By OCSiAl Group
Dry electrode manufacture requires conductivity and mechanical strength without liquid dispersion. TUBALL™ forms a 3D conductive network, delivering uniform conductivity, crack resistance, and high-density solvent-free electrodes. - Achieves structural conductivity - Improves cohesion and crack resistance
Increased durability, mechanical property stability, retained elasticity, and electrical conductivity are enabled by graphene nanotubes in rubber car parts. This set of properties is crucially important for car seals, O-rings, hoses, ignition wire cores, and cable connectors.
CATEGORY
TUBALL™ High purity graphene nanotubes Application s Energy Storage, Paints & Coatings, Resins & Composites, Elastomers TUBALL™ nanotubes are synthesized in powder form in various grades with nanotube content from 80% to 99.5%.
CATEGORY
TUBALL™ graphene nanotubes (SWCNT) are a conductive filler with the best price-per-property performance in comparison with standard ESD additives, such as conductive carbon black, mica, carbon fibers and conductive polymers. Its ultra-low effective loading (starting from only 0.1% in the form of concentrate in the overall compound) is enough to create a uniform conductive and reinforcing network without a negative impact on the other key properties of a thermoset resin.
CATEGORY
TUBALL™ is the first graphene nanotubes to be available for the commercial application of this novel material in a wide range of industries. Graphene nanotubes can be described as a one-atom-thick graphene sheet shaped as a tube more than 5 µm long. This material is also commonly called single wall carbon nanotubes. TUBALL™ has potential applications across up to 50% of global materials markets. When embedded into a material’s matrix, well-dispersed TUBALL™ graphene nanotubes create a 3D reinforced and conductive network that provides a new set of properties and has minimal impact on the other key properties of final product. Graphene nanotubes are carbon nanomaterials with breakthrough properties that can significantly enhance the physical properties of other materials. atom wall thickness gram of TUBALL™ nanotubes contains enough to stretch from the earth to the sun & back times more thermal conductivity compared with diamond nm range of outer diameters pcs amount in 1 gram µm length approximately m 2 surface area of 1 gram G/D ratio with nominal value 90 5 µm 1 µm 500 nm High-quality nanotubes (G/D ratio 90) Maintains color, elasticity, durability and other key properties Gains traction starting from ultra-low concentrations Enhances mechanical properties of materials Adds uniform, permanent and stable electrical conductivity Versatile for an extremely wide range of applications Graphene nanotubes 0.01% Unlike conventional conductive fillers such as multi wall carbon nanotubes (MWCNTs), carbon fibers, mica and most types of carbon black, TUBALL™ provides significant improvements in material properties starting from the addition of just 0.01% by total weight. 0.5-5% MWCNTs 1-6% multilayer graphene 3-12% carbon fibers 15-35% metal fillers 20-40% carbon black Glass Rubber materials Electrochremical power sources Composites Concrete Copper Ceramics Sensors semiconductors Paints Adhesives Aluminium Plastics Graphene nanotubes give advantages unachievable with other additives and make it possible to create revolutionary products and materials. TUBALL™ nanotubes have the potential to transform other materials in unprecedented ways and provide significant benefits across a broad range of end uses. For some specific applications, ultrapure TUBALL™ could be recommended. Graphene nanotubes allow us to create materials which were previously impossible and products that will change many industry standards and the look of the present-day world. This new generation of materials is called nanoaugmented materials. As one example, graphene nanotubes accelerate next-generation e-mobility upgrades. Nanotubes give the possibility of a lighter car body, leading to a decrease in the dead load of the vehicle; an altered tread and sidewall composition of tires that can reduce rolling resistance; nanotube-reinforced plastic car components that can replace metal parts; and next-generation EV batteries with graphene nanotubes leveraging the achievement of higher energy density, faster charging, a longer lifetime, improved safety, and lower. These improvements open the door for a reduction of up to 25% in car weight and up to 30% improvement of its energy efficiency.
CATEGORY
