Grain Products and Mixed Fodder’s

ISSN-print: 2313-478X
ISSN-online: 2411-3921
ISO: 26324:2012



D. Zhygunov
I. Toporash
Y. Barkovska
Y. Yehorshyn


Practice of processing of new types of wheat is widespread in the world, but it’s almost unknown in the CIS countries, because selection for many years aimed at obtaining exclusively high protein bread-baking varieties of wheat. But not known what technological properties of flour possesses from wheat types of a special intended purpose, and that it’s necessary to consider when conducting varietal grinding of such raw material. The alveograph measures the viscoelastic properties of wheat flour. According to the standard method ISO 27971 the amount of added water is initially calibrated directly as a percentage of dough moisture. This method is designed for standard types of flour and may not be suitable for evaluating the rheological properties of flour with different water absorption capacity. To find out the properties of new types, standard methods may not be suitable, therefore, methods should be studied and adapted if necessary. To investigate the relationship between water absorption capacity and viscoelastic properties of the dough, alveograph tests were conducted on eight flour samples obtained from different types of wheat. The studies were performed using a standard test (calculated for WAC of flour = 53%) and a test with adaptive moistening, for which the amount of added water was calculated according to the water absorption capacity (WAC) of the flour, which was determined on mixolab. Flour from common red wheat (Kuyalnik) is the benchmark of common bakery wheat and according to the results of standard alveogram has the highest strength (W) and elasticity (Ie) of all samples. The wheat with W= 43910-4J corresponds to strong wheat (W>20010-4J). The addition of water in accordance with the WAC softens the dough W=26010-4J, but it`s still optimal for bakery purposes. The results of studies of common black wheat (Chornobrova) correlate with the results of wheat Kuyalnik, but the baking properties were worse. For waxy wheat (Sofiika), the test on the alveograph with adaptive moistening gave her more water, which led to an increase in elasticity (Ie=52.4%) and extensibility (L=77 mm) and became closer to an optimal P/L ratio (0.74) that was more suitable for the bake bread (0.8-1.2). Flour from soft wheat is expected to have average baking properties (W>15510-4J), but in all respects it is slightly better than Chornobrova. Adaptive moistening, unlike the sharp deterioration of rheological characteristic of Chornobrova, does not alter the properties of the Belyava and Oksana dough, due to the low WAC value (53.8% and 54.0%). Spelt wheat flour has low strength
(W<6210-4J), lower P/L ratio 0.25-0.50 and unsuitable (fluid, sticky) test consistency. All samples of Spelt with adaptive moistening showed similar result – its decrease of P indicator and increase of extensibility (L). In a result we observe decrease of P/L ratio to 0.18-0.29, thus indicating extremely extensible doughs with very little elasticity. For all samples, with adaptive moistening a decrease in resistance to extension (P) and an increase in extensibility (L) are observed, in a result of the decline in the P/L ratio. Adaptive moistening for common wheat (Kuyalnik) will show the change in P and L and the P/L ratio in real cooking conditions, since the standard alveograph test assesses only the potential of wheat. By adjusting the amount of water, we can achieve optimal dough characteristics for different products. For soft and spelt wheat, adaptive moistening is not necessary, because the WAC and moisture content are the same, and according to the standard of the experiment. It is advisable to carry out an alveograph test with adapted moistening for waxy wheat, that giving it more water, which leads to an increase in elasticity and extensibility, as a consequence, and leading to an optimal P/L ratio that was more suitable for the bake bread (0.8-1.2). Based on its special application, it is necessary to develop specific recommendations for determining its properties on the alveograph.

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Як цитувати
Zhygunov, D., Toporash, I., Barkovska, Y., & Yehorshyn, Y. (2020). ПОРІВНЯННЯ ХАРАКТЕРИСТИК БОРОШНА З РІЗНИХ ТИПІВ ЗВИЧАЙНОЇ ПШЕНИЦІ ТА СПЕЛЬТИ НА АЛЬВЕОГРАФІ. Grain Products and Mixed Fodder’s, 20(1), 23-30.


1. Abbasi, H., Emam-Djomeh, Z., Seyedin, S.M. (2011). Application of Artificial Neural Network and Genetic Algorithm for Predicting three Important Parameters in Bakery Industries. International Journal of Agricultural Science and Research 2(4): 51-64.
2. Abdel-Aal, E.S.M., Sosulski, F.W., Hucl, P. (1998). Origins, characteristics, and potentials of ancient wheats. Cereal Foods World, 43(9), 708-715.
3. Abdel-Aal, E.-S. M., Hucl, P., Chibbar, R. N., Han, H. L., and Demeke, T. (2002). Physicochemical and structural characteristics of flours and starches from waxy and nonwaxy wheats. Cereal Chem. 79:458-464
4. Berti C., Riso P., Brusamolino A., Porrini M. (2005). Effect on appetite control of minor cereal and pseudocereal products. British J. Nutr. 94, 850-858.
5. Bushuk, W. and Békés, F. (2002). Contribution of Protein to Flour Quality. In: Salgo, A., Tomoskozi, S. and Lasztity, R., Eds., Proc. Novel Raw Materials, Technologies and Products-New Challenge for the Quality Control. International Association for Cereal Science and Technology (ICC), Budapest, 14-19.
6. Campbell K.G. (1997). Spelt: agronomy, genetics and breeding. Plant Breed. Rev. 15, 187-213.
7. Chakraborty, M., Matkovic, K., Grier, D.G., Jarabek, E.L., Berzonsky, W.A., McMullen, M.S., et al. (2004). Physicochemical and functional properties of tetraploid and hexaploid waxy wheat starch. Starch/Sta¨rke, 56, 339-347.
8. Chibbar, R.N., Baga, M., Demeke, T., Hucl, P. (1997). Genetic engineering for starch modification. In J. L. Steele & O. K. Chung (Eds.), Proceedings of international wheat quality conference (pp. 245–259). Manhattan, KS: Grain Industry Alliance.
9. Colombo, A., Perez, G.T., Ribotta, P.D., Leon, A.E. (2008). A comparative study of physicochemical tests for quality prediction of Argentine wheat flours used as corrector flours and for cookie production. Journal of Cereal Science 48(3): 775-780.
10. Delcour, J.A., and Hoseney, R.C. (2010). Principles of Cereal Science and Technology, 3rd ed. St. Paul, MN: AACC International.
11. Graybosch, R. A. (1998). Waxy wheats: Origin, properties, and prospects. Trends Food Sci. Technol. 9:135-142.
12. Khattak, S., D'appolonia, B.L., and Banasik, O.J. (1974). Use of the alveograph for quality evaluation of hard red spring wheat. Cereal Chem. 5 1:355.
13. Kiribuchi-Otobe, C., Nagamine, T., Yanagisawa, T., Ohnishi, M., Yamaguchi, I. (1997). Production of hexaploid wheats with waxy endosperm character. Cereal Chemistry, 74, 72-74.
14. Morrison, W.R., Milligan, T.P., Azudin, M.N. (1984). A relationship between the amylose and lipid contents of starches from diploid cereals. Journal of Cereal Science, 2, 257-271.
15. Onishi I., Hongo A., Sasakuma T., Tawahara T., Kato K., Miura H. (2006). Variation and segregation for rachis fragility in spelt wheat, Triticum spelta L. Gen. Res. Crop Evol. 53, 985-992.
16. Posner, E. (2000). Wheat. In: Kulp, K. E. A. (ed.) Handbook of Cereal Science and Technology. New York: Marcel Dekker.
17. Preston, K.R.; Lukow, O.M.; Morgan, B. (1992). Analysis of relationships between flour quality properties and protein fractions in a world wheat collection. Cereal Chem, 69, 560–567.
18. Shewry, P.R. (2009). Wheat. Journal of Experimental Botany, 60(6), 1537-1553.
19. Song, Y. and Zheng, Q. (2007). Dynamic rheological properties of flour dough and proteins wheat. Trends in Food Science & Technology 18(3): 132-138.
20. Toporash I., Rybalka O., Lytvynenko M., Surzhenko I. (2008). Tsikavi zakonomirnosti vyplyvaiut z doslidzhen-nia boroshnomelnykh vlastyvostei suchasnykh sortiv pshenytsi. Zerno i khlib. №1(49): 50-51.
21. Yan Y., Hsam S.L.K., Yu J.Z., Jiang Y., Ohtsuka I., Zeller F.J. (2003). HMW and LMW glutenin alleles among putative tetraploid and hexaploid European spelt wheat (Triticum spelta L.) progenitors. Theor. Appl. Genetic 107, 1321-1330.
22. Zieliński H., Ceglińska A., Michalska A. (2008). Bioactive compounds in spelt bread. Eur. Food Res. Technol. 226, 537-544.