Electrospinning Machine Resources

Large-Scale Nanofiber Manufacturing| An intelligent nanofiber membrane withdual-asymmetric wettability enablingSpontaneous directional water and oiltransportation in opposite direction 2025-05-16

With continuous socioeconomic development, oil-water separation has become essential in many fields, demanding processes with low energy consumption, high efficiency, and high speed. In recent years, fiber membrane materials with special wettability (e.g., superhydrophobic or superoleophilic) have attracted widespread scientific attention and found broad applications.Directional liquid transport textile materials (also called "unidirectional liquid transport", referring to spontaneous unidirectional liquid transport through membrane thickness) represent emerging smart materials with excellent prospects in oil/water collection and directional fluid transport. However, existing unidirectional materials only transport specific liquids unidirectionally (either water or oil), limiting their use in complex mixtures like emulsions. A material capable of simultaneously transporting water and oil in opposite directions ("bidirectional liquid transport") would enable two-way separation for more

Large-Scale Nanofiber Manufacturing| Innovations Progress in Emerging Multifunctional Aramid Nanofiber Aerogels 2025-05-16

Aerogels have attracted widespread attention from academia and industry due to their low density, high porosity, and large specific surface area. As ideal nanobuilding blocks for aerogels, aramid nanofibers (ANFs) have generated great research interest for frontier applications. Prof. Zhang Meiyun and Assoc. Prof. Yang Bin's team at Shaanxi University of Science & Technology were invited by ACS Applied Materials & Interfaces to contribute a comprehensive review on the preparation, properties, applications, challenges, and prospects of ANF aerogels with different dimensions in the "Functional Aerogels" column.

Large-Scale Nanofiber Manufacturing| Radially unfolded nanosheets inpolyacrylonitrile nanofibers: A biomimeticsconstruct of high-performance anode forlithium-ion batteries 2025-05-16

Lithium-ion batteries (LIBs), with advantages such as high output voltage, long cycle life, safety, and pollution-free operation, remain core devices in the development of future energy storage technologies as the current mainstream electrochemical energy storage products in the market. As one of the key components of LIBs, commercial graphite anodes have reached their theoretical limits and can hardly meet the growing demands of our era. Additionally, traditional energy storage devices generally possess mechanical rigidity and cannot meet the societal need for wearable flexible products. Therefore, the development and utilization of lightweight carbon-based fiber electrode materials represent a highly promising research field.

Large-Scale Nanofiber Manufacturing| Hydrophilic-hydrophobic structure ofANF/MFC separator for high-stable dendritefree aqueous zinc-ion batteries 2025-05-16

Aqueous zinc-ion batteries (AZIBs) are considered one of the most promising next-generation battery energy storage systems. Their high theoretical capacity (820 mAh g-1) and low redox potential (-0.762 V vs SHE) have attracted significant research attention. Additionally, AZIBs' aqueous electrolytes offer advantages like non-toxicity and high safety. However, AZIBs still face application challenges including uncontrolled zinc dendrites, side reactions, hydrogen evolution reaction (HER), and passivation. Deterioration of Zn anodes leads to reduced Coulombic efficiency and short circuits, severely hindering AZIB development.

Large-Scale Nanofiber Manufacturing| A Safe, Stable, Simple, Serviceable, and Self-Powered WoundDressing With continuous Low-Voltage Direct CurrentElectrical Stimulation: an Efficient Approach to AccelerateWound Healing 2025-05-15

In this era of rapid technological advancement, scientific achievements continue to bring surprises and changes to our lives. Recently, a research breakthrough in wound dressings has attracted widespread attention, bringing new hope to the field of chronic wound care. Today, let's take an in-depth look at this remarkable invention - a safe, stable, simple, durable, and self-powered wound dressing.

Large-Scale Nanofiber Manufacturing| Al-Fiber Volatile Organics-PerceptiveActuators 2025-05-15

Prof. Xiong Jiaqing and Prof. Zhou Xinran from Donghua University employed blend electrospinning to synthesize a carbon chloride-based solvatochromic spiropyran as a solvatochromic material for polyvinylidene fluoride, constructing a solvatochromic piezoelectric layer. Continuous electrospinning of polyethylene oxide nanofiber inverse layers yielded an asymmetric deformation-responsive solvatochromic piezoelectric bilayer nanofiber actuator for VOCs.

Large-Scale Nanofiber Manufacturing| Cryopolymerization-Enabled Superelastic andThermomechanically Robust Silica-Sheathing NanofibrousAerogels for Solar-Thermal Regulatory Cooling 2025-05-15

Prof. Liu Tianxi from Jiangnan University and Prof. Zhang Chao from Donghua University proposed a simple and scalable low-temperature polymerization strategy to prepare superelastic and thermomechanically robust silica-sheathed nanofiber aerogels.

Large-Scale Nanofiber Manufacturing| Photo-Responsive HzS Composite System Regulates the NerveRegeneration Microenvironment Through Multiple Pathways 2025-05-15

Prof. Dai Honglian from Wuhan University of Technology and Prof. Yu Aixi from Wuhan University developed a photo-responsive hydrogen sulfide (H2S) composite nerve conduit for artificial control of H2S release.

Large-Scale Nanofiber Manufacturing| Fast and Massive Production of Aramid Nanofbers via Moleculentercalation 2025-05-15

Academician Yu Shuhong and Professor Guan Qingfang from the University of Science and Technology of China (USTC) utilized the unique efficient exfoliation of polymer nanocrystals to reduce the preparation time of para-aramid nanofibers by 2520 times (from 1 week to 4 minutes), while simultaneously increasing their concentration by 10-fold. Through this molecular intercalation-induced method, novel ribbon-like aramid nanofibers were successfully prepared.

Large-Scale Nanofiber Manufacturing| Self-powered superhydrophobic/oleophobicFR-PVDF/PA6 nanofiber membrane for longterm efficient filtration and respiratorymonitoring 2025-05-15

The acceleration of industrialization and worsening atmospheric pollution severely endanger public safety, becoming a globally critical concern. Suspended particulate matter (PM) with small particle sizes in the atmosphere is a major culprit of air pollution, significantly impacting air quality and human health. Highly permeable airborne particles (PM ≤ 0.3 μm) can carry toxic substances and deadly viruses, entering human bronchi and alveoli through respiration, causing lung damage. Thus, developing effective PM filters is imperative, especially smart air filters with self-powering or sensing capabilities, which will be a future research focus.

Large-Scale Nanofiber Manufacturing| Cellular Spatial sensing Determines Cell MechanotransductionActivity on the Aligned Nanofibers 2025-05-14

Fiber-based tissue engineering has become crucial for designing scaffolds that closely mimic the extracellular matrix (ECM). The ECM consists of complex fiber networks with varying alignment patterns. Electrospun nanofibers are widely used as scaffold materials in tissue engineering, but how cells respond to differently aligned fibers remains controversial. Some studies suggest aligned fibers promote osteogenic differentiation, while others show random alignment works better. This contradiction stems from insufficient understanding of how cells perceive fiber spatial characteristics.From a mechanobiological perspective, regardless of external conditions, cell behavior is primarily governed by intracellular traction forces. These forces are generated through actin stress fibers and transmitted to the ECM via focal adhesions, then converting mechanical signals into nuclear responses that influence chromatin structure and gene expression. This mechanical feedback loop regulates cell morph

Large-Scale Nanofiber Manufacturing| Top-Level Electromagnetic Design of Multishell ResonantCavity for Microspherical Microwave Structural Absorbers 2025-05-14

With the rapid development of modern electronics and communication technologies, the importance of microwave absorption materials for broadband absorption and lightweight requirements has become increasingly prominent. To address the evolving detection systems and expanding communication frequency bands, researchers have developed various microwave absorption materials aimed at achieving broadband absorption and lightweight goals. Current research on existing microwave absorption materials primarily focuses on micro/nano morphology regulation and lossy medium composition. Although micro/nano absorbers exhibit excellent absorption performance, optimizing nano-absorbers still faces significant challenges in practical applications.

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