µMLA 无掩模光刻系统

This study introduces active crack engineering to create fully stretchable OLEDs from brittle semiconductors, achieving high efficiency, brightness, multicolor compatibility, and 250% strain tolerance.

Droplet microfluidics quantifies individual phage-host infection events, measuring lysis dynamics with precise experimental control, enabling accurate phage biology studies and advancing development of phage-based antimicrobial therapies.

Reconfigurable microfluidic platform uses DLW-added pNIPAM actuators to trap, label, and release beads on-chip, enabling dynamic functionalization, high flexibility, and real-time control without changing flow conditions.

Over the past decade, maskless aligners have transformed lithography by eliminating photomasks, enabling rapid design iteration, high-precision patterning, and faster microfabrication workflows in research and production.

This work introduces OPTIMISM, enabling universal transfer and integration of metasurfaces in suspended membranes, highlighting inverse-designed ultrathin meta-optics and refractive-index effects for scalable fiber-tip and biomedical applications.

This study shows post-processing significantly shapes miRNA-loaded lipid nanoparticles’ size, charge, stability, and intracellular trafficking, establishing strategies to optimize non-viral gene delivery performance.

Eco-friendly silicon-oxide RRAM using biocompatible, low-cost materials shows state-of-the-art variability, supports intermediate resistance states, and suits memory-centric, non-von-Neumann computing architectures via simple microfabrication techniques methods.

Laser-written gold contacts enable WSe2 photodetectors with nanosecond response, 250 MHz bandwidth, and strong responsivity, highlighting scalable high-speed optoelectronics using 2D materials for future applications.

Microfluidic studies link cancer cell deformability to improved squeezing through confinements, comparing HT1080 and MV3 cells, while showing minimal influence on migration path selection decisions.

Customizable 3D microelectrode arrays enable selective, low-noise recordings across organoid depths, overcoming planar MEA limits via inkjet printing, FIB milling, and electrodeposition for activity studies.

Leaf-derived lignocellulose scaffolds enable biodegradable, transparent, heat-stable electronic substrates supporting high-performance devices, offering sustainable alternatives to conventional plastics with low cost and minimal carbon footprint.

This study investigates the electrical responses of optically driven quantum material, revealing nonlinear current-voltage characteristics indicative of photo-induced superconductivity, with potential applications in high-speed devices.

This application note discusses microdevice-based drug delivery, focusing on dual compartment microcontainers (DCMCs) produced via maskless UV lithography. Potential for combination therapy is highlighted.

Optoelectronic materials converting light to bulk current. Unveiling anisotropic photothermoelectric effect driving complex photocurrent circulations via unequal crystal-axis thermopowers, visualized using microscopy and magnetic imaging.

Aptamer-based graphene field effect transistor (AptG-FET) platform detects three opioid metabolites in wastewater rapidly and inexpensively, providing a reliable alternative to costly laboratory-based techniques.

Novel atomic substitution method creates highly conductive nonlayered molybdenum nitrides from MoS₂, enabling potential nanoelectronics’ applications with maintained conductivity and stable contacts over weeks.

Intense optical pulses induce transient superconductivity, evolving into stable states in K₃C₆₀ under sustained mid-infrared excitation, characterized by low resistance and extended lifetimes.

Optical driving in quantum solids uncovers phenomena like light-induced superconductivity and anomalous Hall effect in graphene, revealing Floquet-engineered topological band structures.