Advances in large amplitude oscillatory shear Rheology of food materials

Molecular interactions determine the microstructure of food, as well as its response to deformation and flow. In order to design efficient processing equipment, to produce high-quality, stable end products, to predict textural and sensory properties, and to ensure consumer acceptance, the characteri...

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Main Authors: Merve Yildirim Erturk, Anh Nghi Minh Le, Jozef Kokini
Format: Article
Language:English
Published: Frontiers Media S.A. 2023-07-01
Series:Frontiers in Food Science and Technology
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/frfst.2023.1130165/full
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author Merve Yildirim Erturk
Anh Nghi Minh Le
Jozef Kokini
author_facet Merve Yildirim Erturk
Anh Nghi Minh Le
Jozef Kokini
author_sort Merve Yildirim Erturk
collection DOAJ
description Molecular interactions determine the microstructure of food, as well as its response to deformation and flow. In order to design efficient processing equipment, to produce high-quality, stable end products, to predict textural and sensory properties, and to ensure consumer acceptance, the characterization of food rheology is essential. Deformations are rapid and large during the processing of foods and during consumption. In food studies, large amplitude oscillatory shear (LAOS) has become increasingly popular due to its ability to mimic real-life processes. When food is subjected to dynamic oscillatory shear tests, a sinusoidal deformation is applied, the mechanical stress (or strain) is probed, and the response is recorded. This chapter summarize main methods to extract meaningful rheological parameters from complex LAOS response of selected food materials. A time-resolved nonlinear rheology method, sequence of physical processes (SPP), gave detailed interpretations of transient microstructures, whereas the Fourier Transform coupled with Chebyshev decomposition (FTC) method provide static measurements at specific strains. LAOS behavior and its relationship to food microstructures and texture still needed to be studied in depth. By constructing more accurate mechanical models of complex food systems, the fundamental knowledge can be applied to evaluate the nonlinear rheology of food for consumer acceptance and efficient processing.
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spelling doaj.art-f5a365430a184b6fa1a15bb910535de52024-08-03T05:21:43ZengFrontiers Media S.A.Frontiers in Food Science and Technology2674-11212023-07-01310.3389/frfst.2023.11301651130165Advances in large amplitude oscillatory shear Rheology of food materialsMerve Yildirim ErturkAnh Nghi Minh LeJozef KokiniMolecular interactions determine the microstructure of food, as well as its response to deformation and flow. In order to design efficient processing equipment, to produce high-quality, stable end products, to predict textural and sensory properties, and to ensure consumer acceptance, the characterization of food rheology is essential. Deformations are rapid and large during the processing of foods and during consumption. In food studies, large amplitude oscillatory shear (LAOS) has become increasingly popular due to its ability to mimic real-life processes. When food is subjected to dynamic oscillatory shear tests, a sinusoidal deformation is applied, the mechanical stress (or strain) is probed, and the response is recorded. This chapter summarize main methods to extract meaningful rheological parameters from complex LAOS response of selected food materials. A time-resolved nonlinear rheology method, sequence of physical processes (SPP), gave detailed interpretations of transient microstructures, whereas the Fourier Transform coupled with Chebyshev decomposition (FTC) method provide static measurements at specific strains. LAOS behavior and its relationship to food microstructures and texture still needed to be studied in depth. By constructing more accurate mechanical models of complex food systems, the fundamental knowledge can be applied to evaluate the nonlinear rheology of food for consumer acceptance and efficient processing.https://www.frontiersin.org/articles/10.3389/frfst.2023.1130165/fullnonlinear Rheologylarge amplitude oscillatory shear Rheologyfood Rheologysequence of physical processesmedium amplitude oscillatory shear Rheology
spellingShingle Merve Yildirim Erturk
Anh Nghi Minh Le
Jozef Kokini
Advances in large amplitude oscillatory shear Rheology of food materials
Frontiers in Food Science and Technology
nonlinear Rheology
large amplitude oscillatory shear Rheology
food Rheology
sequence of physical processes
medium amplitude oscillatory shear Rheology
title Advances in large amplitude oscillatory shear Rheology of food materials
title_full Advances in large amplitude oscillatory shear Rheology of food materials
title_fullStr Advances in large amplitude oscillatory shear Rheology of food materials
title_full_unstemmed Advances in large amplitude oscillatory shear Rheology of food materials
title_short Advances in large amplitude oscillatory shear Rheology of food materials
title_sort advances in large amplitude oscillatory shear rheology of food materials
topic nonlinear Rheology
large amplitude oscillatory shear Rheology
food Rheology
sequence of physical processes
medium amplitude oscillatory shear Rheology
url https://www.frontiersin.org/articles/10.3389/frfst.2023.1130165/full
work_keys_str_mv AT merveyildirimerturk advancesinlargeamplitudeoscillatoryshearrheologyoffoodmaterials
AT anhnghiminhle advancesinlargeamplitudeoscillatoryshearrheologyoffoodmaterials
AT jozefkokini advancesinlargeamplitudeoscillatoryshearrheologyoffoodmaterials