation
Pavel M. Konorev
Russian Federation
References
1. References:
2. Andreev N.R., Nosovskaya L.P., Adikaeva L.V., Nekrasova O.A., Goldstein V.G.
3. Kachestvo suhogo korma iz vtorichnyh produktov pererabotki zerna tritikale na krahmal [The quality of dry feed from secondary products of processing grain triticale for starch]. Achievements of science and technology of the agro-industrial complex. 2016. Vol. 30. no.11. p. 73-75.
4. Vitol I.S., Meleshkina E.P., Kandrokov R.Kh., Verezhnikova I.A., Karpilenko G.P. Osobennosti biohimicheskogo sostava tritikalevoj muki raznyh sortov [Features of the biochemical composition of triticale flour of different varieties]. Storage and processing of grain. 2017. no. 2. p. 30-32.
5. Vitol I.S., Meleshkina E.P., Kandrokov R.Kh., Verezhnikova I.A., Karpilenko G.P. Biohimicheskaya harakteristika novyh sortov tritikalevoj muki [Biochemical characteristics of new varieties of triticale flour]. Bread products. 2016. no. 2. p. 42-43.
6. Vitol I.S., Meleshkina E.P., Kandrokov R.Kh. Produkty pererabotki zerna
7. tritikale kak ob"ekt dlya fermentativnoj modifikacii [Grain processing products
8. triticale as an object for enzymatic modification]. Storage and processing of agricultural raw materials. 2016. no. 9. p. 14-16.
9. Kandrokov R.Kh., Starichenkov A.A., Steinberg T.S. Vliyanie GTO na vyhod i kachestvo tritikalevoj muki [The influence of the TRP on the exit and quality of triticale flour]. Khleboprodukty. 2015. no. 1. p. 64-65.
10. Kandrokov R.Kh., Pankratov G.N. Tekhnologiya pererabotki zerna tritikale v krupu tipa «mannaya» [Triticale grain processing technology in semolina
11. type groats]. Khleboprodukty. 2017. no. 1. p. 52-53.
12. Karchevskaya O.V., Dremucheva G.F., Grabovets A.I. Nauchnye osnovy i tekhnologicheskie aspekty primeneniya zerna tritikale v proizvodstve hlebobulochnyh izdelij [Scientific basis and technological aspects of the use of
13. triticale grain in the production of bakery products]. Khlebopechenie Rossii. 2013. no. 5. p. 28-29.
14. Magomedov G.O., Malyutina T.N., Shapkarina A.I. Razrabotka tekhnologii sbivnyh muchnyh konditerskih izdelij povyshennoj pishchevoj cennosti s primeneniem tritikalevoj muki [Technology development whipped flour confectionery products of increased nutritional value with the use of triticale flour]. Vestnik VSUIT. 2016. no. 1. p. 106-109. DOI: 10.20914 / 2310-1202-2016-1-106-109.
15. Meleshkina E.P., Pankratov G.N., Pankratyeva I.A., Chirkova, L.V., Kandrokov
16. R.Kh., Vitol I.S., Igoryanova N.A., Politukha O.V., Tulyakov D.G. Tritikale (tekhnologii pererabotki). Monografiya / pod red. E.P. Meleshkinoj [Triticale (processing technology). Monograph / ed. E.P. Meleshkina]. Moscow: FLINT Publishing House. 2018.188 p. ISBN 978-5-9765-3813-9.
17. Pankratov G.N., Meleshkina E.P., Kandrokov R.Kh., Vitol I.S. Tekhnologicheskie svojstva novyh sortov tritikalevoj muki [Technological properties of new varieties of triticale flour]. Bread products. 2016. no. 1. p. 60-62.
18. Pankratov G.N., Kandrokov R.Kh., Shcherbakova E.V. Process izmel'cheniya zerna tritikale [Grain grinding process triticale]. Bread products. 2016. no. 10. p. 59-61.
19. Sokol N.V. Tritikale – hlebnaya kul'tura [Triticale - grain culture ]. PalmariumAcademicPulishing. 2014. 143 S.
20. Blum A. The abiotic stress response and adaptation of triticale - a review. Cereal Res. Commun. 2014. no. 42. pp. 359-375. DOI: 10.1556 / CRC.42.2014.3.1.
21. Bona L., Acs E., Lantos C., Purnhauser L., Lango B., Tomoskozi S. Human utilization of triticale: technological and features, milling and baking experiments. In: Abstracts 8th international triticale symposium. Ghent. Belgium. 2013. P. 46.
22. Dennett A.L., Cooper K.V., Trethowan R.M. The genotypic and phenotypic interaction of wheat and rye storage proteins in primary triticale. Euphytica. 2013a. no. 194. pp. 235-242. DOI: 10.1007 / s10681-013-0950-y.
23. Dennett A.L., Trethowan R.M. The influence of dual-purpose production on triticale grain quality. Cereal Res. Commun, 2013, no. 41, pp. 448-457. DOI: 10.1556 / CRC.2013.0022.
24. De Laethauwer S., Reheul D., De Riek J., Haesaert G. Vp1 expression profiles during kernel development in six genotypes of wheat, triticale and rye. Euphytica. 2012, no. 188, pp. 61–70. DOI: 10.1007 / s10681-011-0613-9.
25. He M.L., McAllister T.A., Hernandez-Calva L.M., Aalhus J.L., Dugan MER, McKinnon J.J. Effect of dietary inclusion of triticale dried distillers ’grain and oilseeds on quality and fatty acid profile of meat from feedlot steers. Meat Sci. 2014. no. 97. pp. 76-82.
26. Kandrokov R.H., Pankratov G.N., Meleshkina E.P., Vitol I.S., and Tulyakov D.G.Effective technological scheme for processing triticale grain into high-quality baker's grade flour. Foods and Raw Materials. 2019.vol. 7. no. 1. pp. 107-117. DOI: 10.21603 / 2308-4057-2019-1-107-117.
27. Meleshkina E.P., Pankratov G. N., Vitol I. S., Kandrokov R. H., and Tulyakov D. G. Innovative trends in the development of advanced Triticale grain processing technology. Foods and Raw materials, 2017, vol. 5, no. 2, pp. 70-82.
28.
Review
For citations:
Kandrokov R.Kh., Pankratov G.N., Ryndin A.A., Konorev P.M. Milling properties of winter triticale grain varieties. Storage and Processing of Farm Products. 2021;(2):38-51. (In Russ.) https://doi.org/10.36107/spfp.2021.145