TY - JOUR
T1 - Food formulation
T2 - rheological and tribological determinants of oral processing and flavor perception
AU - Neiers, Fabrice
AU - Alkan, Derya
AU - Amiri-Rigi, Atefeh
AU - Brandão, Elsa
AU - Ellouze, Ines
AU - Grigoriadis, Anastasios
AU - Gayed Ibrahim, Monica Nabil
AU - Kalkan Yıldırım, Hatice
AU - Künili, İbrahim Ender
AU - Muradova, Mariam
AU - Naik, Azza Silotry
AU - Paraskevopoulou, Adamantini
AU - Pavli, Foteini
AU - Cemali, Özge
AU - Piombino, Paola
AU - Rinaldi, Alessandra
AU - Schwartz, Mathieu
AU - Miao, Song
AU - Zhang, Chi
AU - Soares, Susana
AU - Bostanci, Nagihan
N1 - Publisher Copyright:
© 2026
PY - 2026/3/31
Y1 - 2026/3/31
N2 - Understanding how food behaves during oral processing requires going beyond its chemical composition to integrate rheological and tribological determinants that shape texture, mouthfeel, and ultimately flavor perception. This review examines how viscosity, microstructure, and flow properties govern aroma release and taste perception across liquid, semi-liquid, solid, and emulsion-based foods, while oral tribology elucidates lubrication regimes that drive sensations such as creaminess, smoothness, or astringency during mastication and bolus formation. Particular emphasis is placed on the interplay with saliva, whose proteins and physicochemical properties critically modulate lubrication and sensory dynamics. By combining rheological and tribological approaches termed “rheo-tribology” with sensory analysis, this work highlights integrated mechanisms of flavor release, from controlled diffusion in viscous matrices to tribological transitions at oral surfaces. Formulation strategies using hydrocolloids, proteins, fat replacers, and emulsifiers are detailed, showing how textural engineering can tailor perception and consumer acceptance, particularly in plant-based or reformulated products. Overall, the integration of rheology and tribology provides a comprehensive, physiologically relevant model of oral processing, offering predictive power for designing sensory-optimized foods that balance nutrition, functionality, and pleasure while addressing current challenges in health-driven reformulation and sustainable food innovation.
AB - Understanding how food behaves during oral processing requires going beyond its chemical composition to integrate rheological and tribological determinants that shape texture, mouthfeel, and ultimately flavor perception. This review examines how viscosity, microstructure, and flow properties govern aroma release and taste perception across liquid, semi-liquid, solid, and emulsion-based foods, while oral tribology elucidates lubrication regimes that drive sensations such as creaminess, smoothness, or astringency during mastication and bolus formation. Particular emphasis is placed on the interplay with saliva, whose proteins and physicochemical properties critically modulate lubrication and sensory dynamics. By combining rheological and tribological approaches termed “rheo-tribology” with sensory analysis, this work highlights integrated mechanisms of flavor release, from controlled diffusion in viscous matrices to tribological transitions at oral surfaces. Formulation strategies using hydrocolloids, proteins, fat replacers, and emulsifiers are detailed, showing how textural engineering can tailor perception and consumer acceptance, particularly in plant-based or reformulated products. Overall, the integration of rheology and tribology provides a comprehensive, physiologically relevant model of oral processing, offering predictive power for designing sensory-optimized foods that balance nutrition, functionality, and pleasure while addressing current challenges in health-driven reformulation and sustainable food innovation.
KW - Aroma release
KW - Food
KW - Mouthfeel
KW - Oral processing
KW - Sensory
KW - Texture
UR - https://www.scopus.com/pages/publications/105027635369
U2 - 10.1016/j.foodres.2026.118377
DO - 10.1016/j.foodres.2026.118377
M3 - Article
AN - SCOPUS:105027635369
SN - 0963-9969
VL - 228
JO - Food Research International
JF - Food Research International
M1 - 118377
ER -