GRAPHENE

What is graphene

Graphene is an allotrope of carbon consisting of a single layer of carbon atoms arranged in a hexagonal lattice. It is the basic structural element of other allotropes of carbon, such as graphite and diamond. 

Graphene is an “Advanced material” which at the industrial scale can greatly enhance functionalization from the largest structure to nanoscale electronics. 

Graphene incorporation enables stronger, lighter smaller & faster versions of predecessors.

Graphene Provides

Increase In:

  • Inter-facial Shear Strength, thereby reducing shear (sliding) under tension and buckling under compression
  • Inter-laminar Shear Strength, allowing for increased surface roughness and wetting ability
  • Fracture Toughness
  • Stiffness

Decrease In:

  • Crack Propagation
  • Flexibility

Major Benefits Enabling

  • Advanced Functionality
  • High Performance
  • Unique Surface Functionalization
  • Cost Reductions
  • Simplified Dispersion
  • Freedom to Design Advanced Applications

Reactor Chamber – perpetuus advanced materials

vein graphite

Vein Graphite (Crystalline graphite)

  • Lump graphite (or vein graphite), considered to be one of the rarest, most carbon-rich, and commercially valuable graphite types, occurs in fissure veins or fractures. As massive platy intergrowths of fibrous or acicular crystals, the graphite is understood to be hydrothermal in origin

Crystalline, Flake

  • Can occur when Carbon settles within a sedimentary horizon
  • Derived by metamorphism as carbon precipitates while hydrogen and oxygen are driven off under high pressures and temperature
  • Carbon atoms form as sheets or layers resulting in flakes of graphite 

Amorphous Graphite

  • Amorphous graphite: very fine, non-crystalline, structureless graphite, sometimes called amorphous

Highly Ordered Pyrolytic Graphite

  • Highly ordered pyrolytic graphite refers to graphite that has undergone annealing (recrystallized under heat and pressure) with an angular spread between the graphite sheets of less than 1 

Lump Graphite Properties (Gratomic’s Aukam Type)

  • Excellent thermal and electrical conductivity
  • Perfect Crystallinity
  • Chemically inert
  • Easy to disperse, mold and blend
  • Resistant to oxidation and high temperatures
  • Outstanding lubricating properties
  • High density
  • Environmentally friendly
GRATOMIC is a leader in the mining and commercialization of graphite products – specifically the valuable graphene-based nano material that is used for a wide range of mass market elastomer and polymer products, including the US $223 billion* global tire market. We are also aggressively developing other industrial applications such as lubricants, special rust, and proof coatings.  Medical and High tech electronic applications.

Gratomic: Graphenes tire program

  • To formally cultivate and exploit Aukam’s lump graphite and to facilitate the manufacturing of graphenes for large volume, mass market applications
  • the program follows the completion of a comprehensive two-stage discovery exercise with aukam graphite by gratomic’s partner
  • aukam graphite met the demanding standards required to convert it to graphenes
  • “consequential analysis”  – graphenes derived from stage one included in several “proof of concept” components including tire treads

where rubber meets the road

  • Tires with Graphene sourced from Gratomic’s Aukam Graphite are being terrain tested in Asia & Europe right now
  • Hard Data harvested to date indicates the tires are more durable when compared on a head to head basis with a premium brand tire
  • Put against the ultimate road tests to prove its durability and performance 
  • Environmental impact and life cycle analysis is being undertaken as contemporaneously results to date strongly indicate substantial demand from tire manufacturing community
  • Proven to decrease rolling resistance equaling more miles per gallon (mpg)
  • 12% increased km per Gallon 
  • Results to date support Gratomic’s Aukam Graphite specifications and supply as suitable for industry supply

China to focus on graphene tire development

  • The Chinese government’s attention and promotion of graphene is expected to benefit the global tire industry a great deal
  • According to Chinese officials and scientists, graphene will be utilized in the future more and more in intelligent terminal, new energy vehicles, composite processing, intelligent wear products, clean energy and other fields.*

*Source: Meyors Chemical Inc Ltd.

graphene in bike tires

Benefits include:

  • Lighter than ordinary tires and frames
  • Longer-lasting
  • More puncture resistant
  • More efficient heat dissipation
  • Improved rolling resistance when riding upright
  • Softer with better traction in turns

how big is the tire business?

  • according to tech-sci market report “global tire market forecasts & opportunities, 2022” the world tire market is to exceed 319 billion dollars by 2022
  • currently 2.2 billion tires are sold worldwide annually
  • a few grams per tire makes a lot of graphite sold
  • the gratomic range of tire will sell for less than premium brands
  • a 15 inch budget entry tire, 3 million tires equals 400 tonnes of graphene with the average selling price of the graphenes at 80 dollars per kilo in the tread only, revenues could equal 32 million dollars
Graphene: the nano-material of the future

Graphene is emerging as one of the most promising Nano-technology materials because of its unique combination of superb properties. These properties open a way for graphene’s exploitation in a wide range of applications ranging from electronics to optics, sensors, and bio/medical devises.

Electronics is one of the first industries that benefited from graphene’s vast potential. Flexible smartphones, electronic paper, ultra-thin TV sets and a wide range of other devices.

Graphene is an “Advanced Material” with high potential industrial applications. Much like Concrete and Aluminum or Velcro and Gore-Tex.  It is a ground-breaking material which has applications in sensor technology. Its single atom thickness would allow for it to finitely detect changes, at the atomic level, within environment which it is introduced. Examples include use in camera sensors or as sensors for the detection of chemicals and gases, including known toxins. Graphene use would allow for the measurement and monitoring of stress and strains within man-made structures such as bridges, and airplanes.