A high-throughput food fermentation platform (ALL-INFORMED) extended with plant metabolomics to identify and quantify microbially derived bio-actives. Targets the growing demand for fermented foods and postbiotics that can restore gut microbiome diversity and deliver clinically validated health benefits.
This solution offers a high-throughput screening platform for food fermentation that links microbial activity to measurable health benefits. The platform builds on the ALL-INFORMED approach for flavor optimization and extends it with state-of-the-art plant metabolomics to systematically identify and quantify bio-active compounds produced during fermentation. The goal is to determine which ferments and postbiotics deliver the strongest health-promoting effects, reducing the risk of failure in downstream clinical trials and accelerating the development of functional fermented food products.
The platform addresses a clear market need: populations consuming a Westernized diet show a continuous decline in gut microbiome diversity, and fermented foods are increasingly recognized as a practical route to reverse this trend. By combining controlled fermentation with analytical profiling, the platform enables partners to rationally select microbial strains and substrates that produce targeted health-relevant compounds rather than relying on empirical trial-and-error.
Platform capabilities:
Fermentation outputs characterized include:
The fermentation platform is currently operational and being used for flavor optimization work. The extension to include plant metabolomics and health-focused bio-active profiling represents an active development effort. Validation to date is supported by extensive published evidence linking fermented foods and postbiotics to measurable health benefits, including cholesterol-lowering, antioxidant, antidiabetic, and antihyperlipidemic effects. The next stage involves detailed analysis linking specific microorganisms to health outcomes, followed by high-throughput fermentation of plant-based substrates and targeted in vitro assays to confirm predicted health benefits prior to clinical evaluation.
Photanol was a Dutch biotechnology company that developed a platform technology using engineered cyanobacteria to convert CO2 directly into renewable carbon compounds. By utilizing sunlight in specialized photobioreactors, the company aimed to replace fossil-based raw materials with circular, CO2-derived feedstock. Its patented technology allowed for the engineering of various biological production routes, enabling the creation of diverse industrial chemicals including ingredients for beauty, healthcare, and pharmaceutical products, as well as polymers and potential fuels. The process was designed to operate without the need for arable land, offering a carbon-neutral alternative to traditional energy-intensive chemical manufacturing.
The company focused on transforming the chemical industry toward a circular and responsible model to reduce industrial carbon footprints. Through collaborations with industry partners and academic institutions, Photanol reached the pilot scale, operating facilities in Amsterdam and Delfzijl to demonstrate commercial viability. Despite confirming the effectiveness of its technology and preparing for large-scale production, the company faced significant financial challenges following the withdrawal of a key industrial partner in late 2024. Consequently, Photanol filed for bankruptcy and ceased operations in early 2025, though efforts were initiated to explore the preservation and future use of its technology platform.