Electrospinning Machine Resources

Large-Scale Nanofiber Manufacturing| Selective Emission Fabric for Indoor and OutdoorPassive Radiative Cooling in Personal ThermalManagement 2025-05-21

Prof. Han Guangping, Cheng Wanli, Huan Siqi, Wang Dong et al. at Northeast Forestry University developed a full-scale structural textile with selective emissivity via electrospinning for concurrent indoor-outdoor passive radiative cooling.

Large-Scale Nanofiber Manufacturing| In-situ bonding enables robust fluorinatedpoly(imide-siloxane)based triboelectricnanogenerator for firefighter motion andlocation monitoring 2025-05-21

Prof. Liu Yong and Prof. Liu Yanbo at Tiangong University successfully synthesized fluorinated polyimide-siloxane (FPIS) and fabricated core-shell structured yarns via electrospinning, with FPIS as the sheath fiber and stainless steel as the core fiber.

Large-Scale Nanofiber Manufacturing| Stretchable ThermoplasticPolyurethane/Boron Nitride NanosheetFabrics with Highly Anisotropic ThermalConductivityforMulti-scenario PassiveRadiative Cooling 2025-05-21

Prof. Liu Chuntai's team at Zhengzhou University prepared highly anisotropic thermally conductive thermoplastic polyurethane/boron nitride nanosheet (TPU/BNNS) textiles via one-step electrospinning, introducing conductive cooling mechanisms into passive radiative cooling textiles.

Large-Scale Nanofiber Manufacturing| Constructing Stable Bifunctional Electrocatalyst ofCo-CozNbsO14 with Reversible Interface Reconstitution Abilityfor Sustainable Zn-Air Batteries 2025-05-21

Prof. Yan Jianhua’s team prepared flexible Co─Co₂Nb₅O₁₄₋ₓ@PCNF films via sol-gel electrospinning, followed by pre-oxidation and carbonization in H₂/Ar atmosphere, developing a Co─Co₂Nb₅O₁₄ bifunctional electrocatalyst.

Large-Scale Nanofiber Manufacturing| A facile neoteric technique to achieve[SrF,:Eu3+@Si0,1//[SrF,:Tb3+@sio,] Janus yolk-shell nanofibers with ideal white-light emission viatriple-inhibiting energy transfer between Tb3+ andEu3+ ionst 2025-05-20

With the rapid development of white-light emitting diodes (LEDs), white-light LED materials play important roles in lighting, displays, and optoelectronic devices. However, strong luminescent materials co-doped with Eu³⁺ and Tb³⁺ hardly achieve white-light emission due to energy transfer (ET) between them. By inhibiting ET from Tb³⁺ to Eu³⁺ while enhancing Tb³⁺'s green emission, white light can be easily obtained.

Large-Scale Nanofiber Manufacturing| Addressing the interface issues of all-solid-state lithiumbatteries by ultra-thin composite solid-state electrolytecombined with the integrated preparation technology 2025-05-20

With increasing demands for safety, energy density, and charging capability in future energy storage technologies, interface engineering in solid-state lithium batteries (SSLBs) is receiving growing attention. However, polymer/ceramic interface compatibility, severe agglomeration of ceramic particles, and discontinuous ionic conduction at electrode/electrolyte interfaces severely limit Li+ transport in SSLBs, hindering their application and large-scale manufacturing.

High-Throughput Electrospinning System| Carbon Quantum Dot Functionalized Nanofiber-BasedTriboelectric Nanogenerator With Boosted Output andFluorescence Function 2025-05-20

In recent years, triboelectric nanogenerators (TENGs) based on the coupling of triboelectrification and electrostatic induction effects have provided a new energy supply solution by harvesting low-frequency mechanical energy from the environment. Researchers have explored various material strategies to improve the output performance of nanofiber-based TENGs or expand their functional applications. Recently, the luminescent properties of triboelectric materials have offered a simple means of information transmission and show promise for integration with TENGs, opening new avenues for interactive signal visualization in wearable electronics.

Large-Scale Nanofiber Manufacturing| Dimethyl Sulfoxide and Sodium Chloride Modulate theCrystal Structure in PMlA to Enhance Dyeing Performance:Moecular Dynamics Simulation and Experimentanvestigations 2025-05-20

Meta-aramid fiber (PMIA), with its excellent high-temperature resistance, chemical stability and mechanical properties, is widely used in aerospace, protective clothing and other fields. However, its high crystallinity and tight molecular structure result in poor dyeing performance. This study employs the synergistic effect of DMSO and NaCl, combining experiments with molecular dynamics simulations to reveal the regulatory mechanism of the DMSO/NaCl system on PMIA fiber structure, providing a green and efficient solution for dyeing technology of high-performance fibers.

Large-Scale Nanofiber Manufacturing| Ephaptic Coupling in Ultralow-Power lon-Gel NanofberArtifcial Synapses for Enhanced Working Memory 2025-05-20

In recent years, the efficient information processing characteristics of biological neural networks have inspired research in brain-like computing, and the realization of neuromorphic computing systems similar to biological systems has become a research hotspot. The information transmission in biological nervous systems essentially relies on ion movement. The field potential generated by ion transmembrane transport in neurons can not only efficiently transmit information (with energy consumption of only about 10 fJ per synaptic event) but also achieve globally coordinated functions without direct connections through the ephaptic coupling effect, which is crucial for memory formation and cognition. However, existing neuromorphic devices mostly focus on simulating biological synapses at the functional level while paying insufficient attention to ion transport mechanisms, making it challenging for these devices to achieve the complexity and connectivity of biological systems

Large-Scale Nanofiber Manufacturing| Engineering Ru and Ni sites relay catalysis and strong metal-supportinteraction for synergetic enhanced electrocatalytic hydrogenevolution performance 2025-05-19

Hydrogen energy, as a clean energy source, holds significant importance for achieving carbon neutrality and promoting low-carbon transitions. Electrocatalytic water splitting is considered the most promising low-carbon and environmentally friendly hydrogen production technology. This technology relies on electricity to drive the hydrogen evolution reaction (HER) at the cathode and the oxygen evolution reaction (OER) at the anode. The efficiency of HER directly affects the overall energy conversion efficiency of water electrolysis. Therefore, the rational design of alkaline HER electrocatalysts with excellent catalytic activity and stability is crucial for improving overall water-splitting efficiency, facilitating the industrial-scale application of large-scale green hydrogen production.

High-Throughput Electrospinning System| Micro-nano fibers with core-shell forenhancing flame retardancy and high.temperature resistance of biodegradabletriboelectric materials 2025-05-19

With the advent of the intelligent era, advanced technologies such as the Internet of Things, big data, and artificial intelligence have driven the rapid development of portable wearable devices. However, these devices require power sources and are prone to failure or damage in high-temperature and fire environments. Although triboelectric nanogenerators (TENGs), based on the coupling effect of contact electrification and electrostatic induction, offer a new solution, charge dissipation caused by thermionic emission under high temperatures and material destruction by flames severely limit TENG applications. Thus, ensuring stable performance and effective use of TENGs in extreme environments remains a critical challenge.

Large-Scale Nanofiber Manufacturing| Synergistic Functions of the Janus Fibrous Membrane for Enhanced BoneRepair 2025-05-16

The treatment of bone defects, a common challenge in clinical practice, is currently a research hotspot. In recent years, artificial scaffold materials have seen increasing applications in clinical bone repair. However, issues such as poor biocompatibility, insufficient mechanical properties, lack of antibacterial performance, and inadequate osteogenic effects have hindered the widespread use of artificial scaffold materials.

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