#nanostructure

🌌✨ Exploring the programmed placebo effect in syncope patients, this study bridges 🧬 nanostructural changes with 🩺 clinical observations and a bold 🌐 quantum-level interpretation. It unveils how mind, matter, and medicine might interlink, offering fresh perspectives on placebo power and futuristic healing frontiers ⚡🧠💡.

World Top Scientists Awards

Visit Our Website 🌐: worldtopscientists.com

Nominate Now📝: https://worldtopscientists.com/award-nomination/?ecategory=Awards&rcategory=Awardee

Where Can Electrospinning Nanofibers Be Used?

 #electrospinning #nanofibers #adsorption #catalysis #nanostructure #fiber #material #polymer #micronanosize #surface #composite #military #ceramic #twodimensional #nanofiber #membrane #threedimensional #aerogel #onedimensional #functional #textile #nanomaterials #devices #electrospun #biological #medicine #sensing #detection #new #energy

 1. Adsorption and Catalysis

The high specific surface area of electrospinning nanofibers endows the material with more active sites, which is of great significance for improving the adsorption property of the material. In the field of catalysis, catalyst particles with nano-structure are easy to aggregate, thus affecting their dispersion and utilization. The electrospinning fiber material can be used as a template to play the role of uniform dispersion, but also can give play to the flexibility and maneuverability of the polymer carrier, can also use the catalytic material and polymer micro-nano-size surface composite to produce a strong synergistic effect, improve the catalytic efficiency.

 l Catalytic Treatment of Organic Waste Gas

l Catalytic Treatment of Organic Wastewater

l Odor Gas Adsorption

l Ionic Salt Adsorption

l Protein Adsorption

 2. Military Material

Electrospinning ceramic nanofibers have the advantages of low thermal conductivity, light weight, soft, high temperature resistance, corrosion resistance and easy reprocessing. The two-dimensional nanofiber membrane and three-dimensional nanofiber aerogel composed of one-dimensional ceramic nanofibers have ultra-high porosity and adjustable multistage mesh structure, which can greatly improve the thermal insulation performance of materials. The coordinated optimization of thermal insulation and mechanical properties of materials can be realized by adjusting the structure of nanofibers and aggregates.

 l Human Body Information Extraction

l Lightweight Warm Clothing For Training

l Missile Insulation

l Absorbing Stealth

l Wartime Wounds Heal Quickly

l Waterproof And Moisture Permeable Training Clothing

 3. Functional Textile

As one-dimensional nanomaterials, nanofibers exhibit many novel properties in light, heat, electricity and magnetism, such as thermoelectric effect, sensitivity effect, piezoelectric effect and linear polarization effect. It is an important trend to design the next generation of nanostructured devices based on the functional properties of these effects.

 l Outdoor sports clothing fabric: waterproof and moisture-proof, anti-radiation, sweat excrete moisture, hydrophobic and self-cleaning

l Underwear: anti-bacterial, anti-odor, lightweight and warm

l Fire-fighting Anti-chemical Clothers: protect the body from fire, dangerous chemicals or corrosive substances

l Fire clothing: fire retardant, heat insulation cooling function

 4. Biological Medicine

In biomedicine, nanofibers are smaller in diameter than cells and can mimic the structure and biological functions of natural extracellular matrices. Most human tissues and organs are similar in form and structure to nanofibers. The nanofibers could be used to repair tissues and organs. Some electrospinning materials have good biocompatibility and degradability, which can be used as carriers to enter the human body and be easily absorbed. In addition, electrospun nanofibers have excellent characteristics such as large specific surface area and porosity. Therefore, they have attracted continuous attention from researchers in the biomedical field, and have been well applied in drug sustained release, wound repair and biological tissue engineering.

 l Blood filtration membrane

l Cell culture and tissue regeneration

l Nucleic acid detection

l Drug separation and extraction

l Medical testing and diagnosis

l Medical dressings

 5. Sensing and detection applications

Electrospinning nanofiber membrane has a three-dimensional structure, which is conducive to the rapid diffusion of the target detector in the fiber membrane. At the same time, the nanofibers have a large specific surface area, which is easy to be functionalized and modified, and can provide rich active sites for the adsorption and reaction of the target detector, thus greatly improving the sensitivity, corresponding rate and detection limit of the sensor. It is an ideal nano-material for the preparation of high-performance sensor elements.

 l Detection of pesticide residues

l Trace contamination detection

l Detection of inflammable and explosive gases

l Microbiological detection

l Biological microinformation detection

l VOC gas detection

 6. New Energy

As a simple and efficient method to prepare nanofibers, electrospinning has attracted much attention from researchers. By adjusting the types and molecular weight of polymer, composition of solvent, the type of dopant and spinning parameters such as the diameter of the nanofibers, pore structure and regulation of the accumulation of fiber aggregation state, make its have excellent electrochemical performance, widely used in proton exchange membrane fuel cells, lithium-ion battery diaphragm, super capacitor electrode materials, dye sensitized solar cell electrode material and nano generator.

 l Fuel Cell Proton Exchange Membrane

l Lithium Battery Diaphragm

l Flexible Solar Cell

l Lithium Battery Electrode Material

Revealing the nanostructure of wood could help raise height limits for wooden skyscrapers

[ad_1]

There is increasing interest around the world in using timber as a lighter, more sustainable construction alternative to steel and concrete. While wood has been used in buildings for millennia, its mechanical properties have not, as yet, measured up to all modern building standards for major superstructures. This is due partly to a limited understanding of the precise structure of wood…

Une nanostructure pour mieux diagnostic le cancer

Un test rapide et facile pour détecter le cancer à partir du sang ou des tissus de biopsie pourrait éventuellement aboutir à une nouvelle approche de diagnostic du cancer.

Une nanostructure commune à tous les cancers

Ce test a été mis au point par des chercheurs de l’Université du Queensland, Abu Sina, Laura Carrascosa et Matt Trau, qui ont découvert une nanostructure unique de l’ADN qui semble…

Nature's unique way of controlling colour explains why birds never go grey

Birds use sophisticated changes to the structure of their feathers to create multi-coloured plumage, using a process that could pave the way for the creation of paints and clothing colours that won't fade over time.

Using X-ray scattering at the ESRF facility in France to examine the blue and white feathers of the Jay, researchers from the University of Sheffield found that birds demonstrate a surprising level of control and sophistication in producing colours.

Instead of simply using dyes and pigments that would fade over time, the birds use well-controlled changes to the nanostructure to create their vividly coloured feathers -- which are possibly used for Jays to recognise one another. The Jay is able to pattern these different colours along an individual feather barb -- the equivalent of having many different colours along a single human hair.

Andrew J. Parnell, Adam L. Washington, Oleksandr O. Mykhaylyk, Christopher J. Hill, Antonino Bianco, Stephanie L. Burg, Andrew J. C. Dennison, Mary Snape, Ashley J. Cadby, Andrew Smith, Sylvain Prevost, David M. Whittaker, Richard A. L. Jones, J. Patrick. A. Fairclough, Andrew R. Parker. Spatially modulated structural colour in bird feathers. Scientific Reports, 2015; 5: 18317 DOI: 10.1038/srep18317