A study from The University of Osaka found that specific white blood cells and an inflammation protein can predict relapse of autoimmune blood vessel disease. Researchers analyzed neutrophils in patients' blood to identify a subpopulation involved in disease progression.
Koun Shirai bridges conventional physics and nonequilibrium materials to provide robust thermodynamic description of glasses. He redefines equilibrium as energy extraction impact, allowing tools of thermodynamics to apply to glasses.
Researchers at Osaka University identify a specific molecule, HLA-DRB1, that can be targeted by CAR-based therapy for AML. Engineered CAR T cells showed strong and specific anti-AML effects in vitro and in vivo with mice, without overt toxicity.
A team of researchers from Osaka University has demonstrated that human tissue can be used to solve complex equations and process information, outperforming traditional computing methods. This breakthrough uses the concept of reservoir computing, where data is input into a complex 'reservoir' that encodes rich patterns.
Scientists from Osaka University have reported a new class of transition metal complexes featuring direct nickel-boron bonds without additional support. The resulting square-planar geometry allows for efficient catalysis in the synthesis of high-value materials like polymers and pharmaceuticals.
The University of Osaka and research partners have launched an open-source operating system for quantum computers, enabling cloud-based operation. The OQTOPUS OS can be customized to meet individual user needs and is expected to help make practical quantum computing a reality.
A collaboration between Japanese, Korean, and American researchers found that larger cations suppress platinum dissolution compared to smaller cations. The study reveals a 'cation effect' influencing electrode durability.
A new AI-powered model analyzes steroid hormones to estimate biological age, providing a more precise health assessment. The study found that cortisol levels doubled increase biological age by approximately 1.5 times, suggesting chronic stress accelerates aging at a biochemical level.
A recent study published in the Journal of Experimental Medicine reveals that plasma cells are programmed from birth to migrate to protected sites in the body, where they produce large amounts of antibodies. High expression of integrin β7 is an excellent marker for these cells' ability to home to the bone marrow.
Researchers from Osaka University analyzed dental issues faced by Japanese patients with hypophosphatasia, finding two distinct groups: odonto-type disease (early tooth loss) and non-odonto-type disease (tooth misalignment and softening). The study aims to improve diagnosis and treatment for this often misunderstood disease.
Researchers from Osaka University have discovered a connection between strain equations for atomic dislocations and the Biot-Savart law in electromagnetism. This link enables researchers to use a well-known formula to analyze the effects of dislocations, leading to new findings on material science.
Researchers from Osaka University have identified a protein complex crucial for male fertility, revealing the TEX38/ZDHHC19 interaction regulates sperm development and structure. The study found that disrupting this complex can cause sperm deformity and infertility, providing insight into the causes of male infertility.
A multi-institutional research team from Osaka University has discovered the origin of extremely bright color centers at an oxide/semiconductor interface. The study reveals a correlation between the luminescence of color centers and the density of electron traps, suggesting a specific carbon-related defect as the most promising candidate.
A newly discovered mechanism has identified a key protein, AP2A1, that toggles between 'young' and 'old' cell states. By suppressing AP2A1 in older cells, researchers were able to reverse senescence and promote cellular rejuvenation. This breakthrough may lead to new treatment targets for diseases associated with old age.
Researchers from Osaka University found that peristaltic pump action promotes amyloid nucleation in supersaturated fluids, including blood and cerebrospinal fluid. High shear stress caused by the pumping motion mechanically breaks supersaturation to induce amyloid formation.
Researchers from Osaka University have developed an ultrathin vanadium dioxide film on a flexible substrate, preserving its electrical properties. This breakthrough enables adaptable electronics that can adjust to temperature, pressure, or impact in real-time.
A new, inexpensive measurement device can measure both pressure and acceleration using a single design and method, saving costs and simplifying manufacturing. This technology has potential applications in medical care, disaster mitigation, landslide alerts, and heavy-machinery maintenance.
A study published in Nature Cardiovascular Research found that tricaprin improved long-term survival and recovery from heart failure in patients with triglyceride deposit cardiomyovasculopathy. The supplement reversed structural changes and improved heart muscle function, leading to higher survival rates compared to controls.
Researchers created cyborg insects with sensors and electronic circuits to aid in disaster relief and navigation. The insects demonstrated ability to overcome obstacles in complex environments, achieving objectives with less effort than purely mechanical robots.
Researchers at Osaka University developed a new technique called single-cell suppressive profiling of regulatory T cells (scSPOT) that can pinpoint the effects of Tregs on all other immune cells. The study found that Tregs most strongly affect CD8-EM T cells, which play a key role in fighting cancer and infections.
Scientists from SANKEN at Osaka University created an electrically controlled nanogate that can be tailored for specific molecules. The gate's diameter was adjusted using voltage, leading to distinct ion transport behaviors. This technology has the potential to enable precise control over molecule transport and reaction systems.
A team at Osaka University discovered that temperature-controlled conductive networks in vanadium dioxide enhance the sensitivity of silicon devices to terahertz light. The researchers created 'living' microelectrodes from VO2, which selectively enhanced the response of silicon photodetectors.
Researchers from Osaka University found that selenoproteins are essential for counteracting lipid peroxides and maintaining hematopoiesis in human cells. The study also showed that dietary Vitamin E can protect hematopoiesis and repair impaired B cell differentiation, providing potential strategies for fighting age-related diseases.
Researchers from Osaka University found that Japan's state of emergency declarations led to increased hygienic behaviors and risk perception, which persisted even after the policy was lifted. However, older people became less fearful of COVID-19 and were less likely to wear masks.
The researchers have developed a groundbreaking method to expand the color palette of bioluminescent protein to 20 distinct colors, enabling advanced simultaneous multi-color imaging. This innovation makes it significantly easier and more cost-effective to monitor multiple targets or track individual cells within a population.
Researchers from Osaka University have developed a new technology to lower power consumption for modern memory devices, enabling an electric-field-based writing scheme. The proposed technology could provide an alternative to traditional RAM and is a promising step towards implementing practical magnetoelectric (ME)-MRAM devices.
Osaka University researchers have reported a method that gives high-resolution Raman microscopy images of biological samples, up to eight times brighter than previous methods. This technique uses no stains and doesn't require chemicals to fix cells in position, providing a highly representative view of processes and cell behavior.
Researchers at Osaka University developed a dynamic facial expression synthesis technology using waveform movements, allowing androids to exhibit mood changes and convey emotions. This innovation enhances emotional communication between humans and robots, potentially leading to more natural interactions.
Researchers from Osaka University found that Foxo3 mediates erroneous cell elimination during vertebrate development, ensuring precise development and cancer prevention. The study identified a specific pathway involving Foxo3, N-cadherin, and reactive oxygen species to eliminate unfit cells with abnormal Shh activity levels.
Researchers at Osaka University have discovered a 'nano-switch mechanism' that controls the potential of an electron carrier protein in redox reactions. This finding has significant implications for the development of ultra-sensitive sensors and novel drugs.
Researchers at Osaka University identified ARMC5 as a degradation factor for SREBP1, essential for maintaining balance in adipose tissue. This discovery may lead to the development of novel drugs regulating saturated and unsaturated fatty acid levels.
A study by Osaka University researchers found that visual landmarks can be difficult to find in certain environments, leading to motion sickness. They propose using radio-frequency localization, such as ultra-wideband sensing, to overcome these challenges and improve indoor augmented reality applications.
Researchers at Osaka University uncovered the molecular details of how Drosophila fruit fly cells are removed during development, challenging the common assumption that clustered apoptosis poses a disadvantage to organisms. This study may help determine how abnormal cell death leads to congenital defects in humans.
Osaka University and NEC have developed a high-speed data transfer system to support Open Science, enabling fast sharing of large-scale research data between institutions. The system can transfer 1TB of data in 87 seconds at 92.0Gbps, supporting day-to-day academic research.
A study by Osaka University found that Highly Sensitive Persons (HSPs) perceive stress in a unique way, with heightened sensitivity enabling them to connect deeply with others. This can foster a more supportive work environment and improve employee retention.
The new portal connects genetic variant data with protein sequence and structural information, enabling easy visualization of variants on protein 3D structures. This facilitates the analysis of genetic variants' impact on protein function and structure.
Researchers have developed a large-scale drug screening technique that tracks drug targets inside cells, allowing for the identification of potential new drugs. The technology screens candidate drugs 100 times faster than standard manual techniques, enabling the discovery of previously unknown drugs.
Researchers at Osaka University have created an innovative device called INSPCTOR that enables real-time remote monitoring of cell growth in incubators. This technology allows for effective quality control and precise measurement of cellular transformation, which is crucial for advancements in regenerative medicine and drug discovery.
A study by Osaka University reveals that Japanese consumers value transparency in AI assistants, compromising on performance for greater clarity. Environmental sustainability is also a consideration, but remains secondary to cost and performance.
Researchers from Osaka University have developed tough biodegradable plastics with movable cyclodextrin crosslinks, which improve both durability and degradation capabilities. The new polymers can be broken down by enzymes into useful precursor molecules, reducing waste generation.
Osaka University researchers develop a new method for long-range enhancement of fluorescence and Raman signals using Ag nanoislands protected with column-structured silica layers. This leads to an astonishing ten-million-fold increase in signal strength, making it ideal for sensitive biosensing applications.
A study from Osaka University found a reliable wastewater surveillance method, tracking regional infection trends with high sensitivity and reproducibility. The research team concluded that at least three samples per week are required for accurate monitoring.
Researchers at Osaka University demonstrated that ultra-short, high-dose proton irradiation increases cell survival rates even under normoxic conditions. This breakthrough could lead to the development of a cancer treatment method with fewer side effects.
Polyploidy, a state with extra genetic material, allows cancer cells to survive longer under DNA damage. This phenomenon explains why some cancers are resistant to anti-cancer drug treatments.
Researchers at Osaka University have developed a way to make tough, chemically recyclable polymers without compromising on heat and chemical resistance. This breakthrough could hugely expand the uses of chemically recyclable polymers.
A research team led by Osaka University has identified a new mechanism crucial for the initiation of autophagy, a self-degradation process cells use to eliminate unneeded or damaged components. The palmitoylation of ULK1 by ZDHHC13 plays a critical role in this process.
Study reveals the brain controls leg coordination during walking only when discoordination exceeds a certain threshold. Researchers found that not actively intervening improves energy efficiency and maneuverability.
Researchers from Osaka University used machine learning to assess the shapes, sizes, and other physical features of bacteria based on microscope images. The results showed that antibiotic-resistant strains were fatter or shorter than their parental strains, especially those resistant to quinolone and β-lactams.
A recent study published in Diabetes, Obesity and Metabolism reveals that intensive diabetes treatment can positively impact periodontal inflammation. The research found improvements in glycoalbumin levels and Periodontal Inflamed Surface Area, indicating reduced blood glucose levels and periodontal disease.
The researchers synthesized supramolecular polymers with the ability to form larger complexes in response to external stimuli, which may shed light on biomolecular self-assembly and other ‘smart’ materials. The resulting shape of the assemblies can be controlled based on the concentration of a specific additive.