The ESOT FiSensor combines electrical signals with light transmission, allowing simultaneous monitoring of vibration, pressure, temperature, and strain through a single fiber. Tests show exceptional performance with over 90% sensitivity retention after traveling 50 meters.
Researchers developed anisotropy-tunable mesoporous polydopamine nanomotors with POM-mediated assembly, which combine intrinsic antibacterial activity, self-propulsion, and high drug-loading capacity. These nanomotors demonstrate enhanced antibacterial efficiency and biofilm eradication against drug-resistant bacterial biofilms.
A nonvolatile phase-programmable spintronic terahertz emitter has been developed, allowing for ultrafast programming of terahertz wave phases. The device demonstrates reversible write-read-reset processes and spatial terahertz phase patterning with high signal-to-noise ratios.
Researchers found that Buyang Huanwu Decoction alleviates acute inflammation following spinal cord injury by regulating the complement and coagulation cascades. The treatment promotes neuroprotection and motor function recovery, suppressing microglia-mediated inflammation.
Researchers developed a lock-in thermography-based method to rapidly characterize structural imperfections in freestanding oxide membranes. The study found distinct thermal responses for different types of defects, including microcracks and wrinkles, enabling efficient defect screening and quality evaluation.
Researchers introduce a set of universal relations that connect spectrum shapes to wave behavior in one-dimensional disordered systems. The framework reveals a never-before-seen critical state where waves localize differently depending on direction, and shows how it can be tracked using a topological winding number.
Researchers created a detailed atlas of human brain-vessel morphology, revealing subtle changes linked to stroke prognosis and suggesting that small-vessel features may help explain worse recovery outcomes. The atlas, MARVAL, provides a standardized tool for measuring the vascular network in large populations.
Researchers developed CardioNVT, an AI platform for high-throughput cardiomyocyte ploidy assessment. The platform accurately recognizes and segments cardiomyocyte nuclei from DAPI-stained images, enabling the analysis of nuclear volume distribution and inferred ploidy.
A novel deep learning framework integrates high-resolution pathology images with spatial transcriptomics and proteomics to reveal complex intra-tumor heterogeneity in colorectal cancer. The approach identifies distinct molecular subtypes that correlate with immune cell infiltration patterns.
Mitochondrial damage fuels neuroinflammation in CNS diseases, but targeted nanomedicines can restore function and reduce inflammation. Intelligent nanomaterials designed to cross the blood-brain barrier have shown striking efficacy in preclinical models.
Researchers developed ultrathin CdS nanosheets decorated with Ru single atoms and S vacancies, enabling record-high performance for ethanol photoreforming. The catalyst achieved a hydrogen evolution rate 81.5 times higher than pristine CdS and 100% selectivity for valuable chemicals.
The global incidence of type 1 diabetes nearly tripled over the past three decades, while health inequalities worsened. Lower-income countries carry a disproportionately large share of T1DM-related deaths and years of life lost due to disparities in access to insulin treatment and healthcare resources.
Researchers optimize blue perovskite LEDs by introducing ordered dipolar PVDF, improving carrier transport and recombination. The breakthrough results in world-record device performance, exceeding 43.9 lm W−1 peak power efficiency.
Researchers recreated the maternal-embryo interface using a novel co-culture system and mapped lipid metabolic dynamics during early implantation. Arachidonic acid metabolism is essential for embryo attachment, endometrial receptivity, and trophoblast development.
UPL3 E3 ubiquitin ligase promotes light-induced seed germination by degrading PIF1. The study reveals a critical role for UPL3 in mediating PIF1 degradation through the 26S proteasome pathway.
Researchers successfully created a novel, stably inheritable grass carp germplasm without intermuscular bones using the runx2b gene. The absence of IBs did not affect the fish's quality or nutritional profile, but improved gel strength and resilience were observed.
Researchers summarize how AI is accelerating inorganic biomaterial development for various biomedical applications. AI-powered property prediction and inverse design tools are being used to discover effective materials with unique properties.
Researchers developed targeted platinum-antibody conjugates that effectively enhance tumor immunogenicity and promote anti-tumor immunity. The low-dose platinum delivery strategy showed strong synergy with anti-PD-1 therapy, achieving tumor suppression superior to monotherapy or simple combination treatment.
Researchers developed a Pt–CuOx interfacial catalyst that converts HMF to FDCA at significantly lower voltages, achieving 99.1% FDCA selectivity and 93.8% yield. The optimized catalyst demonstrated excellent durability, maintaining over 90% selectivity for more than 110 hours.
A novel therapeutic paradigm combines electroacupuncture with regenerative tissue engineering to enhance nerve regeneration and functional recovery in spinal cord injury. The study found that electroacupuncture stimulation improved neural signal transmission, suppressed neuroinflammation, and promoted myelin regeneration.
A novel thermal transport phenomenon is discovered in an actively controlled system, where heat continuously accumulates towards one boundary, forming a robust temperature localization profile. The phenomenon exhibits remarkable robustness against external disturbances and topological transitions.
A nationwide study found 65% of China's freshwater is stored in remote western lakes, creating a severe spatial imbalance between water and population distribution. The Tibetan Plateau holds significantly more freshwater than the densely populated eastern plains.
A global meta-analysis of 8509 field observations found that plant-based and animal-based carbon inputs significantly improve agroecosystem multifunctionality. Soil biota abundance was strongly linked to multifunctionality and showed more frequent win-win relationships with other functions than species richness.
Scientists have successfully decoded the polarization cipher of high-energy electrons, demonstrating a new pathway to creating highly polarized gamma-ray sources. The study's findings confirm key predictions of quantum electrodynamics and open up new design options for mid- to high-energy gamma-ray sources.
Researchers established the first complete, exactly solvable framework that unifies all seven fundamental localization phases in quasiperiodic systems. The framework also points to a concrete route for realizing predicted physics with ultracold atoms, offering new opportunities for experimental realization.
Researchers developed a universal compounding technology to integrate up to 59% of carbon nanotubes (CNTs) into polymer matrices, improving material performance. The resulting CNT superplastics exhibit excellent mechanical, electrical, and thermal properties.
A research team has successfully realized a non-Hermitian higher-order Weyl exceptional ring semimetal in a lossy acoustic metamaterial. The material hosts Weyl exceptional rings with dual topological charges, giving rise to Fermi arc surface states and surface-dependent skin effect.
Researchers developed a flexible electrochemical sensing platform that captures dynamic small-molecule chemical signals in the gut. The platform reveals a new mechanism underlying enhanced intestinal mechanosensation under microbe-related stimulation, enabling real-time monitoring of serotonin release.
Scientists propose a strategy to control π-electron delocalization in polycyclic aromatic hydrocarbons, enabling the synthesis of narrow-spectrum emission materials. This approach results in red emitters with high efficiency, narrow spectral width, and record-high performance in OLED devices.
Researchers identified OsSD7, an F-box protein that regulates seed dormancy and resistance to pre-harvest sprouting (PHS) in rice. The study found that natural variation in this gene provides valuable resources for breeding PHS resistance.
A research team has achieved a major breakthrough in characterizing altermagnets, a newly discovered class of magnetic materials. They successfully visualized magnetic domains in RuO2 using lock-in thermography and the spin-dependent Peltier effect, resolving long-standing challenges in this emerging field.
A novel copper-based MOF material reduces CO2 to carbon monoxide and subsequently produces higher-value compounds, such as N-formamides, under visible light irradiation. The system offers a simpler and potentially greener alternative to conventional routes that rely on precious-metal catalysts and high temperatures.
Lanthanide nanoprobes have improved signal-to-noise ratio, enabling ultrasensitive detection of cancer biomarkers and visual identification of cancer cells. The nanoparticles maintain stable luminescence across a wide pH range and in simulated human body fluids, ensuring reliable performance.
A novel chiral Brønsted acid-catalyzed PED reaction provides an efficient route to access chiral benzannulated carbocyclic frameworks. The method enables the synthesis of azaarene-containing adducts with good yields and excellent enantioselectivity.
This review synthesizes recent progress in rice grain size and nutritional quality, identifying key signaling pathways and regulatory mechanisms. Strategic approaches, including genome editing and precision design, can improve yield while enhancing nutritional value for human health.
Researchers propose a unifying framework to rebuild brain–spinal communication in SCI patients, enabling closed-loop neurotechnology to support stable or adaptive function. The study introduces three technological routes to address communication loss, state mismatch, and learning failure.
A Chinese endoscopy-screened cohort study found that genetic risk and lifestyle factors independently contribute to upper gastrointestinal cancer risk. Integrating genetic risk with lifestyle information may improve risk stratification and identify individuals most likely to benefit from screening and prevention.
Researchers mapped CHD variant landscape in Asian population, identifying 11 overlapping candidate genes and 25 novel genes associated with abnormal cardiovascular phenotypes. The study highlights the importance of genetic testing and counseling for birth defects in Chinese populations.
CeCrGe₃ exhibits giant anomalous Hall and Nernst effects, originating from Kondo-driven topological flat bands. These remarkable responses are significantly larger than those observed in LaCrGe₃ and hold promise for future applications in electronic devices and thermoelectric energy conversion.
Scientists have developed a new type of semiconductor material that can both stretch like rubber and heal itself, breaking the long-standing trade-off between these properties. The material uses hierarchical hydrogen bonds to achieve this balance.
Researchers create tandem catalytic strategy to efficiently upcycle polyethylene into aromatic chemicals without precious metals or external hydrogen acceptors. The process achieves high aromatics yield and demonstrates excellent stability, offering a promising solution for managing plastic pollution and reducing fossil resource reliance.
Recent advances in noninvasive neural decoding, deep learning, and shared autonomy are bringing BCI-controlled robots closer to real-world use. These systems can decode complex brain signals related to movement intention, allowing for more flexible and higher-dimensional robotic behaviors.
Researchers create conjugated polymer with bipyridine units that enhances water oxidation kinetics and charge separation, leading to high efficiency in H2O2 production. The strategy offers a promising route for sustainable chemical synthesis driven by solar energy.
Research highlights the interplay between circadian disruption and cardiovascular comorbidities, including cardio-cerebral, cardio-hepatic, and cardio-renal interactions. Chronotherapies show promise in re-entraining circadian rhythms, with potential applications for personalized treatment.
A new grayscale lithography technique called PG-LDW is introduced, achieving sub-nanometer resolution in 3D structures. This process enables precise control over the depth profile of photoresists, opening opportunities for next-generation micro/nano-integrated devices.
Researchers have developed a microfluidic spray drying technology to rapidly synthesize high-phase-purity HE-NVPF cathode materials, outperforming traditional batch methods. The new method enables scalable energy storage solutions with ultra-fast charging speeds and high energy density.
Researchers introduce a novel approach to enhance solar thermal energy storage efficiency by anchoring the phase-change front, preventing its accumulation at the source. The continuous-flow system delivers a charging power of 0.54 kW and a solar thermal storage efficiency of 49.7%, outperforming conventional diffusion-limited approaches.
A recent study reveals how orbital effects shape the high-field phase diagram of Ising superconductors, providing a theoretical basis for understanding vortex phase transitions at high magnetic fields. The research also demonstrates that finite-momentum pairing configurations can form under in-plane magnetic fields, leading to a new ty...
Researchers found ancient Chinese water buffalo feather decorations contained multiple bird species, including hoopoe, black-headed grosbeak, and yellow-bellied whistler. They also identified the adhesive as water buffalo glue, providing insights into cultural connections and species origins.
A new review highlights the escalating global burden of MASLD, which can progress to liver cancer, emphasizing the need for early detection and multifaceted treatment. Non-invasive biomarkers are being developed to improve diagnostic precision, including multi-omic panels and molecular markers that outperform traditional tests.