Biorefining Green Triticale Grass as a Flavonoid-Rich Source of Protein for Sustainable Food Systems

Green biomass serves as an eco-friendly, plant-derived substitute for conventional protein sources. Leaf protein concentrate (LPC) not only acts as a viable alternative to animal-derived proteins but also contains essential vitamins and bioactive compounds providing nutraceutical advantages. The extraction technique plays a critical role in maximizing LPC yield. In this study, green juice derived from the wet pressing of green triticale biomass was divided into two aliquots, each subjected to distinct processing techniques for LPC isolation. One portion underwent direct thermal coagulation via microwave irradiation, followed by vacuum filtration, yielding green LPC (MW-GLPC) and its brown juice (GJ-BJ). The other was first centrifuged to remove large photosynthetic complexes, producing yellow juice that was subsequently thermally coagulated and vacuum filtered to obtain yellow LPC (YLPC) and its brown juice (YJ-BJ). The crude protein content in the MW-GLPC fraction (38.44 g 100·g -1 DW ) was higher than the raw green juice (16.38 g 100·g -1 DW). YLPC fraction, obtained by incorporating a centrifugation step into the process, resulted in a significantly increase in crude protein (67.22 g 100·g -1 DW). For fractions of brown juice (BJ), the crude protein content differed depending on the processing technique, with GJ-BJ exhibiting 0.73 g 100·g -1 FW and YJ-BJ displaying 1.06 g 100·g -1 FW. Size exclusion chromatography (SEC) indicated that BJ primarily contained oligopeptides ranging from 200 to 3000 Da. Phytochemical assessments demonstrated that YLPC exhibits the highest concentration of some beneficial bioactive compounds, such as luteolin (27.2 μg g -1 ), and isovitexin (111.6 μg g -1 ). These findings are consistent with results obtained from the Drosophila melanogaster model under high-sugar conditions designed to simulate high-sugar-induced stress. Flies supplemented with a concentration of 20% YLPC demonstrated a 10.52% increase in viability relative to the control group, thereby indicating the beneficial potential of YLPC in high-sugar containing environments. • The leaf protein concentrate (LPC) fractions of triticale demonstrated significantly higher crude protein content (38.44 m/m% in MW-GLPC; 67.22 m/m% in YLPC) than the raw green juice fraction (16.38 m/m%). • YLPC, derived from the liquid fraction of centrifuged green juice, exhibited remarkable concentrations of isovitexin (111.6 μg·g -1 ) and luteolin (27.2 μg·g -1 ). • In high-sugar diet conditions, YLPC treatment resulted in a 10.52% increase in the relative viability of the model organism Drosophila melanogaster.

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Journal
Food Bioscience
Published
2026-03-01
DOI
https://doi.org/10.1016/j.fbio.2026.108763
Primary Topic
Food composition and properties
Type
article
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article

Biorefining Green Triticale Grass as a Flavonoid-Rich Source of Protein for Sustainable Food Systems

Miklós Fári, Nevien Elhawat, Endre Máthé, Áron Béni et al.
Food Bioscience
Food composition and properties
article

Biorefining Green Triticale Grass as a Flavonoid-Rich Source of Protein for Sustainable Food Systems

Miklós Fári, Nevien Elhawat, Endre Máthé, Áron Béni, Andrea Balláné Kovács, S. Reyhan Yavuz, Zoltán Kovács, Szilvia Veres, László Kaszás, Nóra Bákonyi, Tarek Alshaal, Wildan Suhartini, Éva Domokos-Szabolcsy
article en

Abstract

Green biomass serves as an eco-friendly, plant-derived substitute for conventional protein sources. Leaf protein concentrate (LPC) not only acts as a viable alternative to animal-derived proteins but also contains essential vitamins and bioactive compounds providing nutraceutical advantages. The extraction technique plays a critical role in maximizing LPC yield. In this study, green juice derived from the wet pressing of green triticale biomass was divided into two aliquots, each subjected to distinct processing techniques for LPC isolation. One portion underwent direct thermal coagulation via microwave irradiation, followed by vacuum filtration, yielding green LPC (MW-GLPC) and its brown juice (GJ-BJ). The other was first centrifuged to remove large photosynthetic complexes, producing yellow juice that was subsequently thermally coagulated and vacuum filtered to obtain yellow LPC (YLPC) and its brown juice (YJ-BJ). The crude protein content in the MW-GLPC fraction (38.44 g 100·g -1 DW ) was higher than the raw green juice (16.38 g 100·g -1 DW). YLPC fraction, obtained by incorporating a centrifugation step into the process, resulted in a significantly increase in crude protein (67.22 g 100·g -1 DW). For fractions of brown juice (BJ), the crude protein content differed depending on the processing technique, with GJ-BJ exhibiting 0.73 g 100·g -1 FW and YJ-BJ displaying 1.06 g 100·g -1 FW. Size exclusion chromatography (SEC) indicated that BJ primarily contained oligopeptides ranging from 200 to 3000 Da. Phytochemical assessments demonstrated that YLPC exhibits the highest concentration of some beneficial bioactive compounds, such as luteolin (27.2 μg g -1 ), and isovitexin (111.6 μg g -1 ). These findings are consistent with results obtained from the Drosophila melanogaster model under high-sugar conditions designed to simulate high-sugar-induced stress. Flies supplemented with a concentration of 20% YLPC demonstrated a 10.52% increase in viability relative to the control group, thereby indicating the beneficial potential of YLPC in high-sugar containing environments. • The leaf protein concentrate (LPC) fractions of triticale demonstrated significantly higher crude protein content (38.44 m/m% in MW-GLPC; 67.22 m/m% in YLPC) than the raw green juice fraction (16.38 m/m%). • YLPC, derived from the liquid fraction of centrifuged green juice, exhibited remarkable concentrations of isovitexin (111.6 μg·g -1 ) and luteolin (27.2 μg·g -1 ). • In high-sugar diet conditions, YLPC treatment resulted in a 10.52% increase in the relative viability of the model organism Drosophila melanogaster.

Food Bioscience
University of Debrecen (HU), Széchenyi István University (HU)
Zero hunger
Openalex Percentile: Top 5%
Food composition and properties
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