Articles tagged with Nanotechnology
Researchers find that counteranions can control the assembly and magnetic behavior of CuII complexes by modulating ion-pairing structures and spin arrangements. The study demonstrates a molecular design strategy for constructing supramolecular spintronic materials with tunable magnetic properties.
The study reveals that RebD and RebC are crucial in forming the R-body architecture, while RebA and RebB alone are insufficient. The findings provide valuable insights for engineering dynamic protein systems and designing stimuli-responsive protein materials.
Triboelectric fibers convert mechanical energy into electricity, offering a comfortable and self-powered solution for VR/AR interaction. The fibers can be woven into garments, act as virtual buttons, and visualize sports motions and vital signs, enhancing immersive experiences.
MIT researchers developed a new technique to produce lipid nanoparticles with precise control over size and shape, accelerating the development of RNA and DNA therapeutics. The automated system can produce particles of varying sizes and shapes, enabling targeted delivery to specific organs and tissues.
Researchers have developed a laser-powered technology that accelerates antibody-antigen interactions to detect tiny amounts of a colorectal cancer biomarker within minutes. This technology has the potential to improve cancer diagnosis by increasing detection sensitivity and speed.
Researchers at Fraunhofer IAF have developed a monolithic microwave integrated circuit (MMIC) with a gain of 11 ± 2 dB in the frequency range between 4 and 420 GHz. The MMIC achieves low noise and high output power, making it suitable for high-bandwidth applications such as optical data transmission.
A team of researchers has developed nanoparticles that can activate nerve cells in degenerated retinas, potentially leading to a new type of retinal prosthesis. The nanoparticles, made from graphitic carbon nitride, trigger electrical and chemical processes that activate nerve cells and prompt signals towards the brain.
Researchers at KAIST have developed a technology to extend the lifespan of anode-free batteries by applying nanofabrication techniques to create uniform sites for lithium deposition and a robust protective layer. This technology enables smaller and lighter EV batteries with improved energy density.
Researchers developed a new method for creating safer plastics using porous ZIF-67 materials, which can improve polymer fire safety and reduce heat release during fires. The study found that combining ZIF-67 with different flame-retardant systems creates synergistic systems that provide improved protection.
Recent advances in high-performance graphene fibers based on graphene oxide liquid crystals have improved strength and thermal conductivity. Researchers at KAIST and worldwide have developed technologies to overcome limitations, leading to applications in consumer products and emerging fields.
Researchers at MIT created a new computing platform that mimics the firing behavior of a neuron, enabling brain-inspired computing with low power and high efficiency. The device uses reconfigurable motion to remember and process information, similar to how neurons behave in the brain.
Researchers have developed a computational framework to design and fabricate crisscross DNA megastructures, expanding accessibility to DNA nanotechnology. This breakthrough enables the construction of complex structures with precise control, opening up new avenues for applications in fields like optics, immunology, and tissue engineering.
The International Conference on Nanobubbles brought together experts to discuss applications, commercialization, and research in nanobubble technologies. Key findings include the use of nanobubbles in agriculture, biomedicine, and water treatment, as well as the development of standards for the industry.
Finalists in the 2026 Blavatnik National Awards for Young Scientists have been recognized for their groundbreaking research in Life Sciences, Chemical Sciences, and Physical Sciences & Engineering. The 18 Finalists will compete for three $250,000 Laureate prizes, with the remaining 15 receiving $15,000. The Awards aim to support innova...
Researchers from Institute of Science Tokyo successfully demonstrated a deployable phased-array transceiver in orbit, enabling satellite constellation-based wireless communications. The technology corrects non-planar deformations in the deployable membrane antenna, paving the way for next-generation satellite-based networks.
The NY Creates and Micron Technology Joint Apprenticeship program has welcomed its first cohort of 10 apprentices, introducing them to hands-on, advanced R&D training and technical career pathways in the semiconductor industry. Participants will gain expertise in producing new and innovative technologies, shaping the future of technology.
Researchers at Stony Brook University have developed a graphene oxide-based dew point meter that detects humidity levels and temperature variations. This cost-effective hygrometer platform replaces traditional dew point sensors, enabling precise humidity measurement.
Researchers developed asymmetric charged vesicles to improve drug entrapment and delivery. These vesicles allow for different charges on the inside and outside, maximizing drug loading and reducing side effects.
Researchers at Tohoku University developed a novel approach to track bending stress in microscopic devices using nitrogen vacancy centers in diamond crystals. The study shows that the sensing region can be integrated into the mechanical device itself, enabling the detection of both tensile and compressive bending stress.
A novel laser-fabricated plasmonic chip combines 185 nm Raman resolution with deep learning to identify and sort cancer cells. The developed sorter achieves precise cell sorting without labeling, using spatially resolved Raman signals.
A fluorinated imine additive improves graphite anode stability through a LiF-rich protective layer, enhancing lithium-ion transport and long-term battery stability. The additive retains 89.4% and 95.6% of maximum capacities after 1,000 cycles, outperforming additive-free cells.
A simple blending strategy enables reversible fluorescence in block copolymers, allowing visualization of mechanical stress without altering material properties. The approach preserves mechanical properties and offers a practical route for stress-sensing functions in existing polymer materials.
Researchers developed a low-temperature steam-assisted process to create durable, conductive spinel coatings on magnesium alloys for harsh acidic environments. The coating achieved ultralow corrosion current density and high sheet resistance, making it suitable for next-generation energy storage and conversion technologies.
A KAIST research team has identified the cause of measurement artifacts in nanoscale battery analysis, which can lead to misinterpretation of ion movement. The team developed a method to reduce these artifacts by smoothing battery material surfaces.
Scientists from Tokyo University of Science developed a new strategy to create glassy plastics that are both stiff and tough. They achieved this by using a combination of a comb-shaped architecture and bulky counterions, resulting in materials that are approximately four times tougher and twice as stiff as conventional glassy polymers.
A groundbreaking study reveals that electron spin influences chemical reactions at surfaces, and controlling spin orientation with magnetic fields can dramatically change reaction rates. The study demonstrates the potential for spin-based control of surface chemistry, opening up new possibilities for selective catalysis and reactivity.
Researchers at IIT Gandhinagar develop a gold nanorod-based platform for ER-targeted cancer treatment, combining targeted drug delivery with photothermal therapy. The approach induces ER stress-mediated autophagy and apoptosis in cancer cells.
Cobalt-based electrocatalysts have shown high efficiency in reducing nitrate to ammonia, with some achieving 100% Faradaic efficiency. Researchers have discovered alloying cobalt with other metals and engineering crystal structures can fine-tune the reaction pathway to favor ammonia production.
Researchers developed a hierarchical graphene nanowall nanomesh that enhances sensing performance and enables long-term gas monitoring on wearable masks. The 'nano-on-nano' structure confines gas molecules, increasing interactions with the graphene surface, and maintains breathability and flexibility.
New research proposes a revision to classical nucleation theory, revealing a gradient of crystallinity in crystal nuclei. The study uses 3D atomic imaging to examine over 8,000 nuclei in high- and medium-entropy alloys, shedding light on the energy needed for nuclei to form and merge.
Researchers uncover novel physics in magnetic skyrmions' asymmetric diffusion in structured environments, enabling nonlinear, geometry-controlled information processing. The study reveals a new principle for controlling thermal diffusion using topology and geometry.
Researchers review functional hybrids of liquid crystals and nanomaterials, enabling advanced multifunctional materials with tunable properties. These materials can display photothermal response, color switching, and encryption, among other capabilities.
Hydrogels with high-order structures can regulate pathways for force transmission, molecular transport, and biological signaling. The architectures can also improve the performance of wearable sensors, regulate drug release, and provide precise mechanical and biochemical cues for cells.
A research team at Pohang University of Science and Technology developed technologies for producing sharp full-color images using metalenses, addressing two major challenges: high optical performance and scalable manufacturing. The team solved the issue of achromatic performance by controlling the height of nanoscale pillars, enabling ...
Researchers from Institute of Science Tokyo and Kyoto University created hierarchical DNA networks using DNA polymerase and kinesin nanomachines. The study demonstrates the importance of active molecular motion in network formation, a step toward materials that assemble and organize themselves like living systems.
Researchers at Science Tokyo have developed anthracene-based self-assembling nanofibers that enable excitons to migrate hundreds of nanometers, doubling exciton diffusivity. This breakthrough overcomes the limited diffusivity of singlet excitons in organic semiconductors, offering a new strategy for improving optoelectronic technologies.
A team from the University of Osaka has created a new family of chiral semiconducting polymers that can generate highly spin-polarized electric currents. The polymers' unique molecular structure enhances the material's ability to selectively transmit electrons with a particular spin orientation, paving the way for future energy-efficie...
A team of University of Wisconsin–Madison researchers has developed an implantable, battery-free pacemaker that's charged by a patient's heartbeat. The device has the potential to last an entire lifetime, reducing the risks and costs associated with replacing the devices when their batteries fail.
Researchers developed a dopamine-enhanced electrode that overcame common failure causes, operating for up to 15 hours and supporting effective electrically assisted delivery through skin. The dopamine-enhanced electrode combined improved electrical stability, structural durability, and wet-state adhesion in a simple polymer-based design.
Researchers used 3D electron microscopy to capture direct evidence of electric fields at air-water interfaces, opening a path to rationally designed clean-energy materials. The study found a repulsive force holding thinnest films together, reaching 10 megapascals, and provided chemical evidence for the electric field's existence.
Researchers developed a technique to control internal structure of semiconductor materials using ultra-fast flashes of light, producing materials with up to 50 times more electrical current from light. The method works on transparent conducting glass, preserving useful properties that conventional heating methods cannot easily achieve.
The KAIST research team has successfully developed a new, eco-friendly hydrogen separation membrane that filters hydrogen through a molecular network. The membrane achieved a high bridge connectivity degree of 73% and showed significant improvements in hydrogen permeability and selectivity.
Recent research explores the use of nanomaterial-based drug delivery to increase treatment efficacy for glioblastoma, a type of brain tumor with poor prognosis. Stimuli-responsive and biomimetic nanomedicines are designed to overcome the blood–brain barrier and deliver drugs selectively within tumors.
A high-throughput ceramic processing method using cellulose nanofiber dispersions enables rapid exploration of dielectric materials. The researchers identified a dielectric ceramic with excellent temperature stability, demonstrating its potential in advanced functional materials.
Researchers developed a novel method to probe how mirror-image materials structure acts like a microscopic filter, influencing electron separation and movement. The approach allows for faster testing of promising materials for spintronics and optoelectronics technologies.
A new study developed a 3D printable liquid crystal elastomer that switches molecular alignment to produce opposite motions on demand from a single material. This breakthrough enables the creation of programmable shape-changing materials for various applications, including soft robotics and wearable technologies.
A joint research team has discovered that silver nanocatalysts operate at different reaction sites depending on whether generating electricity or producing hydrogen in solid oxide cells. The study proposes a new design principle to accelerate high-efficiency green hydrogen production and clean power generation by optimizing the catalys...
Researchers developed a new environmentally friendly insecticide using nanoemulsions of diallyl disulfide and carvone, which showed enhanced toxicity against the adzuki bean beetle while having relatively low impact on parasitic wasps. The nanoemulsions were also safe on seeds and enhanced root growth.
A new study from the University of Toyama found that a 50°C difference in heating temperature significantly affects the structure and stability of ultrathin FePd films. Films heated to 150°C maintained their flat surface, while those at 200°C exhibited controlled solid-state dewetting, enabling self-organized magnetic structures.
Researchers developed a new design strategy to overcome limitations in metasurface-based approaches, creating a response that enables strong, fast modulation across a wider range of colours. This advance provides a pathway for compact, high-speed optical devices with potential applications in faster data transmission and future light-b...
Researchers have developed a numerical model that explains how increasing ultrasonic power reduces chemical reaction rates in sonochemistry. The model shows that oscillating bubbles emit their own sound waves, generating unwanted noise that distorts the ultrasonic field and limits reaction efficiency.
Researchers developed a new method to create smart multifunctional materials by combining vanadium oxide and gold nanoparticles in a single process. The resulting films show temperature-dependent optical changes and exhibit enhanced antibacterial activity under light irradiation.
Scientists have developed an innovative platform to mechanically control circularly polarized luminescence, a phenomenon essential for next-generation technologies. The team created a supramolecular mechanophore that reversibly switches CPL on and off using force-induced swelling with solvents.
A team at Pusan National University created a stretchable organic electrochemical transistor that can be easily reprogrammed to perform different functions. The device combines logic, memory, and a visible color readout without complex circuitry.
MIT researchers develop a new fabrication platform to integrate molecules into electronic devices, enabling next-generation computing technologies and emerging applications. The technique uses nanoscale surface forces to mechanically assemble delicate molecular materials without damaging them.
Seoul National University researchers have developed an off-stochiometric anode material that enables safe, ultra-fast charging of lithium-ion batteries. The new design strategy overcomes kinetic limitations and preserves the NASICON structure against irreversible damage.
Resonant meta-devices revolutionize imaging and display by achieving ultra-narrowband wavefront shaping and spectral decoupling. They enable multifunctional, high-purity light-field control with applications in AR/VR, LiDAR, quantum photonics, and biosensing.
Researchers found that molecules in tiny gaps between gold nanoparticles can synchronize their behavior even with light escaping quickly. The study could lead to new ways to build synchronized states of matter like superfluids and potentially advance sensing, photonics, and quantum devices.
Wearable sensors can track dynamic changes in uric acid levels, providing valuable information for assessing healing progress and adjusting treatment plans. Researchers have improved the accuracy and reliability of these sensors using new materials and technologies.
Pusan National University researchers have successfully developed a hybrid quantum network with indistinguishable quantum sources. The team demonstrated two-photon interference between a warm atomic ensemble and quantum dots, achieving high-visibility two-photon interference without needing spectral or temporal modifications.