A team of researchers has identified the key stumbling block of a common solid-state hydrogen material, MgH2. The study, published in Journal of Materials Chemistry A, reveals that a 'burst effect' during dehydrogenation leads to sluggish kinetics, hindering commercial application.
Researchers discovered a new situation where vertical perception is compromised - when the body pitches and moves at the same time. In real-world experiments on Hong Kong's Peak Tram, they found that participants misjudged their perceived verticality by up to 10 degrees.
A team of astrophysicists has successfully measured a gamma-ray burst's hidden energy by utilizing light polarization. The total explosion energy was found to be about 3.5 times bigger than previous estimates, shedding new light on the progenitor star's masses and the evolutionary history of the universe.
Researchers have discovered emergent interfacial ferromagnetism in 2D antiferromagnet heterostructures, showing enhanced electric-field tunability. This breakthrough has exciting implications for exploring exotic magnetic phases and engineering novel spintronic devices.
Researchers have successfully detected terahertz waves with a fast response and high sensitivity at room temperature, using a graphene transistor. The breakthrough could have massive ramifications for spectroscopy, imaging, and future wireless technologies like 6G and 7G.
Rosin powder increases friction by over 20%, reducing variation in friction between participants and pitches. A wax-like sticky substance doubles this effect, potentially increasing ball spin rates. The study suggests MLB balls could be made less slippery for improved ball control.
A team from Tohoku University has developed an efficient synthesis of (-)-quinine, a key compound in malaria treatment, enabling further medication development. The new method uses organocatalyst-mediated reactions, reducing the number of steps and chemical waste.
Researchers have developed a scaled-up version of a probabilistic computer using stochastic spintronic devices, suitable for combinatorial optimization and machine learning. The new design combines conventional semiconductor chips with modified spintronic devices, achieving massive improvements in throughput and power consumption.
A new iPMA-type Hexa-technology in Magnetic Tunnel Junctions (MTJ) is showcased for improving ultra-low power consumption in IoT edge-devices and other applications. The 25 nm iPMA-type Hexa-MTJ technology satisfies BEOL design rules for X nm generation CMOS nodes, enabling seamless scaling.
Researchers discovered that spontaneous plasma waves help neutralize ions detaching from magnetic nozzles, reducing divergence of expanding plasma beams. This breakthrough opens a new perspective on instabilities in plasmas, potentially advancing magnetic nozzle radio frequency plasma thrusters.
A team of researchers from Tohoku University successfully demonstrated a tin sulfide (SnS) interface exhibiting large band bending, which is necessary for obtaining a higher open-circuit voltage. This breakthrough could lead to the development of highly efficient thin-film solar cells with environmentally friendly credentials.
A research team at Tohoku University developed a batteryless device that can detect COVID-19 particles in the air using magnetostrictive composite plates. The device operates without batteries and transmits signals wirelessly, making it suitable for integration with IoT technologies.
Researchers at Tohoku University have discovered a new type of energy-band echo associated with the ultrafast dynamics of optically driven quasiparticles in crystalline solids. This discovery enables all-optical momentum-resolved spectroscopy even in strongly correlated systems, revolutionizing quantum technology.
A new bulk copper-based alloy has demonstrated the largest tensile elastic strain at room temperature, exceeding 4.3%, thanks to reversible lattice strain in its BCC single phase structure. This material exhibits a low Young's modulus and high Poisson's ratio, making it highly elastic and strong.
Researchers at Tohoku University used fiber photometry to analyze astrocytes' activity and found an acid response linked to intensified epileptic seizures. This breakthrough may lead to new therapeutic strategies for epilepsy, stroke, trauma-induced brain injury, and memory enhancement in dementia treatment.
A Tohoku University researcher has increased the performance of a high-power electrodeless plasma thruster, moving closer to deeper space explorations. The breakthrough enables more efficient use of radiofrequency power to generate thrust energy in magnetic nozzle plasma thrusters.
A new ceramic material with excellent oxygen storage capacity has been developed by Tohoku University researchers. The material can remove toxic gases from exhaust emissions at lower temperatures than current materials, making it a promising solution for improving air quality in petrol and diesel vehicles.
Research suggests that glial cells in the cerebellum 'eat' neighboring neuronal elements to improve synaptic efficiency during motor learning. This process, known as phagocytosis, is enhanced during learning and memory tasks, leading to improved neural function.
Researchers identified rare Earth elements produced by neutron star mergers for the first time, using kilonova spectra simulations and ATERUI II supercomputer. The discovery confirms previous hypotheses about element creation and advances our knowledge of the Universe.
A novel polysorbate-based formulation enhances carboplatin's therapeutic response in lymph nodes, amplifying antitumor effects and increasing drug penetration.
Researchers from Tohoku University and Johns Hopkins University have created nanoporous molybdenum-based intermetallic compounds that can significantly enhance hydrogen production. The new catalysts, formed through liquid metal dealloying, exhibit promising electrocatalytic performance and potential for commercial use.
A team at Tohoku University created an analysis method to predict where wear will occur in engine piston pins. The breakthrough aims to limit wear and tear on machinery components and make them more fuel-efficient.
A research team proposes that magnetic reconnection around black holes energizes plasma, producing copious electron-positron pairs loaded into radio jets. This explanation aligns with M87 observations and predicts short-term X-ray emission when plasma is loaded.
Researchers at Tohoku University have developed a novel cancer therapy combining lymphatic drug delivery with total-body irradiation, showing superior antitumor effects in early stage lymph node metastasis. The treatment enhances systemic tumor immune responses and alters the tumor microenvironment.
Research by Tohoku University scientists found that contextual fear conditioning alters genes associated with the synapse in microglia, indicating a new mechanism linking microglia and neuronal activity related to fear conditioning. This non-immune communication may play a key role in fear memory consolidation and extinction.
Scientists have developed a novel polymeric solid electrolyte with improved Li-ion conductivity and a wide potential window, making it suitable for practical use. The addition of a porous membrane enhances the electrolyte's performance by deterring Li dendrite formation, contributing to safer and more sustainable energy supply.
Researchers uncover five new types of microfossils in the Gunflint Formation, including colonial, ellipsoidal, and spinous forms. These discoveries suggest that prokaryotes began diversifying their functions before the emergence of eukaryotes, providing insights into the evolution of life on Earth.
Researchers at Tohoku University have created a scaffold that supports the growth of new bone in large jaw defects in mice, bringing them closer to addressing the issue of aging jaw bone loss in humans. The technique uses a polylactic acid scaffold and has shown promise for treating large bone defects.
Researchers create a mathematical framework for probabilistic computing using magnetic tunnel junctions, which can infer potential answers from complex input. This technology could revolutionize data interpretation and pattern recognition.
Research on mice reveals that older fathers produce pups with reduced vocal complexity and lower body weights, similar to children with neurodevelopmental disorders. The study provides evidence for the risk factor of advanced paternal age on infant development.
The study discovered that exposure to dinitrogen pentoxide gas can activate plant immunity and control plant diseases, depending on the type of pathogen. This novel approach utilizes reactive nitrogen species generated from plasma technology, which may contribute to the development of a sustainable agricultural system.
Researchers found that a specific amino acid substitution in the VMAT1 gene alters amygdala-dependent behaviors associated with anxiety, providing insight into its role in cognitive and emotional functions. Humanized substitutions of Vmat1 in mice revealed decreased levels of anxiety-like behaviors, supporting previous human studies.
New, high-performance carbon microlattice electrodes made via micro-architected 3D printing could reduce battery manufacturing costs by increasing active materials and minimizing inactive binders. The approach was developed by Tohoku University researchers to unlock the potential of sodium ions for powering batteries.
A study published in Biogeosciences reveals a strong relationship between global temperature changes and mass extinctions. The research, led by Professor Emeritus Kunio Kaiho, found that both marine animals and terrestrial tetrapods' extinction rates correspond to deviations in global and habitat surface temperatures.
Researchers analyzed physiological parameters to understand metabolic and nutritional characteristics linked to enteric methane emissions in Japanese Black cattle. Cattle with high methane emissions were found to have a higher butyrate-to-propionate ratio, decreased amino acid levels, and increased insulin concentrations.
Researchers at Tohoku University successfully created a half-metal material with zero magnetization by combining iron, chromium, and sulfur. This breakthrough antiferromagnetic-like half metal enhances performance and improves the efficiency of electronic devices.
Researchers at Tohoku University have successfully fabricated highly transparent solar cells using a 2D atomic sheet. The solar cells achieved an average transparency of 79%, making them suitable for placement in various locations, including windows and human skin.
Scientists at Tohoku University have identified specific brain wave patterns related to social behavior in mice. These findings provide a unified understanding of brain activity underlying social behavior and its deficits in disease.
A new deep learning model can accurately identify disease-related features from images of eyes, even in low-quality images. The lightweight model is deployable on mobile devices and has better segmentation accuracy than other commercial software.
Researchers from Tohoku University found that virtual training can decrease psychosocial stress response and lower anxiety levels, comparable to real exercise. The study used immersive virtual reality to simulate physical activity, inducing physiological changes and cognitive benefits in young healthy subjects.
Researchers at Tohoku University have created a method to stabilize lithium or sodium depositions in rechargeable batteries, preventing degradation and short circuiting. This breakthrough paves the way for higher-energy-density metal-anode batteries with improved safety and performance.
Researchers developed a fluorogenic probe that binds to the promoter region of influenza A virus RNA, creating a significant light-up response to identify its presence. This technique has shown promise for detecting influenza A more easily and may lead to the development of new antiviral drugs.
A cobalt-chromium-based alloy has been developed to mimic the flexibility of human bones and exhibit excellent wear resistance, addressing issues with conventional implant materials. The new biomaterial could be used for hip or knee joint replacements and bone plates.
A systematic review and meta-analysis of compression garment use found no benefit in muscle recovery following exercise. The study suggests that practitioners should reconsider the effectiveness of compression garments as a means to reduce muscle strength loss.
A research group has synthesized electrode materials for lithium-ion batteries using inexpensive elements, reducing industrial reliance on rare metals like cobalt and nickel. The new materials also show promise in improving the safety of LIBs.
Researchers at Tohoku University have achieved a breakthrough in reversing magnetization using spin currents, which could lead to more efficient nonvolatile magnetic memory. The new method reduces current density by 30% compared to existing spin current-based techniques.
A new study demonstrated that maternal exercise during pregnancy improves the metabolic health of offspring, even when the mother is obese or on a high-fat diet. The findings suggest that physical exercise by the mother induces the placenta to secrete SOD3, resulting in a lowered risk of diabetes for the offspring.
Researchers at Tohoku University and UCLA have made a breakthrough in high-voltage metal-free lithium-ion batteries using a small organic molecule, croconic acid. The battery has a strong working voltage of around 4V and a high theoretical capacity, potentially leading to more energy-dense and cost-effective batteries.
Researchers at Tohoku University propose a new method to form an electron lens using a light field, which can correct spherical aberration and reduce installation costs. The light-field electron lens generates a negative spherical aberration, opposing the aberration of conventional electrostatic and magnetic electron lenses.
Scientists have discovered a novel protein NDB1 that inactivates MYB1, a key regulator of nitrogen assimilation in plants. This finding could lead to improved biomass production and crop yields by manipulating NDB1. Researchers are now exploring the potential to boost plant growth through NDB1 manipulation.