Alireza Abbaspourrad

This study demonstrates a microfluidic platform that enables probiotic bacteria to grow under thermal stress by creating tailored thermal environments.

This paper designs and characterizes LF-Alg-Fe composites for iron delivery and protein stabilization, showing distinct structural and functional properties based on composition.

This paper develops and optimizes core-shell microparticles to protect phytase enzyme activity under food processing conditions, achieving 62.7% retention after heat and digestion.

This study develops core-shell microparticles for pH-responsive and targeted delivery of lactoferrin and ferrous sulfate, showing reduced iron release at neutral pH with chitosan coating.

This paper improves phytase stability using chitosan complexation and Bayesian optimization, increasing thermal stability from 20% to 74%.

This study shows sperm adaptively navigate complex environments by adjusting surface interactions and scattering dynamics, enhancing their diffusivity in confined spaces.

This paper develops a core-shell hydrogel system to protect phytase enzyme activity from environmental stress, showing high encapsulation efficiency and activity retention under heat and chemical challenges.

This study co-encapsulates lactoferrin and iron(II) sulfate with low-methoxyl pectin to improve thermal stability and reduce iron oxidation.