Nano-Micro Letters最新文献

Nanoimprint lithography (NIL) enables high-performance light management in organic light-emitting diodes and organic solar cells, and enhances charge transport in organic field-effect transistors via controlled molecular ordering, pushing organic optoelectronics beyond conventional efficiency limits.

The technology provides a scalable, low-cost platform for large-area fabrication on flexible substrates, effectively bridging the gap between laboratory innovation and industrial mass production.

NIL uniquely empowers the creation of multifunctional integrated devices and novel architectures, opening pathways for next-generation wearable electronics and bio-integrated systems.

Presents a hierarchical overview of system-on-fiber (SoF) technologies, linking materials, fabrication methods, and device architectures from single-fiber electronics to system-level intelligent textiles.

Establishes a quantitative process–performance correlation framework, integrating AI-driven material optimization and comparative metrics (e.g., yield, endurance, and conductivity retention) across coating, thermal drawing, deposition, and spinning techniques.

Proposes a standardization and industrial translation roadmap outlining key steps testing certification, scalable manufacturing, and modular integration to move SoF systems from laboratory prototypes to consumer-ready smart textiles.

Reveals the quantum origin of solid liquid friction, governed by electron transfer, electron excitation, and electron-phonon coupling at interfaces.

Summarizes emerging characterization techniques and multiscale simulations that uncover quantum scale friction mechanisms beyond classical tribology.

Demonstrates the potential transformative applications of quantum scale interfacial friction in nano fluidics, energy harvesting, smart biomedical systems, and super lubrication.

A selectively regulating strategy for chemical environments of Mn ion activity donorsin LaMnO₃ perovskite can bidirectionally enhance vanadium reaction kinetics.

The key reactive sites and control steps of perovskite on vanadium redox reactions areestablished based on electrochemical tests and theoretical calculation.

Sr and Ce doped LaMnO₃ as anode and cathode catalysts of the vanadium redox flowbattery (VRFB) , respectively, synergistically improves the VRFB’s energy storageperformance.

Transport fingerprints of aqueous electrolytes are captured to be mediated by environment-reconstructed ion correlation networks.

Taking the Nernst–Einstein deviations as descriptors, electrolyte transport presents threefold-hierarchical variations due to salt concentration, thermal effect, and nanoconfined interface.

This threefold-hierarchical framework is transferable among diverse electrolytes, offering a localized insight for electrolyte evaluation in electrochemical energy devices.

Inorganic high-performance fibers (IHPFs)-based composites development and electromagnetic interference (EMI) shielding mechanisms are reviewed.

Surface modification strategies for IHPF’s surface inertness challenge and EMI shielding layer construction are summarized.

Future directions and current challenges for achieving large-scale, durable, and environmentally stable IHPF-based EMI shielding materials are outlined.

The fading mechanisms of different kinds of state-of-the-art aqueous battery cathodes including manganese/vanadium-based material, chalcogen and halogen materials, Prussian blue analogues, as well as Ni(OH)₂ cathodes were summarized.

Recent progresses on electrolyte engineering on the stability of cathode materials such as bulk electrolyte modification, electrolyte additives, water-in-salt electrolytes, and hydrogel electrolytes were systematically reviewed.

The issues that should be concerned in future electrolyte design for highly state aqueous battery cathodes were proposed.

Monodisperse and substitute Co were doped into edge-sharing [IrO₆] octahedra of Ca₂IrO₄ model catalyst, which usually present the intrinsic and strong stability for acid oxygen evolution reaction (OER)

The optimized Janus Co–Ir local structure triggers spin balance effect with optimal e_g¹ orbital and uneven t_2g orbital despite the large crystal field of Ir, which co-promote the OER activity with a relatively stable crystal structure.

Different from the slowly kinetics of adsorbates evolution mechanism on Ca₂IrO₄, superoxide path mechanism occurs on Co doped Ca₂IrO₄ based on the assignment of *OO on dual active sites of Ir and Co.