
Understanding cooling die scalability and protein texturization
Years active: 2023The project aims to design practical variations of extruder cooling dies and study the impacts of cooling gradient, die dimensions, and mass flow rates.
The project aims to design practical variations of extruder cooling dies and study the impacts of cooling gradient, die dimensions, and mass flow rates.
Dr. Betenbaugh is developing a model-based approach to optimize media to reduce the cost of cultivated meat and improve product yield and quality.
This project will develop new tools and knowledge on optimized, scalable, and sustainable fermentation-derived protein based on low-cost, food-grade carbon sourced from waste.
Development of sustainable production technology for the manufacturing of high-quality chicken mushroom mycelium as a future meat substitute.
A genome-scale metabolic model of porcine cells will be constructed and validated to identify the most efficient way to feed porcine cells.
This project will produce an animal-free source of nutrients from upcycled waste streams for fish cells, enabling reductions in the cost of cultivated fish.
Integrating high-moisture extrusion and post-structuring technologies for improved textures from plant proteins.
With neutron scattering, this project aims to understand how plant protein melts solidify into fiber-like meat analogs during extrusion processes.
Compelling Japanese-language research and reports focusing on alternative proteins from the Good Food Institute.
Compelling Korean-language research and reports focusing on alternative proteins from the Good Food Institute.