Discover how artificial riboswitches are revolutionizing the monitoring of naringenin production in living cells through real-time fluorescent biosensors.
Discover how metabolic flux engineering transforms tobacco plants into sustainable biochemical factories producing cembratrien-ol for pest resistance and green chemistry.
Discover how mechanical loading transforms tissue-engineered cartilage, creating stronger, more functional joint replacements through biomechanical stimulation.
Explore how organoids, or mini-organs, are transforming gastrointestinal disease research and treatment through personalized medicine approaches.
Discover how scientists are reprogramming Pichia pastoris yeast to produce sustainable isobutanol biofuel through metabolic engineering.
Explore the fascinating science behind cloning and understanding the Ginkgo's HDR gene, combining ancient biology with cutting-edge genetic technology.
Exploring how PUPS and CANTOR computational systems help neuroscientists analyze the brain's complex networks and connectivity patterns.
Discover how rice plants balance growth and defense through gibberellic acid catabolism, breaking the traditional tradeoff paradigm.
Learn how scientists are engineering baker's yeast to produce valuable very long chain fatty acid-derived chemicals for sustainable fuels, lubricants, and pharmaceuticals.
Discover how Vibrio natriegens, the fastest-growing bacterium, is revolutionizing biotechnology through its unique metabolic adaptations and potential for sustainable bioproduction.