Revolutionizing bioplastics: a microbial platform for fully bio-based long-chain polyesters
Peer-Reviewed Publication
Updates every hour. Last Updated: 16-Dec-2025 18:11 ET (16-Dec-2025 23:11 GMT/UTC)
Published in Journal of Bioresources and Bioproducts, this study reports the first complete microbial route to produce fully bio-based long-chain polyester from renewable substrates. Using engineered Candida tropicalis and Escherichia coli, researchers achieved record monomer titers—150 g/L of 1,12-diacid and 68 g/L of 1,12-diol—later polymerized into bio-polyesters exhibiting thermal and molecular properties equivalent to petroleum analogs. Scalable to a 50 L pilot fermenter, this eco-friendly process marks a key advance toward a circular bioeconomy for sustainable plastics.
Professor Dai Chunyan from Chongqing Technology and Business University and Professor Michael Pollitt from the University of Cambridge have jointly published a study exploring the coordination mechanisms between China's national and local carbon markets in the context of global carbon pricing. They published their review in Energy and Climate Management on August 20, 2025.
Food waste is more than just the starting material for compost. From dried-up beet pulp to millipede-digested coconut fibers, scientists are finding treasure in our trash. Four recent papers published in ACS journals detail how food waste contains sustainable solutions for farming and new sources of bioactive compounds for pharmaceuticals.
Superconductors are famous for carrying electricity without resistance, but a new study shows they can also reshape the crystals in which they are housed. Scientists at Okayama University, Japan, have discovered that the topological superconductor CuxBi2Se3 can distort its crystal lattice when it reaches the superconducting state. Using synchrotron X-ray diffraction, the team detected structural changes linked to the unusual spin-triplet pairing in this material, revealing a new way superconductivity interacts with crystal structure.
A new study examines nickel and urea in early microbial habitats, showing how ancient cyanobacteria adapted to their chemical surroundings. By recreating Archean conditions in the lab, researchers uncovered clues about the delicate balances that shaped early cyanobacterial life. These findings hint at the unseen factors that may have set the stage for Earth’s first oxygen surge, providing a fresh perspective on the environmental and chemical conditions that allowed oxygen to accumulate in the atmosphere.