Total mentored projects: 12
Improving genetic transformation techniques in cyanobacteria could allow for sustainable, large-scale production of renewable feedstocks.
Investigating coordinated behavior in cyanobacteria will help improve the cost and efficiency of production methods of sustainable biofuels.
Metabolically engineering cyanobacteria will lead to the efficient production of renewable chemicals using sustainable resources.
Metabolically engineering cyanobacteria can lead to the efficient production of renewable chemicals using sustainable resources.
Designing an improved auto-sampling system for cyanobacteria CO₂ fixation experiments will improve research efficiency.
Designing a novel strategy to reduce carbon dioxide emissions will help minimize the environmental impact of biofuel production.