The Critical Role of Materials Science
The speed of acceleration in nanotechnology innovation is unprecedented. Whether nanotubes, rods, particles, or fibers (commonly called nanomaterials) we understand the properties required for the manufacture of materials at nanoscale and are present in a wide variety of solutions across applications in pharmaceuticals, electronics, and coatings.
We are seeing our materials used in novel applications such as magnetic nanoparticles, composite particles, polymeric particles, and self-assembly.




Demand Meets Capability
Materials scientists and engineers here at Goodfellow routinely assist research and industry with expert materials selection to fabrication services for cutting-edge nanomaterials applications, in addition to the supply of 170,000 advanced materials available to order.
We understand your need to characterize materials at nanoscales. Use of advanced lithography and etching methods, such as electron beam lithography, ion beam etching, nano patterning, and stereolithography - Planar Technology enables the production of highly integrated and resilient semiconductor chips or precise positioning of nanostructures onto macroscopic substrates like silicon wafers.
Nanomaterials have much to contribute towards components enabling wind and hydro-based power generation.
Our Product Range
At Goodfellow, we offer a comprehensive range of high-purity materials relevant to your applications, including:
- Graphene powder
- Carbon nanotubes powder
- Boron Nitride nanotubes powder
- Gold nanoparticles powder
- Alumina nanoparticles powder
- Titanium Carbide nanoparticles powder
- Silicon Nitride nanoparticles powder


Nanomaterial Applications
Our nanomaterials have been used in a variety of applications, cutting edge technologies and research projects by prestigious industry stakeholders and top-rated universities and institutions.


Carbon Nanomaterials
These materials, such as nanotubes and graphene, possess exceptional mechanical, thermal, and electrical properties, making them highly versatile for various applications in energy storage devices, such as batteries and supercapacitors, as well as in composite materials for aerospace and biomedical engineering. Their unique properties also hold potential for applications in fields like electronics, catalysis, and sensing technologies.


Aluminum Oxide Nanomaterials
These materials exhibit excellent thermal and chemical stability, high hardness, and optical transparency, making them suitable for a range of applications, such as the development of advanced ceramics, coatings, and catalysts, as well as in biomedical devices and sensors. Additionally, alumina nanomaterials have potential uses in energy storage, optoelectronics, and water purification systems.


Silicon Carbide Nanomaterials
These nanomaterials possess exceptional mechanical strength, high thermal conductivity, and resistance to corrosion and radiation damage, making them attractive for use in harsh environments. They are being explored for applications in the aerospace and automotive industries, as well as in the development of advanced composites, ceramics, and semiconductor devices. Additionally, silicon carbide nanomaterials have potential uses in biomedical implants, energy storage systems, and high-power electronics due to their unique combination of properties.
Elsewhere, nanoparticles such as titanium dioxide, aluminum oxide, nano silica, and carbon nanofibres are being used in construction.
Due to their unique mechanical, optical, thermal, electronic, and catalytic properties, nanomaterials are increasingly applied across various industries.
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