Phycobloom engineers microalgae using synthetic biology to efficiently capture atmospheric carbon dioxide and convert it into high-energy density algal oil. This bio-based feedstock serves as a sustainable alternative for advanced biofuels in aviation and maritime transport, as well as a precursor for bioplastics.
Funding
Funding not disclosed
Founders
Product
Problem
The combustion of fossil fuels releases significant amounts of carbon dioxide, contributing to global climate change. Current renewable energy sources like solar and wind have limitations in energy density and application scope, while existing carbon capture technologies can be energy-intensive.
Solution
Phycobloom employs synthetic biology to engineer microalgae strains optimized for enhanced carbon dioxide assimilation and lipid accumulation. These engineered algae continuously perform photosynthesis, converting atmospheric CO2 into high-value oils. This process offers a sustainable, bio-based alternative for carbon sequestration and the production of advanced biofuels and bioplastics. The resulting algal oil possesses a higher energy density compared to other renewable energy carriers, making it suitable for demanding applications.
Target Audience
Phycobloom targets industries requiring sustainable fuel alternatives and advanced materials, including aviation, maritime transport, and chemical manufacturing sectors seeking to reduce their carbon footprint.
Features
- Genetically engineered microalgae strains for accelerated CO2 uptake and lipid biosynthesis.
- Continuous carbon capture and oil production through optimized photosynthetic pathways.
- Algal oil feedstock suitable for aviation fuel, maritime transport, and polymer manufacturing.
- Proprietary fermentation and harvesting processes designed for scalability and efficiency.
- Integrated bioreactor systems for controlled cultivation and resource management.