Researchers have developed a novel K⁺ and C <sub> 3 </sub> N <sub> 4 </sub> co-intercalated NH <sub> 4 </sub> V <sub> 4 </sub> O <sub> 10</sub> cathode for wide-temperature zinc-ion batteries. The innovation overcomes long-standing cathode limitations, enabling practical and scalable high-performance AZIBs.
Researchers developed a new electrolyte additive to overcome low-temperature limitations of aqueous zinc metal batteries, enabling highly reversible zinc anodes. The innovation highlights the importance of interfacial engineering and cost-effective materials design in advancing energy storage technologies.
Researchers have introduced a new strategy to engineer composite polymer electrolytes for solid-state lithium-metal batteries. The innovative approach uses charged halloysite nanotubes as interfacial architects, delivering super-tough, highly conductive, and dendrite-suppressing electrolytes.
These AI-integrated systems are being used for targeted drug delivery, tissue regeneration and neuromodulation to manage chronic diseases. Wearable ultrasound is poised to transform post-operative care and neurorehabilitation.
Researchers have developed a solid-acid NiCo2O4 electrocatalyst with balanced Brønsted and Lewis acid sites for efficient electrooxidation of biomass-derived saturated alcohols. The work offers a new strategy for designing high-performance, non-noble metal catalysts for biomass valorization.
Researchers have introduced chiral cobalt oxide nanosheets that induce spin selectivity to suppress singlet oxygen generation in lithium-oxygen batteries, leading to unprecedented stability. This innovative design paradigm merges spintronics with electrochemistry to control reactive oxygen species and enable high-energy, long-life batt...
Researchers developed spherical carbon superstructures with hydrogen-bond guidance to enhance energy storage performance in zinc hybrid capacitors. The work highlights the importance of interfacial engineering and hierarchical porosity for advancing high-energy energy storage technologies.
Researchers developed a prognostic model using machine learning to predict suicide risk in depression patients. The study found that clinical features and biochemical biomarkers, such as TSH levels, contributed significantly to the model's accuracy, achieving an 82% success rate.
A recent study investigated antenatal anxiety among first-trimester pregnant women in China, revealing a prevalence of 2.54%. Risk factors identified include young age, economic hardship, and lack of social support. The authors recommend targeting these vulnerable groups with early anxiety screening and targeted support.
Scientists have developed a method to remove harmful alkaline earth metal ions from biodiesel using amino polycarboxylate chelating agents. The most efficient agent, CDTA, removed up to 98.6% of Ca2+ and 94.3% of Mg2+, improving oxidative stability.
Researchers developed biomimetic helical fibers that form a 3D entangled network providing elasticity and structural integrity. The sponge features ultralow density, high porosity and exceptional thermal and washing durability.
A comprehensive review on flexible tactile sensing systems charts a clear path from theoretical innovation to practical, scalable applications. The next generation of robots and wearable devices will rely on intelligent, robust, and scalable tactile systems.
Researchers developed an ultrasonic microrobot capable of ultrafast bidirectional navigation in confined tubular environments. The robot achieves high speed and low voltage operation, while maintaining stability in various environments and carrying loads beyond its weight.
Researchers have developed 3D-printable super-black silica-carbon composite aerogels with unmatched multifunctionality. These aerogels combine ultra-low thermal conductivity and extreme light absorption for transformative potential in thermal insulation and solar-driven applications.
Scientists at Northwestern Polytechnical University create FG/PNF composite papers with exceptional wave-transparent performance, thermal conductivity, and mechanical strength. The down-top strategy offers a scalable solution for next-generation electromagnetic and thermal management applications.
Recent advances in high-entropy oxide (HEO) memristors for neuromorphic computing have shown unique structural and electronic tunability. HEOs contain multiple cations in near-equimolar ratios, forming highly disordered yet stable lattices that resist phase segregation.
A novel cellulose-based piezoresistive sensor has been developed for interference-free respiratory rate monitoring. This customizable cylindrical architecture pairs MXene nanosheets with TEMPO-oxidised cellulose nanofibrils, enabling accurate tracking under different environmental conditions.
A randomized, double-blind trial compared Yueju Pill and escitalopram in treating major depressive disorder (MDD). The study found that Yueju Pill improved depression symptoms and increased serum brain-derived neurotrophic factor (BDNF) levels. Brain network patterns were also predictive of treatment response in the Yueju Pill group.
A team of researchers developed an octopus-inspired, hydraulically actuated hydrogel gripper that achieves damage-free adhesion for complex underwater manipulation. The innovative design offers a transformative blueprint for next-generation soft robotic grippers.
A recent randomized controlled pilot study suggests that Baduanjin, a traditional Chinese mind-body exercise, may help alleviate menopausal symptoms and fatigue in breast cancer patients undergoing aromatase inhibitor therapy. The study found significant improvements in joint pain and cognitive/mood dimensions of fatigue.
Two-dimensional materials are being explored for their potential to revolutionize photovoltaics, with a focus on improving efficiency and stability. The review highlights the innovative design and features of these materials, as well as their promising applications in next-generation photovoltaic technologies.
Researchers develop Te-modulated Fe single-atom catalyst to overcome polysulfide shuttle effect and sluggish redox kinetics in Li-S batteries. The catalyst significantly improves both rate performance and cycling stability, making it a promising solution for high-energy, low-cost energy storage.
Researchers have published a comprehensive review on additive manufacturing for nanogenerators, offering critical insights into the transformation of energy harvesters through 3D printing. The review highlights key findings on innovative designs, applications, and future outlooks, while addressing current limitations and challenges.
Researchers from Shenzhen University review cement-based thermoelectric materials for their potential in smart construction, energy harvesting, and structural monitoring. The study highlights key challenges and proposes future directions for the development of these materials.
Researchers have published a comprehensive review on wide-temperature electrolytes for aqueous alkali metal-ion batteries, offering insights into next-generation energy storage systems. The review emphasizes the importance of interdisciplinary research to drive innovation in sustainable energy storage.
Researchers develop a scalable, fluoride-free route to produce Te-terminated MXenes with superior sodium-storage properties. The one-step tellurium etching strategy merges controllable surface functionalization with green chemistry.
Researchers have published a comprehensive review on the latest advances in regulating Bi-based catalysts for photoelectrocatalytic CO2 reduction, providing guidance for high-performance catalyst design. The study aims to promote the development of efficient CO2 reduction technologies with enhanced activity and selectivity.
Researchers from Xi'an Jiao Tong University develop on-skin epidermal electronics for next-generation wearable devices that overcome traditional wearables' limitations. This technology enables long-term, high-fidelity health monitoring with innovative design features.
Researchers from Donghua University introduce electrospun ceramic nanofiber-based aerogels (ECNFAs) offering a transformative approach to designing lightweight, flexible, and multifunctional ceramic frameworks. These materials bridge the gap between structural performance and functional versatility.
Researchers developed a mangrove leaf-inspired upward-hanging evaporator using 3D photothermal spacer fabric for zero-liquid-discharge desalination, enabling sustainable freshwater production. The system achieves high evaporation rates while simultaneously recovering salt, offering a promising solution for global freshwater demand.
Engineered Radiative Cooling Systems (ERCSs) offer a zero-energy solution for thermal regulation. Advanced materials and structures dissipate heat into space, enabling scalable energy-efficient cooling strategies.
Researchers have developed MXene-based smart contact lenses with transformative potential in vision care, offering biosensing, therapy, and user comfort. These innovative lenses represent a promising frontier in digital ophthalmic healthcare.
A recent study presents a breakthrough in mitigating corrosion challenges in seawater electrolysis by coating iron–nickel sulfide electrodes with europium oxide. The rare-earth compound creates a microenvironment rich in hydroxide ions, discouraging chloride ion adsorption and oxidation.
Researchers develop a scalable, eco-friendly method to isolate 10-μm-thick bamboo green frameworks with high transparency and haze levels. The study offers a promising pathway to sustainable light-management layers for next-generation photovoltaics and optoelectronics.
Researchers have developed a novel strategy using Ti3C2Tx MXene nanosheets to enhance thermal conductivity and optoelectronic performance in perovskite solar cells. This study offers a promising route toward high-efficiency, thermally stable photovoltaics.
The study investigates how systemic risks propagate through the NFT ecosystem, providing insights for investors and regulators. It finds that NFT assets exhibit moderate but significant interconnectedness during normal market conditions, which intensifies substantially during extreme market states.
Researchers developed noninvasive on-skin biosensors that analyze sweat and skin biomarkers for real-time diabetes management. These sensors offer a painless and continuous monitoring solution, transforming daily diabetes care.
Researchers develop nanostructured anatase TiO2 cathode exposing reactive (001) facet, doubling capacity and setting a new benchmark for Mg2+ storage performance. This design principle unlocks multivalent-ion storage, propelling magnesium batteries toward market readiness.
Researchers developed a lattice-anchoring strategy to stabilize α-FAPbI3 perovskite for ultra-sensitive and stable X-ray detection. This breakthrough enables cost-effective, real-world imaging applications with improved sensitivity and stability.
Researchers have developed a breakthrough anode material for sodium-ion batteries that delivers exceptional performance from -35°C to 65°C. This innovation harnesses quantum-size effects to enable durable, high-energy batteries suitable for aerospace, electric vehicles, and grid systems.
Advanced machine learning techniques reveal that China's collateral monetary policy stimulates shadow banking growth while increasing bank risks, particularly among non-primary banks. The 2018 New Asset Management Regulation effectively mitigated these effects, demonstrating the value of targeted regulatory interventions.
A recent study found that paeoniflorin treatment corrected imbalances in gut microbiota and key metabolites associated with brain function in a rat model of chronic stress. This corrected the depressive behaviors in stressed rats, which were then transferred to other rats through the shared gut microbiota-metabolite axis.
Researchers from Shanghai Jiao Tong University and Hong Kong universities develop a comprehensive review on advanced AI chip design, focusing on energy efficiency, processing speed, and hardware scalability. The work provides a strategic roadmap for the development of high-performance AI chips through interdisciplinary collaboration.
The study presents a comprehensive review on electric-field-driven generative nanoimprinting for fabricating complex nanostructures. This technology has the potential to overcome limitations of traditional lithography and enable the creation of next-generation nanomanufacturing technologies.
Researchers developed a bio-inspired dual-amplified patch that accelerates and enhances the uniform delivery of extracellular vesicles (EVs) through the skin. The innovative patch uses short microneedles to overcome the stratum corneum barrier, enabling pain-free transdermal delivery of EVs.
Thick-film organic photovoltaics (OPVs) hold promise for high-efficiency, scalable, and cost-effective solar cells. The study establishes guidelines for designing high-performance OPVs by bridging the gap between laboratory achievements and industrial manufacturing.
The PLD-REBCO industry has seen rapid development thanks to commercial compact fusion, enabling mass production of high-performance REBCO tapes with excellent in-field performance. However, challenges remain, including reducing costs and improving scalability, which require closer collaboration between industry and academia.
A 4-week intervention study found that adhering to UK Physical Activity Guidelines improves cardiorespiratory fitness and increases muscle thickness and strength in older adults. This study demonstrates the potential of physical activity guidelines for improving health and functional well-being in older adults.
Researchers developed a refined analytical computational model for electromagnetic forces in HTS maglev systems, offering fast computation speed and clear parameter relationships. This enables comprehensive optimization and enhancement of the levitation system, reducing reliance on rare-earth permanent magnets.
Researchers discovered a new paradigm for integrating hafnia-based materials into advanced memory and logic devices by eliminating a mixed tetragonal phase, resulting in an unprecedented dielectric response. The capacitor achieves a stored charge density of 183 μC cm−2 at 1.2 V/50 ns, sustaining over 10^12 cycles without breakdown.