This thesis was an investigation into the multiscale nature of moisture movement within food material during drying. It examines the moisture composition within cells and pores and how it evolves with time to develop an accurate and generalised property approach for moisture diffusivity. In the future, the work will aid in the development of optimum drying systems with improved food quality
The diffusivity coefficient can be determined from the dimensional graph of the water content ratio ...
The availability and movement of water inside the food materials play essential roles for food stabi...
Most conventional dryers use random heating to dry diverse materials without considering their therm...
Drying plant-based food materials can be time consuming and energy intensive, making optimization of...
Theoretical models for food drying commonly utilise an effective diffusivity solved through curve fi...
Microscale transport phenomena govern the overall transport mechanism during drying of plant-based f...
Fruits and vegetables have a heterogeneous microstructure which dynamically changes during drying. C...
Effective diffusivity is the most important key parameter needed in the analysis, design and optimiz...
This study was conducted to uncover the spatial distribution of cellular water in plant-based food m...
This research developed a multiscale homogenization model to incorporate the cellular heterogeneity ...
For a long time, food engineers have been trying to describe the physical phenomena that occur durin...
Drying of food materials is a very complex and energy intensive process. Optimizing the energy effic...
The physical state and structural characteristics of food materials influence their mass transfer pr...
Understanding of water distribution in plant-based food material is crucial for developing an accura...
Modelling of food processing is complex because it involves sophisticated material and transport phe...
The diffusivity coefficient can be determined from the dimensional graph of the water content ratio ...
The availability and movement of water inside the food materials play essential roles for food stabi...
Most conventional dryers use random heating to dry diverse materials without considering their therm...
Drying plant-based food materials can be time consuming and energy intensive, making optimization of...
Theoretical models for food drying commonly utilise an effective diffusivity solved through curve fi...
Microscale transport phenomena govern the overall transport mechanism during drying of plant-based f...
Fruits and vegetables have a heterogeneous microstructure which dynamically changes during drying. C...
Effective diffusivity is the most important key parameter needed in the analysis, design and optimiz...
This study was conducted to uncover the spatial distribution of cellular water in plant-based food m...
This research developed a multiscale homogenization model to incorporate the cellular heterogeneity ...
For a long time, food engineers have been trying to describe the physical phenomena that occur durin...
Drying of food materials is a very complex and energy intensive process. Optimizing the energy effic...
The physical state and structural characteristics of food materials influence their mass transfer pr...
Understanding of water distribution in plant-based food material is crucial for developing an accura...
Modelling of food processing is complex because it involves sophisticated material and transport phe...
The diffusivity coefficient can be determined from the dimensional graph of the water content ratio ...
The availability and movement of water inside the food materials play essential roles for food stabi...
Most conventional dryers use random heating to dry diverse materials without considering their therm...