Dapčević-Hadnađev Tamara, Tomić Jelena, Škrobot Dubravka, Šarić Bojana, Hadnađev Miroslav
University of Novi Sad, Institute of Food Technology, Bulevar cara Lazara 1, 21000 Novi Sad, Serbia.
Discov Food. 2022;2(1):11. doi: 10.1007/s44187-022-00012-w. Epub 2022 Mar 2.
Strategies to increase the bio-functionality of staple food, such as bread, by incorporating whole-grain wheat flour or flour from other, non-wheat grains instead of refined wheat flour are often constrained with the lack of their techno-functionality, despite the associated beneficial effect on consumers' health and well-being. Most of the available studies investigating the possibilities to improve technological and sensory quality of bread prepared using whole-grain wheat and non-wheat flours still rely on formulation approaches in which different additives and novel ingredients are used as structuring agents. Less attention has been given to technological approaches which could be applied to induce structural changes on biopolymer level and thus increase the breadmaking potential of whole grains such as: modification of grain and biopolymers structure by germination, flour particle size reduction, dry-heat or hydrothermal treatment, atmospheric cold plasma, high-pressure processing or ultrasound treatment. Strategies to modify processing variables during breadmaking like dough kneading and hydration modification, sourdough fermentation or non-conventional baking techniques application are also poorly exploited for bread preparation from non-wheat grains. In this paper, the challenges and opportunities of abovementioned processing strategies for the development of bread with whole-wheat flours and non-wheat flours from underutilised gluten-containing or gluten-free cereals and pseudocereals will be reviewed throughout the whole breadmaking chain: from grain to bread and from milling to baking. Feasibility of different strategies to increase the technological performance and sensory quality of bread based on whole-grain wheat flours or flours from other, non-wheat grains will be addressed considering both the environmental, safety and nutritive advantages.
通过加入全麦面粉或其他非小麦谷物的面粉来替代精制小麦粉,从而提高主食(如面包)生物功能的策略,尽管对消费者的健康和福祉有相关益处,但往往受到其技术功能不足的限制。大多数现有研究在探究使用全麦小麦粉和非小麦粉制作面包以提高其技术和感官品质的可能性时,仍依赖于使用不同添加剂和新型成分作为结构剂的配方方法。对于可应用于在生物聚合物层面诱导结构变化从而提高全谷物面包制作潜力的技术方法关注较少,例如:通过发芽改变谷物和生物聚合物结构、减小面粉颗粒尺寸、进行干热或水热处理、采用常压冷等离子体、高压处理或超声处理。在制作面包过程中改变加工变量的策略,如面团揉捏和水分调节、酸面团发酵或应用非常规烘焙技术,在利用非小麦谷物制作面包方面也未得到充分利用。本文将在整个面包制作链(从谷物到面包以及从研磨到烘焙)中综述上述加工策略在利用未充分利用的含麸质或无麸质谷物及假谷物制作全麦面粉和非小麦面粉面包方面所面临的挑战和机遇。将考虑环境、安全和营养优势,探讨不同策略提高基于全麦面粉或其他非小麦谷物面粉的面包技术性能和感官品质的可行性。