Researchers developed a scalable silicon microneedle electrode using mechanical dicing, KOH etching, and nanostructured platinum to improve dry EEG recording without conductive gels. The nanoPt coating increased electrochemically active surface area by about 15-fold, reduced electrode-skin impedance, and improved proof-of-concept EEG signal quality compared with non-nanostructured platinum-coated microneedles, although conventional wet electrodes still performed better.
The review examined nanoparticle applications in aquaculture from 2020 to early 2026, including antimicrobial treatments, targeted drug and vaccine delivery, disease diagnostics, water remediation, and post-harvest applications. While nanoparticles could improve fish health, water quality, and production efficiency, the authors emphasized that many applications remain experimental and require further field testing and nanoparticle-specific safety assessments.
Researchers developed an edge-supported nano-thick epidermal electronics platform that combines an approximately 500 nm sensing region with a reinforced 5 µm scaffold for easier handling, release, and reuse. The design enabled water-assisted release and highly conformal skin sensing, with low-impedance sEMG electrodes, a 0.48 ms temperature sensor, and a pressure sensor reaching 62.9 kPa?¹ sensitivity in its most sensitive range.
Researchers developed AquaFluoSense, a portable biosensor that combines aptamer-functionalized CdTe quantum dots with fluorescence-based detection to measure lead and arsenic in water.
PI (Physik Instrumente), a global leader in precision motion control and nanopositioning, offers high-force piezo actuators for applications requiring fast, nanometer-scale motion while maintaining an unobstructed central opening.
This review examines how controlled electrostatic discharge can increase current output in triboelectric nanogenerators via electron avalanches and enable DC output in specific device designs. It surveys nano-enabled energy-harvesting systems for chemical removal, nitrogen fixation, ammonia synthesis, and self-powered gas sensing, while identifying barriers to commercialization.
This review demonstrates how nanozyme aptasensors combine synthetic enzyme-like nanomaterials with DNA or RNA aptamers to enhance selective biosensing across clinical, environmental, and food-safety applications. The paper compares three major sensor designs, NAISA, adsorption/desorption-based systems, and amplification-based platforms, while outlining the key challenges for point-of-care translation.
Researchers showed that nearby dielectric materials can drain energy from ultracoherent nanomechanical resonators without physical contact. Static charges on or in these tiny devices trigger non-contact friction, especially limiting low-frequency modes used in precision sensing and quantum technologies.
Researchers developed a voltage-directed one-pore synthesis method to form ultrathin alginate ionic nanogels inside solid-state silicon nitride nanopores. By tuning phosphate additives, metal-ion crosslinkers, and gate voltages, the nanogels combined strong ion selectivity with high pore-area-normalized osmotic power density.
Green-engineered MoS2 nanosheets were coated onto nonwoven fabric using a citric-acid-assisted ethanol-water process to create a flexible nanotechnology-enabled smart textile. The resulting nanosheet-based sensor exhibited pressure-sensitive electrical responses, wash-retained functionality, cytocompatibility, and qualitative antibacterial activity, supporting its potential for future wearable and biomedical sensing applications upon further validation.
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