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Abstract
Today, bakery and milling industry is actively developing, as well as other branches of food industry. This is due to the applying of new foreign trends to the technology and range of products of the Ukrainian market. In these conditions, the classic offering of flour is already inadequate. To meet the needs of modern bakeries, milling industry is facing a new challenge: production of flour grades with specified quality parameters.
The article considers the technological and baking properties of flour from all systems of the technological process of a flourmill with a capacity of 300 tons per day. Studies have shown that flour from first-quality systems is whiter by 15–20 units, is by 1.0–1.8% lower in ash, by 1–3% lower in protein, by 2–4% lower in gluten with more elastic properties, has a Falling Number higher by 80–110 s, a water absorption capacity lower by 1–5%, a damaged starch value lower by 1–3 UCD as compared to flour from systems of some other quality. Technological solutions are developed for producing a special flour grade by its selection and mixing from the streams of the 1st break system (B1/B2), 1st reduction system (C1/C2), 2nd sizing system (R2), and 1st vibratory bran finisher system (V1). It has been found that the developed grade of flour – patent superior grade flour – meets the requirements and has high baking performance. It has a gluten content higher by 2%, Falling Number lower by 20 s, and Starch Damage less by 2 UCD, as compared to patent high grade flour. This makes it possible to obtain bread larger in volume by 55 cm3, with smooth, even crust, elastic white crumb, and uniform porosity (80%). According to rheological characteristics determined with a Mixolab device, patent superior grade flour has a higher Water Absorption Index, a higher Viscosity Index, a lower Gluten+ Index, and a lower Amylase Index than patent high grade flour. The developed technological solutions for producing flour with specified quality parameters have been introduced at the flourmill with an equipment package, from the company Alapala (Turkey), with a capacity of 300 tons per day.
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References
2. Krutovyi ZhA, Zakharenko HV, Zakharenko VO. Try pryntsypy stvorennia boroshnianykh vyrobiv. Pro-hresyvni tekhnika ta tekhnolohii kharchovykh vyrobnytstv, restorannoho hospodarstva i torhivli: zb. nauk. prats. KhDUKhT. Kharkiv, 2014. 2. 222-230.
3. Popov MV. Tekhnolohycheskye reshenyia proyzvodstva pshenychnoi muky tselevoho naznachenyia dlia khlebobulochnykh y muchnykh kondyterskykh yzdelyi: dys. … kand. tekhn. nauk: 05.18.01: zashchyta 18.12.2008 / nauchn. ruk. Matveeva Y. V. Moskva: MHUPP, 2008.
4. Iorhachova KH, Makarova OV, Khvostenko KV, Vovchenko OM. Obhruntuvannia vyboru hrup boroshnianykh kondyterskykh vyrobiv dlia vykorystannia boroshna z m`iakozernoi pshenytsi. Zernovi produkty i kombikormy. 2012; 3: 25-30.
5. Chebotarev ON, Shazzo AYu, Martynenko YaF. Tekhnolohyia muki, krupy y kombikormov. Moskva: Mart, 2004.
6. Zhyhunov DO, Kovalova VP, Moroz I. Vyznachennia pokaznykiv yakosti boroshna z riznykh system te-khnolohichnoho protsesu pry sortovomu pomeli pshenytsi. Zernovi produkty i kombikormy. 2017; 4: 30-36.
7. Fedotov VA. Faktory formirovanyia potrebitelskykh svoystv zernomuchnykh tovarov. Vestnyk OHU. Orenburh, 2011; 4. 186-189.
8. Dubat A, Kahraman K., Sakıyan O., Ozturk S. Utilization of Mixolab to predict the suitability of flours in terms of cake quality. European Food Research and Technology 2008; 227: 565-570. doi: 10.1007/s00217-007-0757-y
9. Dhaka V, Gulia N, and Khatkar BS. Application of mixolab to assess the bread making quality of wheat varieties. Sci. Report. 2012; 1:183. doi: 10.4172/scientificreports.183
10. Cenkowski S., Dexter J., Scanlon M. Mechanical Compaction of Flour: The Effect of Storage Temperature on Dough Rheological Properties. Canadian Agriculture Engineering. 2000; 42:33-41.
11. Barrera GN, Pérez GT, Ribotta PD, León AL. Influence of damaged starch on cookie and bread-making quality. Eur. Food Res Technol. 2007; 225: 1-7. doi: 10.1007/s00217-006-0374-1
12. Barak S, Mudgil D, Khatkar В. Effect of flour particle size and damaged starch on the quality of cookies. J Food Sci Technol. 2014; 51(7): 1342–1348. doi: 10.1007/s13197-012-0627-x
13. Boyac İH, Williams PC, Kökse H. A rapid method for the estimation of damaged starch in wheat flours. Journal Cereal Science. 2004; 39: 139-145. doi: 10.1016/j.jcs.2003.09.002
14. Fistes A, Rakic D. Using the eight-roller mill in the purifier-less mill flow. J Food Sci Technol. 2015; 52(7): 4661-4668. doi: 10.1007/s13197-014-1685-z
15. Netsvetaev VP, Liutenko OV, Pashchenko LS, Popkova NN. Metody sedimentatsiy i otsenka kachestva kleykovina myagkoy pshenitsy. Nauchnyye vedomosty Belhorodskoho hosudarstvennoho universiteta. Seriya: Estestvennyye nauki. Belhorod. 2009; 56-64.
16. Jean-Philippe Ral, Alex Whan, Oscar Larroque. Engineering high a-amylase levels in wheat grain lowers Falling Number but improves baking properties. Plant Biotechnology Journal. 2016; 14: 364-376. doi: 10.1111/pbi.12390
17. Gabriela N, Gabriela T, ´Pablo D, Ribotta Alberto E. Influence of damaged starch on cookie and bread-making quality. Eur Food Res Technol. 2007; 225: 1–7. doi 10.1007/s00217-006-0374-1
18. Iorhachova KH, Lebedenko TYe. Khlibobulochni vyroby ozdorovchoho pryznachennia z vykorystanniam fito-dobavok. Kyiv: K-Pres; 2015.