Researchers at KIST develop an eco-friendly palladium recovery technology that enables the efficient recovery of high-purity palladium in weakly acidic environments. The technology features a novel material that can recover 99.9% of palladium within 30 minutes, reducing energy consumption and carbon emissions by up to 80%.
Researchers at KIER developed a standard reference thermoelectric module for calibrating errors in performance-measurement equipment. The module achieved more than a 20% improvement in key performance indicators and demonstrated excellent reproducibility.
Researchers developed a dry-process technology for secondary battery electrodes with a dual-fiber structure, addressing mixing strength and performance degradation issues. The technology resulted in high areal capacity and energy density values, outperforming commercial electrodes.
The KIST team created a soft robot named OCTOID inspired by the camouflage and movement of octopuses. It can change color in response to electrical stimulation, move to match its surroundings, and grasp objects. This breakthrough technology demonstrates new possibilities for biomimetic soft robotics.
Researchers developed a technology that utilizes carbon monoxide to precisely control metal thin films, enabling faster and simpler production of core-shell catalysts. This breakthrough has significant implications for improving fuel cell performance and economic viability.
Researchers identified two distinct defect types in silicon heterojunction solar cells, a slow component and a fast component, to improve passivation technologies and enhance device performance.
A recent clinical study by the World Institute of Kimchi reveals kimchi's immunomodulatory effects through single-cell transcriptomics analysis. The study found that kimchi consumption strengthened antigen-presenting cells and balanced CD4+ T cell differentiation, suggesting a 'precision regulator' effect on the immune system.
KIMM establishes a global research collaboration network connecting China, Vietnam, and Korea to expand joint research in emerging fields like 3D printing and precision manufacturing. The initiative aims to promote international talent development, technology transfer, and industrial advancement in Asia.
A research team developed a novel gasket technology using functionalized boron nitride nanoflakes, improving mechanical strength and gas-tight sealing. The new gasket demonstrates excellent performance, durability, and stability in hydrogen-energy systems.
Researchers developed novel nanoparticles that combined with stem cells to enhance 3D bone tissue regeneration. The nanobiohybrid showed marked improvement in osteogenic capability compared to conventional spheroids, regenerating up to 36% of the defected bone area within six weeks.
Researchers have discovered a new crystalline ice phase, Ice XXI, formed under two gigapascals of pressure at room temperature. This breakthrough reveals complex phase transitions and structural formation mechanisms between water and ice.
A new copper-based catalyst converts carbon dioxide into carbon monoxide at lower temperatures than current methods, reducing process costs and improving efficiency. The catalyst achieves high activity even under low-temperature conditions, making it suitable for real industrial settings.
Brazil has adopted ETRI's DTV+ technology as its next-generation broadcasting standard, combining ATSC 3.0-based MIMO and LDM. The adoption signals potential spread of ATSC 3.0 throughout South America and marks a significant turning point in the broadcast industry.
Researchers developed an automated weaving system to mass-produce lightweight fabric muscle suitable for large-scale production. The wearable robot assists three joints simultaneously, reducing muscle effort by over 40%, and improves patient movement range in clinical trials.
Researchers at KIST create a two-photon multi-mode N00N state entangled across four path modes to achieve approximately 88% higher precision compared to conventional methods. The technique demonstrates potential for applications in super-resolution imaging and approaches the Heisenberg limit.
A new silicon-based disposable ultrasound patch has been developed, demonstrating superior performance compared to existing lead-based devices. The patch achieved over 30% higher output pressure and improved image quality, with accuracy comparable to clinical blood pressure monitors.
A new nanomaterial-based wireless multi-sensing platform revolutionizes pressure injury detection by detecting multiple physiological signals, including pressure, temperature, and NH₃ gas. The platform operates wirelessly via power transfer and is cost-competitive with conventional sensors.
Developed by a joint research team in South Korea, the new broadband photodetector material integrates day-night recognition and distance measurement capabilities. It detects a wider range of wavelengths compared to existing commercial materials and maintains stability under high temperature and humidity conditions.
Researchers at KIMS have developed a composite catalyst using MXene that suppresses chloride ions in seawater, leading to improved durability and current density. The material's performance was validated in an actual electrolysis unit cell, paving the way for large-scale production and sustainable hydrogen infrastructure.
A novel fluorescent reporter technology has been developed to enable real-time visualization of apoptosis in living cells. This breakthrough technology overcomes limitations of conventional methods, offering a powerful tool for drug discovery and biomedical research.
Researchers developed a device principle that utilizes 'spin loss' as a new power source for magnetic control, increasing energy efficiency up to three times higher than conventional methods. The technology is practical, industrially scalable, and compatible with existing semiconductor processes.
Korea Research Institute of Standards and Science (KRISS) has successfully localized core Radar Stealth technologies through indigenous development. The institute developed a Frequency Selective Surface design software and an electromagnetic wave evaluation system for radomes, laying the foundation for stealth weapon systems in Korea.
Researchers at KIST developed a new surface modification technology to introduce alkoxide organic monomers to MXene, making it both hydrophilic and hydrophobic. This enabled the creation of amphiphilic MXene that can be dispersed in various solvents, including water and non-polar organic solvents.
Researchers have developed an ultra-compact antibody that specifically binds to CD155 in lung cancer cells, inhibiting tumor growth and increasing cancer cell death. This breakthrough technology shows remarkable therapeutic potential for treating lung adenocarcinoma with minimal side effects.
Researchers at KIER developed a carbon cloth-based electrode that maintains stable performance under high current conditions, enabling efficient seawater electrolysis and producing hydrogen. The new electrode achieved a 25% reduction in overpotential and demonstrated continuous operation for over 800 hours.
A KIST research team developed a novel method to load large biomolecules like mRNA into exosomes by mixing cubosomes with exosomes at room temperature. The breakthrough enables stable drug encapsulation in under 10 minutes, preserving exosome function and structural integrity.
Researchers developed an amorphous silicon optoelectronic device with minimal defects using a low-temperature process and precise hydrogen dilution control. The device maintained its performance while reducing production costs by over 60% compared to conventional methods.
Researchers at KIMS developed a highly durable flexible perovskite solar cell material and fabrication process that remains stable under high humidity conditions. The breakthrough enables the production of high-efficiency solar cells in ambient air without expensive equipment, offering significant cost reductions.
Researchers at the Korea Institute of Science and Technology (KIST) have developed a high-throughput multiplexed gene and cell doping analysis technique using CRISPR-Cas technology. This breakthrough offers superior performance in detecting exogenous genes, demonstrating potential applications in sports ethics and fairness, as well as ...
Researchers have developed a precision RNA-targeting therapy that selectively eliminates disease-causing RNA transcripts while preserving normal genes. The treatment reversed hallmark disease symptoms in mice with the progeria mutation, including hair loss and spinal curvature.
A four-level hierarchical framework has been developed to standardize all experimental processes in biofoundries, facilitating the accumulation of high-quality process data usable in AI applications. This structure enables consistent recording, sharing, and automation of complex biological experiments.
The KRISS research team has developed a length measurement system that achieves a level of precision approaching the theoretical limit allowed by quantum physics, boasting world-leading measurement accuracy and compact design. The system measures 0.34 nanometers in just 25 microseconds, operating rapidly and reliably for field deployment.
A research team in South Korea has developed a new transfer printing technology that forms protective thin layers on lithium metal surfaces, overcoming the limitations of wet processes. The hybrid protective layers suppress dendrite growth and maintain stable cycling performance, enabling high-energy-density lithium-metal batteries.
Researchers at KIMS developed a highly durable non-precious metal-based hydrogen evolution catalyst, enabling the production of clean hydrogen by directly utilizing waste alkaline wastewater. The technology reduces costs and environmental pollution, with potential applications in mobility and power industries.
Engineered fluorescent bacteria specifically target tumor tissue, enabling real-time visualization during surgery. The system's stability and intensity are five times stronger than conventional contrast agents.
Researchers have identified a key regulatory protein called PP2A B′η that enables plants to edit RNA and rapidly synthesize proteins necessary for heat tolerance. Plants lacking this protein fail to germinate or survive under high temperatures, while those overexpressing it thrive.
Researchers from KIMS have developed a biosensor capable of detecting trace amounts of cancer cell DNA in the bloodstream with high sensitivity. The biosensor uses light signals and AI-based analysis to diagnose cancer early without complex testing procedures.
A research team developed a novel polyol process-based ruthenium catalyst synthesis method with improved ammonia decomposition performance. The new catalyst demonstrated more than three times higher efficiency compared to conventional catalysts.
Researchers developed a biodegradable polymer material for high-performance data storage that degrades within three days when immersed in water. The device showed excellent signal discrimination and durability, with applications in implantable medical devices, eco-friendly data storage, and reducing e-waste.
Researchers discovered that exercise-induced protein CLCF1 strengthens muscles and bones, suppressing musculoskeletal aging. CLCF1 levels increased after exercise in younger individuals but only after prolonged exercise in older adults.
Researchers developed a technology that improves the lifespan of next-generation anode-free all-solid-state batteries by sevenfold using cost-effective MoS₂ thin films. The application of MoS₂ sacrificial layers on stainless steel current collectors enhances interfacial stability and suppresses dendritic lithium growth, leading to impr...
Researchers at KIST have developed a new CNT purification process that removes metallic particles from the surface of carbon nanotubes, allowing for the creation of lightweight electric motor coils. This breakthrough enables the production of metal-free electric motors with improved performance and efficiency.
A research group in Korea has discovered a novel natural antimicrobial peptide, Hirunipin-2, demonstrating high potential as a new therapeutic effective against superbacteria. The peptide was evaluated using real-time 3D visualization and shown to exhibit synergistic effects when combined with existing antibiotics.
A research team at KIST has developed a new water treatment material that can recover phosphorus with high efficiency and disinfect harmful microorganisms simultaneously. The material utilizes a 'sea urchin-shaped' nanostructure to achieve world-class phosphorus recovery performance.
Research reveals Akkermansia muciniphila consists of four distinct subtypes competing for colonization. A specific subtype secures its position by selectively eliminating competitor cells through extracellular vesicles.
A novel labeling logic-based sensor system detects algal blooms in real-time water quality monitoring, achieving 100% prediction accuracy and surpassing state-of-the-art AI models. The system uses inexpensive optical sensors and efficiently interpretable modeling techniques for low-power devices.
A KIST research team developed a peptide metabolite that inhibits the COVID-19 virus by over 85% while promoting cell growth, wound healing, and blood vessel formation. The peptide also supports strong cell adhesion and tissue recovery.
Researchers developed light-powered artificial muscles that operate freely underwater, overcoming limitations of traditional soft robotic actuators. The new technology demonstrates 3× greater actuation stroke and 2× higher work capacity than existing photochemical actuators.
A Korean research team has developed a high-performance polyester-amide polymer that decomposes by over 92% in one year under real marine conditions while maintaining strength and flexibility comparable to nylon. This material is applicable to various uses, including textiles, fishing nets, and food packaging.
Researchers at KIST develop a high-performance supercapacitor that stores more energy while releasing it faster, improving efficiency and durability. The technology can be used as a replacement or complement to existing battery systems in electric vehicles, drones, and wearable devices.