Bacterial cellulose, a stable biopolymer made by bacteria from sugar, shows promise as a sustainable alternative to petrochemicals. This project focuses on creating an efficient method to separate it from the fermentation broth.

Solid state fermentering er en lovende teknologi til alternative proteiner og biobaserede materialer. Projektet adresserer udfordringen med skalering til bæredygtig industriel produktion.

Many fire retardants contain harmful chemicals that negatively impact the environment and human health. This project aims to create natural, non-toxic foaming agents for bio-based fire retardants using sustainable microalgal production.

Real-time quantification of metabolites is crucial for optimizing bioproduction. Current methods are slow and lack specificity. This project aims to develop a high-throughput Raman-based microtiter plate reader for faster and more precise monitoring.

Stigende bekymringer om fossilt plasts miljøpåvirkning øger interessen for bioplast. Projektet arbejder med algebaseret bioplast til emballage med antibakterielle egenskaber, som kan tilbyde miljøvenlige og funktionelle alternativer til traditionelt plast

Red macroalgae contain methane-inhibiting compounds (MIC) that can reduce cattle methane emissions by over 60%. To make the biorefining process economically viable, this project will develop a co-extraction process for phycoerythrin (PE).

Plastic's environmental impact is a growing concern. This project will produce bioplastics, specifically polyhydroxyalkanoates (PHA), from waste materials like fruit peels, mash, and coffee ground oil, offering a sustainable solution to plastic pollution

Food waste is often discarded, leading to high costs and emissions. This project will show how fats, proteins, and sugars can be turned into valuable products like soaps, biodiesel, bioplastics, and animal feed, providing a sustainable solution.

Tøjindustrien bidrager til CO2-udledning og mikroplastikforurening. Projektet udvikler biobaseret garn som et miljøvenligt alternativ til polyester.

This project aims to develop a fermentation process for non-alcoholic rosé, enabling faster product development, minimizing waste, and achieving scalability for mass production.