The Korea Advanced Institute of Science and Technology (KAIST) has successfully engineered microbes to produce biodegradable materials like polylactic acid, which can be used in various applications. Metabolic engineering enhances microbial performance to improve the production of desired chemicals and materials.
A KAIST research team has developed a high performance flexible all-solid-state battery, overcoming limitations of existing lithium-ion batteries. The breakthrough allows for the creation of fully flexible electronic systems, such as rollable displays, with improved power density and thermal stability.
Researchers at KAIST develop microorganisms to produce natural and non-natural chemicals from renewable biomass through systems metabolic engineering. The study presents new general strategies for improving cellular characteristics and designing synthetic metabolic pathways, enabling high-efficiency production of desired chemicals and ...
Researchers developed a simple, low-cost, and large-scale self-powered energy system using piezoelectric ceramic nanoparticles. The new technology overcomes previous limitations and expands the feasibility of nanogenerators in consumer electronics and wearable clothes.
Researchers developed a graphene liquid cell to visualize nanoscale processes in fluids with atomic-level resolution. The technology enables real-time imaging of platinum nanocrystals in solution, shedding light on atomic-level dynamics and coalescence.
A KAIST research team has developed a fully functional flexible non-volatile resistive random access memory (RRAM) that can be randomly accessed, written, and erased on a plastic substrate. This breakthrough overcomes cell-to-cell interference issues by integrating a memristor with high-performance silicon transistors.
A KAIST research team developed a biocompatible, flexible GaN LED that can detect prostate cancer, opening the door for implantable biomedical applications. The technology utilizes a highly efficient and flexible light-emitting device to diagnose diseases, potentially revolutionizing medical treatments.
Researchers developed a bio-eco-friendly ceramic thin film nanogenerator that can convert tiny human movements into electrical energy without breaking down. The technology uses freely bendable piezoelectric ceramic materials to harness biomechanical forces produced by the body.
Researchers have successfully produced native-like spider silk in a metabolically engineered bacterium, opening up new avenues for sustainable materials and biomedical applications. The artificial fiber exhibits comparable mechanical properties to native spider silk, with high strength, extensibility, and stiffness.