TIME IS OUT OF THE ESSENCE
TIME IS OUT OF THE ESSENCE
AviXéla scientists and engineers have recognized experience in industrial product development, including design optimization, analysis and integration, building and testing, high-end simulations, prototyping, mechanical and electrical design, and manufacturing services. We partner with industry experts, providing automatic and semi-automatic stations, standalone stations, and palletized assembly systems design. Our cutting-edge manufacturing approach allows our customers to explore the inherent advantages of incorporating nanomaterials into their products, which require different properties and functionalities for industrial integration or applications.
Specifically, the ultra-small size and large surface area of inorganic nanoparticles bring enhanced reactivity and exceptional properties, even when used at low concentrations that can be leveraged across a range of products, including functional coatings, catalysts, additives, conductive inks, therapeutic agents, and drug delivery systems. It’s critical to understand that the small change in nanomaterial size, composition, functionalization, or surface chemistry can significantly modulate the desired performance attributes and successful nanomaterial integration into the client specific application. AviXéla aims to collaborate with a client development team to timely provide the optimized candidate materials based on a specified product application to establish proof of concept and to rapidly enable a path towards nanomaterial manufacturing process and scalability for commercialization.
The selected area diffraction pattern of .9999 gold nanoparticles obtained in sodium citrate HPLC grade aqueous solution manufactured by plasma excitation.
TEM image showing spherical morphology and physical diameter of AuNPs less than 2 nm obtained in sodium citrate HPLC grade aqueous solution produced by plasma excitation method. Note that the AuNPs sizes are fairly uniform. A magnified view clearly revealing the conserved AuNPs size distribution. The length of the scale bar corresponds to 50 nm.
TEM image showing monodispersed morphology and physical diameter of AuNPs obtained in tannic acid HPLC grade aqueous solution by plasma excitation method. Note that the AuNPs sizes are fairly uniform. A magnified view revealing the conserved size distribution. Image analysis indicate the particle diameter to be 5.00±2.7 nm.
Transmission electron microscopy data analysis showing the range of physical diameter of AuNPs including less than 2 nm obtained in sodium citrate HPLC grade aqueous solution produced by plasma excitation method.
Energy-dispersive X-ray spectroscopy (EDS) spectrum of combined gold colloidal suspension obtained in sodium citrate HPLC grade aqueous solution by plasma excitation method.
UV-VIS spectroscopy of gold and copper colloidal suspension obtained without stabilization in DI water. Image showing spherical morphology according to the Mie theory and physical diameter of AuNPs and CuNPs, including less than 2 nm at the wavelength 200 nm and agglutination caused by stable-free system.
Inorganic nanocolloids have unique and beneficial properties that can be leveraged across a range of product types, including spontaneous functional coatings, catalysts, additives, conductive inks, antimicrobial, and antitumorogenic. Specifically, the size of inorganic nanomaterials ranges from 5 to 100 nm that are similar to cellular components and microorganisms can be employed as innovative tools in biomedical therapy, diagnostics, and drug delivery. Most inorganic NMs display customizable morphology, high biocompatibility, reliable functionalization, and prolonged circulation in the bloodstream. NMs less than 5 nm size can cross blood brain barrier and cross intracellular membranes. Among lipids, self-assembled proteins, and biopolymers, properly functionalized inorganic particles represent the most promising material in the innovative vaccines development.
This is our primary list of the different properties and functionalities of inorganic nanomaterials that can be customized accordingly our clients goals.
GOLD
Gold nanocolloids demonstrate surface-enhanced Raman scattering; uniform shape, size, and branch length; tuned pharmacokinetics and biodistribution; antibacterial and antifungal activity; and chemical stability useful for immunodiagnostics, biosensors, sensing, optical effects, and drug delivery.
PALLADIUM
Palladium nanocolloids express surface-enhanced Raman scattering; uniform shape, size, and branch length; extraordinary catalytic, powerful mechanical and electroanalytical properties; anti-bacterial and anti-oxidant pharmacological activity.
PLATINUM
Platinum nanocolloids express surface-enhanced Raman scattering; uniform shape, size, and branch length; tuned pharmacokinetics and biodistribution; antibacterial and antifungal activity, and chemical stability useful for catalysis and molecular diagnostics.
COPPER
Copper nanocolloids absorb and reflect UV light, possess a wide range of accessible oxidation states, and express antibacterial, antifungal activity, and chemical stability useful for catalytical reactions.
NICKEL
Nickel nanocolloids absorb and reflect UV light, possess a wide range of accessible oxidation states, employed in conductive electrolytic layer of proton exchange membrane fuel cells; useful for automotive catalytic converters, coatings, magnetic fluid and catalyst, propellant and sintering additive; antibacterial and antifungal activity.
SILVER
Silver nanocolloids demonstrate surface-enhanced Raman scattering; uniform shape, size, and branch length; tuned pharmacokinetics and biodistribution; antibacterial and antifungal activity; and chemical stability, useful for conductive composites, biosensors, sensing, photovoltaics, and other..
ALUMINIUM
Aluminium nanocolloids absorb and reflect UV light;
primarily used as an abrasive and thickening agent, but also functions as an anti-caking agent and absorbent.
TITANIUM
Titanium nanocolloids absorb and reflect UV light;
hydrophilic, biocompatible, safe, and stable.
ZINC
Zinc nanocolloids absorb and reflect UV light; hydrophilic, biocompatible, safe, and stable.
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