Product
Graphene is regarded as the "Wonder material" of our times because of its unique & exceptional properties including:
Thinnest Known Material
Largest Surface Area to Volume Ratio
Most stretchable Crystal
Record thermal Conductivity
Electrically Conductive
200 times stronger than Steel
TUFFREL® - Functionalized Single Layer Graphene - utilizes its extraordinary properties to impart amazing enhancements to concrete.
Graphene increases the compressive strength of concrete by improving the interfacial bond between the cement matrix and the aggregates.
The addition of Graphene can increase the surface area of the cement matrix, providing more contact points for the aggregates to bond with. This results in a stronger bond between the aggregates and the cement matrix, which can improve the compressive strength of the concrete.

Another way Graphene increases the compressive strength of concrete is by improving the hydration process of cement. Graphene particles can act as a nucleation site for calcium silicate hydrate (C-S-H) gel formation, which is responsible for the strength of concrete. This can accelerate the hydration process and lead to the formation of more C-S-H gel, resulting in higher compressive strength.

With the addition of TUFFREL® - functionalized Graphene, the Compressive Strength of concrete increases tremendously. TUFFREL® refines the microstructure of concrete, enhances the crystalline bonding and also has a filler effect.

Tensile strength is the ability of a material to resist stretching or pulling forces.
Concrete has relatively low tensile strength, but the addition of Graphene can potentially improve its tensile strength.

Graphene increases the ductility of concrete, which is its ability to deform before breaking. This can improve the tensile strength of concrete by allowing it to stretch or pull more before breaking. Graphene can reinforce the concrete matrix by acting as a barrier against crack propagation. Graphene sheets can bridge micro cracks that occur within the concrete matrix, thereby improving its resistance to bending or breaking.

TUFFREL® significantly increases the tensile strength of concrete structures. This leads to specialized applications like UHPC for bridges and roads. Higher tensile strength result in thinner & lighter structures which enable more futuristic designs to be created.

Early strength gain is an essential property of concrete, especially in construction projects where quick turnaround times are required.
Early strength is typically defined as the strength of concrete at an early age, usually 1 to 7 days after casting. Several factors can affect the early strength gain of concrete, including the type and amount of cement used, the water-to-cement ratio, the curing conditions, and the use of chemical admixtures.

TUFFREL® accelerates the strength gain in concrete, thus making the construction time faster and improving site capacity by increasing formwork rotation.

Reduced water permeability is an important characteristic of concrete, particularly in structures that are exposed to water or moisture.
Concrete with low water permeability is less susceptible to damage from water and can have a longer service life.

Low water permeability also helps reduce the risk of water infiltration and the subsequent damage caused by freeze-thaw cycles, chemical attack, and corrosion of reinforcing steel. This, in turn, leads to increased durability of the concrete structure.

TUFFREL® reduces the water permeability of concrete thus improving the life of the structure. It reduces the cost of repairs and protects the internal work.

Graphene is highly resistant to chemical attack and can act as a barrier to prevent the ingress of harmful substances such as chloride ions, which can lead to corrosion of the reinforcing steel.
This can improve the durability of concrete structures, particularly in aggressive environments such as marine or industrial environments. Graphene also reduces the water permeability of concrete, which can help to prevent water infiltration and subsequent damage to the structure.

The production of concrete is responsible for a significant amount of carbon dioxide (CO2) emissions.
The CO2 footprint of concrete is mainly attributed to two factors: the production of cement, and the energy required to mix, transport, and place the concrete.

Cement production is the most significant contributor to the CO2 footprint of concrete. The production of cement involves the burning of fossil fuels to heat the kiln, which results in the release of CO2 emissions. Additionally, the chemical process involved in cement production also produces CO2 emissions.

TUFFREL® helps in reduction of cement used in the concrete design without compromising on the durability and mechanical properties of the concrete structure. An M40 grade concrete design would require cement of only M25 design to achieve equivalent strength and properties.