Advanced membranes via precise ion-selective nanochannels slash crossover rates, cut costs, and sustain cycle life. Lab-scale cells employing SPEEK/lignin composites achieve high coulombic efficiency and energy efficiency, outperforming commercial Nafion.
Researchers created a highly textured Zn surface by introducing benzyltriethylammonium chloride (TEBAC) and selectively removing its counter-ion, achieving unprecedented stability and durability. The optimized electrolyte delivered 9000 hours of dendrite-free cycling in coin cells.
Researchers introduce a simple protocol to simultaneously passivate defects at the SnO2/perovskite bottom interface and the perovskite/carbon top interface of hole transport layer-free carbon-electrode perovskite solar cells. The result is a champion device delivering high power conversion efficiency and ambient durability.
Researchers have introduced a new method to overcome defect limitations and enhance the performance of CZTS photocathodes, delivering a record half-cell solar-to-hydrogen efficiency of 9.91% in natural seawater. The device also sustains high photocurrent and exhibits corrosion resistance against chloride ions and dissolved oxygen.
LabMed Discovery has established a new international office at Shanghai Jiao Tong University in Rome, aiming to attract more international submissions and organize cross-border academic events. This move reflects the growing importance of global partnerships in scientific research and aims to bridge medical innovation across continents.
The Shanghai Jiao Tong University Medical-Engineering Interdisciplinary Journal Alliance aims to bridge medicine and engineering research through scholarly publishing. The partnership seeks to accelerate translational research in precision medicine and biomedical engineering, increasing global visibility for China's 'Double First-Class...
Two-dimensional materials hold promise in replacing traditional semiconductors like silicon, enabling advancements in computing technologies. Researchers highlight unique properties and potential applications of 2D materials to drive innovation.
A fluorine-grafted quasi-solid composite electrolyte boosts ionic conductivity while sculpting a self-armoring LiF-rich interphase, enabling ultra-stable cycling. The electrolyte sustains symmetric Li||Li cells for over 4,000 hours and drives Ni-rich NCM622 full cells to retain nearly 100% capacity after 350 cycles.
The journal is seeking submissions on brain-computer interface technology, which can assist diagnosis and treatment of neurological diseases, promote mental illness research, and enhance rehabilitation treatment. The deadline for manuscript submissions is December 30, 2025.
The 4th LabMed Discovery Youth Scholars Forum will provide a platform for young researchers to share cutting-edge scientific advancements. The event will focus on advances in colorectal cancer treatment and cardiovascular research.
The study introduces aspartame as an electrolyte additive to improve zinc anode performance, resulting in enhanced corrosion resistance and cycling stability. The self-healing ZnO-based SEI film enables long-cycling and wide-temperature operation of aqueous zinc-ion batteries.
A novel dual-enzyme-driven cascade reaction system significantly enhances catalytic therapy in tumors. Researchers developed this approach to refine single-atom catalytic kinetics, leading to improved cancer treatment outcomes.
Researchers have developed a new approach using nickel phthalocyanine-based covalent organic frameworks for electrochemical CO2 reduction. The study, led by Professor Zheng Meng, presents highly efficient CO2 conversion and innovative design mechanisms.
A new review leverages cutting-edge spatial transcriptomics and single-cell omics to identify robust predictive biomarkers for tumor immunotherapy. Representative case studies highlight the potential of spatially resolved markers to guide immunotherapy decisions and predict irAE risk.
Recent advancements in organic neuromorphic devices offer a promising solution for low-power, flexible computing. The review highlights the potential of these devices to overcome traditional computing limitations and contribute to next-generation systems.
Researchers investigated the effects of vitamin D3-loaded nanoemulsion on adaptive behavior and language performance in children with ASD. The study found improved core manifestations and receptive and expressive language abilities, suggesting a potential therapeutic benefit for children with ASD.
Researchers developed a mechanically robust in-situ solidified polymer electrolyte inspired by the microstructure of dragonfly wings, offering superior mechanical properties and electrochemical performance. The innovative design and mechanisms may lead to significant advancements in SiOx-based anodes for lithium-ion batteries.
A new AI-enabled piezoelectric wearable device accurately measures joint torque using boron nitride nanotubes. The innovative design offers broad potential applications for joint health monitoring and rehabilitation outcomes.
LMD delegation visits Italy to deepen international cooperation, promoting joint scientific research projects, talent exchange, and high-quality manuscript sources. The journal aims to establish a structured mechanism for cross-border research talent training.
A new approach to improve lithium-ion conduction in solid polymer electrolytes is presented through in situ polymerization within a covalent organic framework, boosting the performance of lithium metal batteries. This innovative design enhances ion transport efficiency and paves the way for high-performance lithium metal batteries.
Researchers developed indium-based metal–organic frameworks (In-MOFs) to improve poly(vinylidene fluoride–hexafluoropropylene) electrolyte performance in all-solid-state lithium metal batteries. The In-MOFs enhance electrochemical stability and ionic conductivity, leading to significant performance improvements.
Researchers develop a scalable strategy to improve zinc anode cycling stability and reaction kinetics using self-assembled supramolecular interfaces. The sulfobutyl-grafted β-cyclodextrin additive enhances Zn2+ transport and deposition uniformity, suppressing corrosion and dendrite growth.
The LMD team successfully exhibited at the 2025 IFCC Annual Meeting, attracting hundreds of scholars worldwide and increasing its pool of potential authors. The journal reached a strategic consensus with leading international scholars to join its editorial board, positioning it at the forefront of laboratory medicine.
Research found a strong association between blood type A and increased risk of hypertension and diabetes among the Chakhesang Naga tribe. Genetic analysis suggests a potential genetic predisposition, highlighting the importance of considering genetic and environmental factors in health outcomes.
Researchers have developed a novel biosensing platform combining CRISPR-Cas10 with graphene field-effect transistors (GFETs) for amplification-free RNA and microRNA detection. The approach achieves detection limits at the attomolar level, making it suitable for health monitoring and disease diagnosis.
Researchers developed highly efficient all-inorganic perovskite/silicon tandem solar cells using a novel TbCl3 doping strategy. This innovation integrates seamlessly with silicon solar cells, achieving remarkable efficiencies and contributing to sustainable energy future.
Researchers developed a snake-inspired soft robot (ICSBot) that leverages diverse locomotion modes to navigate complex environments and handle objects with high flexibility. The ICSBot's design offers new possibilities for creating adaptive robotic systems inspired by nature, enabling enhanced performance and autonomy.
LabMed Discovery has been included in the China Open Access Journal Database, recognizing its academic quality and publishing standards. This achievement marks an improvement in the journal's international dissemination and visibility.
LabMed Discovery magazine has been officially included in the ICI World of Journals database, a prestigious scientific journal database evaluating over 45,000 journals from 150 countries. This inclusion acknowledges LabMed Discovery's rigorous academic standards and commitment to promoting international academic exchanges.
Researchers developed a high-sensitivity bimodal piezotronic sensor to monitor Achilles tendon behavior with an accuracy of 96%. The innovative sensor demonstrates exceptional performance in detecting different movement patterns.
Researchers develop carbon-based multivariable sensors for efficient and versatile chemical sensing in complex environments. These sensors leverage CNTs and graphene to classify and identify multiple analytes, overcoming traditional sensing limitations.
A recent review explores the latest advancements in using in-situ transmission electron microscopy (TEM) to probe interfacial nanostructures within electrochemical energy storage systems. This work provides valuable insights into atomic-scale mechanisms governing system performance.
The conference brought together experts to discuss clinical and laboratory medicine hotspots, promoting interdisciplinary innovation and industry collaboration. Delegates exchanged ideas with the editorial team on academic submissions and discipline dynamics.
A clinical trial found that vitamin D3 nanoemulsion significantly improved core symptoms of autism spectrum disorder in children, including language development and adaptive behavior. The nanoemulsion form was shown to be more effective than conventional oral supplementation.
A newly developed microfluidic point-of-care device has been tested on a small cohort of patients, demonstrating strong correlation with laboratory measurements and high diagnostic performance. The device offers a promising alternative for bilirubin testing in resource-limited settings.
A computational study found amygdalin to be a promising therapeutic agent for HER2-positive breast cancer. The compound shows favorable binding energies and induces structural changes in the HER2 protein, suggesting its potential to suppress cancer-promoting activity.
Researchers developed breathable and protective HPPT materials with micro/nano-network structures, balancing protection and comfort in medical clothing. The new materials demonstrate exceptional performance, positioning them as promising candidates for next-generation healthcare and wearable protection.
Researchers developed frequency-responsive supercapacitors using h-MXene/C electrodes, which overcome TENG-SC hybrid system compatibility issues. The study demonstrates efficient pulse charging and AC line filtering capabilities, paving the way for self-powered electronics and high-performance energy storage materials.
Researchers at Shanghai Jiao Tong University have made a groundbreaking discovery in organic solar cells, achieving 20% power conversion efficiency using non-halogenated solvents. The team's novel additive engineering strategy enables precise control of film morphology, leading to enhanced crystallinity and long-term stability.
Researchers have developed an innovative ASPIRE cooler that leverages a dual-alignment structure within a hygroscopic hydrogel to achieve high-power passive daytime cooling. The study reveals the potential for this technology to enable sustainable cooling solutions for various applications.
Researchers from Shanghai Jiao Tong University have developed high-energy, stable all-solid-state lithium batteries using aluminum-based anodes and high-nickel cathodes. The study aims to address the challenges of electrode-electrolyte interface instability and achieve long-term cycling stability in these batteries.
Researchers have developed single-atom nanozymes to monitor and control environmental pollutants. These nanozymes show great potential in addressing environmental challenges due to their innovative design and mechanisms.
Researchers developed Se-regulated MnS porous nanocubes encapsulated in carbon nanofibers for high-performance sodium-ion batteries. These novel anode materials show significant improvements in electrochemical performance, making them a promising candidate for high-energy-density SIBs.
The researchers developed a multifunctional phase-change composite that integrates multiple energy conversion capabilities with superior EMI shielding. The novel composite combines solar-thermal, thermoelectric, electrothermal, and magnetothermal energy conversion with high EMI shielding effectiveness.
Researchers have developed thermally conductive Ti3C2Tx fibers with superior electrical conductivity through interfacial covalent crosslinking. These fibers exhibit exceptional mechanical, electrical, and thermal properties, making them suitable for advanced applications.
Researchers developed a Janus smart window that achieves dual electro-thermal collaborative control for improved thermoregulation, making it a promising solution for energy-efficient buildings. The innovative window offers superior thermoregulation capabilities, reducing energy consumption and enhancing environmental sustainability.
The study finds that investors are increasingly pricing carbon risk, with market participants responding to regulatory signals and growing environmental awareness. This evolution in investor behavior has significant implications for corporate disclosure, capital allocation, and the transition toward sustainable finance.
A highly aligned and compact MXene film exhibits exceptional electromagnetic interference (EMI) shielding effectiveness across ultra-broadband frequencies. The innovative film, developed by Professor Xuchun Gui's team, demonstrates infrared stealth capabilities making it a promising candidate for advanced stealth applications.
The study investigates how digital finance impacts household carbon emissions and finds robust evidence that it is a powerful tool to reduce carbon footprints. It highlights the value of expanding digital financial infrastructure, improving financial literacy, and tailoring low-carbon policies to different types of households.
A study analyzing China's emissions trading system finds that it increases financing pressures on high-carbon firms, particularly privately owned or financially constrained ones. This dynamic may hinder their green transition and overall competitiveness.