Researchers have created face-/edge-shared 3D perovskitoid single crystals with suppressed ion migration, providing a new pathway for stable and high-sensitivity X-ray detection. The team's design addresses the long-standing issue of ion migration in traditional perovskites.
A review analyzes strategies for energy-level alignment in perovskite solar cells, including perovskite absorber engineering and ETL/HTL optimization. Real-world case studies validate the effectiveness of these approaches.
Researchers have developed a game-changing solution for wastewater treatment, delivering unprecedented performance in electrochemical oxidation of persistent pollutants. The 3D-printed electrodes reduce reliance on critical raw materials and cut fabrication costs by 30%, offering a scalable, metal-free path to sustainable water treatment.
Researchers developed a novel zwitterionic electrolyte additive using anionic group design to eliminate hydrogen evolution reactions and zinc dendrite growth. MPC emerged as the most effective additive due to its dual functionality, offering promising solutions for ultra-stable and long-life aqueous zinc-ion batteries.
A new hydrogel sensor has been developed to enable long-term, high-fidelity EEG recording and attention assessment. The PGEH patch uses machine learning-powered attention decoding and reusable skin adhesion, making it a potential game-changer for wearable neuromonitoring.
A novel 'heteroatoms synergistic anchoring vacancies' strategy has been introduced to create phosphorus-doped CoSe2 with rich selenium vacancies, resolving the long-standing 'activity-stability trade-off' of catalysts. This innovation enables Li-S batteries with exceptional performance and brings commercialization closer.
Researchers have introduced a novel electron localization strategy to create Ni-MXene composites with enhanced polarization, leading to boosted electromagnetic wave attenuation. The composites achieve an ultra-wide effective absorption bandwidth of 6.8 GHz and set a new benchmark for MXene-based EMW absorbers.
Researchers developed Pickering emulsion-derived MXene/silk fibroin hydrogels with programmable hierarchical structures, delivering exceptional EMI shielding and solar evaporation performance. The synergistic effects of amphiphilic silk fibroin and MXene nanosheets enable precise control over hydrogel microstructures.
A team of researchers has developed high-reliability artificial thermoreceptors that mimic human nociceptors, enabling robots to detect harmful thermal stimuli with exceptional accuracy. The devices use photo-induced patterning thermoelectrics and exhibit minimal temporal and spatial variations.
Researchers have developed innovative electrochemical solid-state electrolyte (SSE) reactors that overcome limitations of traditional electrochemical reactors. These new reactors offer enhanced product purity, energy efficiency, and scalability, making them indispensable for next-generation electrosynthesis.
A comprehensive review of transition metal-based electrocatalysts for microbial electrochemical hydrogen production has been published, highlighting the progress made over 15 years. The research provides a roadmap for advancing practical and sustainable microbial electrolysis cells.
Researchers introduce a dicyandiamide-based molecular bridge strategy to passivate defects and regulate phase distribution in quasi-2D perovskite solar cells, achieving record efficiencies and improved stability. This approach enables scalable development of efficient and durable next-generation perovskite photovoltaics.
A new catalyst, NiFe-BNC, has been developed for efficient styrene degradation and CO2 reduction. The catalyst demonstrates scalable potential for pollutant remediation and carbon recycling, advancing closed-loop carbon utilization.
This research collection demonstrates that finance is an active driver of new energy solutions, influencing investor behavior and corporate strategy. It highlights the importance of integrating finance with technological innovation and policy design for a just and efficient energy transition.
Researchers have developed electrospun nanofiber-based composite materials for wearable electronic skin applications, offering high surface area, tunable porosity, and breathability. These composites mimic skin-like properties while enabling efficient signal transduction for human-machine interaction and health monitoring.
Recent studies have shown that AI models can outperform manual assessments in accuracy, efficiency, and reproducibility. This has led to increased opportunities for raising IVF success rates through the application of deep learning and computer vision techniques.
Researchers unveil ultra-thin TiO2 flakes that outperform traditional nanoparticles on transparency, penetration, phototoxicity and spectrum. The new sunscreen platform achieves unparalleled NAF, negligible skin permeation and reduced DNA-damage risk.
Researchers developed a binder-free 'surface self-bounded photocatalytic membrane' that efficiently produces green H₂O₂ while annihilating antibiotics in water. The membrane achieved high activity, rapid pollutant removal, and low maintenance costs.
Researchers developed a hybrid pair trading strategy for cryptocurrency markets, achieving profitable results in high-frequency trading. The approach outperformed traditional methods by combining statistical techniques and adjusting entry/exit thresholds to maximize profits.
Researchers developed a roadmap for scalable, high-density storage that converts CO2 into grid-level energy. The review outlines ten years of progress and future directions, including dual-electrolyte architectures, AI-guided additive screening, and temperature-resilient designs.
Researchers have developed triboelectric nanogenerators that can harness wave energy with high efficiency and stability. These devices use advanced designs such as multilayer stacks and magnetic-levitation frames to push volumetric power density beyond 600 W m–3, creating full-spectrum harvesters that deliver 117% power-conversion effi...
This novel anode design boasts excellent mechanical resilience, industrial durability, and fast-charging capabilities, while being green and scalable. The hydrolysis-engineered architecture delivers improved electrochemical performance, including high-rate capability and long cycle life.
Network meta-analysis reveals Qigong and Taichi as most effective exercises for pain alleviation in cancer patients. These mind-body therapies are proven to be more beneficial than conventional exercise and have fewer adverse reactions.
Researchers develop a Pt–N-Mo bonding heterostructure that boosts water-splitting kinetics, resists degradation for >500 hours and reduces hydrogen production costs to US$2.02 kg⁻¹. The catalyst delivers high energy efficiency and a techno-economic win, paving the way for gigawatt-scale deployment.
A new AI framework reveals the evolution of characterization methods in nanoscience by analyzing 176,000 publications. The framework identifies key breakthroughs, predicts future trends, and offers a plug-and-play solution for various scientific fields. It also uncovers hidden knowledge and provides explainable milestones.
A study using China's 'Broadband China' strategy reveals that investing in digital infrastructure is crucial for building corporate resilience. The findings highlight the importance of national broadband initiatives and provide actionable guidance for firms and policymakers to future-proof their organizations.
Researchers develop bifunctional catalysts that can simultaneously facilitate oxygen reduction and evolution reactions, enabling the creation of durable and high-energy-density metal-air batteries. The new catalysts have been shown to outperform traditional materials in terms of stability and power density.
The asymmetric MXene-graphene bilayer aerogel delivers over 100 dB EMI shielding, 115 °C solar-thermal heating, dynamic IR camouflage, thermal insulation and oil absorption, all without external power beyond sunlight or a pulse.
Researchers have developed a hydrogel electrolyte that regulates the coordination environment of water molecules, enabling high-stability and flexibility in zinc-based devices. This breakthrough can lead to advanced energy storage solutions for extreme environments.
Researchers developed a 3D self-folding knitted fabric that can adjust to varying temperatures, providing year-round comfort. The fabric's unique geometry allows it to transition between radiative cooling and passive warming modes, addressing limitations of traditional dual-mode textiles.
A new study revolutionizes crypto risk management by introducing a multidimensional risk extraction framework that captures nuanced risk patterns and rapid price fluctuations. The framework isolates four types of risk: jump, continuous, trend, and cyclical risks, providing actionable insights for investors and risk professionals.
Researchers overcome nitrogen oxidation hurdles by interface-engineering 2D PdS2 nanoplates, delivering unprecedented stability and high nitrate yields. A sulfate-coupled platform enables scalable production of nitrate with reduced CO2 emissions.
Researchers have identified a key role for acidic interfaces in improving lithium ion transport in high-content inorganic composite quasi-solid-state electrolytes. The study provides design rules for future electrolyte development and paves the way for enhanced performance in lithium-metal batteries.
Researchers challenge conventional wisdom that grain boundaries in perovskite solar cells are detrimental to performance. Grain boundaries act as 'highways' for charge separation, improving photocurrent and carrier extraction in high-efficiency devices.
The conference brought together leading scholars and industry experts to discuss AI risk, climate risk, green finance, and cryptocurrency regulation. Keynote speakers emphasized the importance of academic collaboration in addressing global financial issues.
Researchers have developed an OAPC strategy to graft a densely packed zwitterionic brush onto Zn anodes, overcoming dendrite growth and hydrogen-evolution side reactions. The resulting OIL-IPS@Zn platform achieves record-breaking stability and efficiency for ultra-long-life aqueous Zn-ion batteries.
Researchers developed a single-fibre computer integrating sensing, communication, and computation for accurate human activity recognition. This technology enables significant improvements in wearable electronics, paving the way for next-generation intelligent textiles.
Researchers leverage machine learning to accelerate solid-state battery development, overcoming material interactions and interface instability. AI-powered strategies optimize battery management systems and decode ion transport for improved energy storage.
Researchers developed a novel mixed-dimensional heterojunction between GaSb NWs and Bi2O2Se NSs for self-powered near-infrared photodetection with ultralow dark current and ultrafast response. The device showcases multifunctional capabilities without an external power supply, enabling applications in various fields.
Researchers have developed new synthesis methods for nanoscale high-entropy alloys, which exhibit improved properties in catalysis, energy storage, and more. These advancements offer promising solutions for future technological innovations.
Researchers have developed engineered supramolecular crystals that optimize hydrogen storage performance with notable volumetric and gravimetric capacities. These advancements hold potential for improving the efficiency of hydrogen-powered vehicles and other technologies.
Alzheimer's disease is a mounting crisis in China, affecting nearly one-fourth of the global total. New diagnostic techniques, treatments, and public health initiatives are being implemented to address the growing burden.
Researchers analyzed high-temperature solid oxide electrolysis cells (SOECs) mechanisms, categorizing oxygen ion-conducting (O-SOECs) and proton-conducting (H-SOECs), which facilitate CO2 conversion pathways. The study identifies key manufacturers and discusses challenges for large-scale applications.
Researchers have developed acupoint-delivered nanovaccines that ignite dual-niche immunological priming, recruiting CD11b⁺ dendritic cells and flooding lymph nodes with nanoparticles. This approach delivers significantly higher immune responses, including 6-fold more OVA-specific CTLs and 10^3 -fold higher anti-SARS-CoV-2 IgG titers.
Advanced sensor technologies enhance lithium-ion batteries with real-time monitoring, predictive maintenance, and intelligent protection against thermal runaway and gas venting. This innovation enables the development of smarter, safer, and more efficient electric vehicles, renewable energy storage systems, and portable electronics.
Researchers have developed a method to exploit local microstrain as a precise tuning knob for single-atom catalysts, unlocking record-setting oxygen reduction performance and long-term stability. This breakthrough uses nanoscopic curvature to control bond strain, transforming static motifs into dynamically self-optimizing centers.
Researchers have designed a precision separator coating that blocks and re-uses polysulfides, improving cycle life and sulfur utilization in lithium-sulfur batteries. This innovation enables the transformation of separators from passive barriers to active gatekeepers, paving the way for real-world deployment.
The new MOF-derived Sn–O–Fe platform achieves high sensitivity (Rg/Ra = 2,646) for NO2 detection at 150°C, with a limit of detection of 10 ppb. The sensor's scalability and low power consumption make it suitable for wearable health and industrial safety applications.
Researchers have developed machine learning tailored anodes that accelerate green-hydrogen production by overcoming noble-metal dependence and enabling more-than-Moore energy systems. The optimized anode materials exhibit improved proton-hopping barriers, OER over-potential, and thermal compatibility.
Metal-halide-perovskite scintillators have made significant advancements in light yield, timing, flexibility, and multi-energy imaging. These innovations enable ultra-low-dose imaging, sub-nanosecond timing, flexible curved platforms, and stacked scintillators with interlayer optical filters.