Glass Fiber Reinforced Polymer (GFRP) rebars, also known as GFRP Bar, is a composite material made from high-strength glass fibers embedded in a polymer matrix, offering a lightweight, durable alternative to steel rebar.
Steel Rebar oxidizes in concrete which creates rust cancers. The oxidation process causes the rebar to expand which results in the cover concrete to spall, leading to failure. While Fiberglass Rebar do not corrode, reducing maintenance and replacement costs, leading to long-term savings.
GFRP Rebars are 4x lighter, 2x stronger than steel rebar. It does not conduct heat, cold or electricity, substantially reduces workplace injuries, takes half the time to install with half the amount of people. It requires no maintenance or repairs and lasts longer than the concrete it is reinforcing.
With its superior properties, GFRP rebar is rapidly gaining popularity in various construction applications. Governments are increasingly specifying its use, and the world is beginning to recognize that Glass Fiber Reinforced Polymer is the ultimate solution for modern infrastructure needs.
WHY GFRP REBAR OVER TRADITIONAL STEEL REBAR ?
Structures using steel rebar in corrosive environments often start to fail after just 10 years. Corrosion costs private and public sectors billions of dollars each year in repairs and maintenance.
Glass Fiber Reinforced Polymer (GFRP) rebar can save these costs by being resistant to corrosion, eliminating failures in corrosive environments. It is also non-conductive and slightly lighter, making it easier to transport and install.
Whole of Life Savings
GFRP Rebar
rebar has a 100 year design life cycle.
Zero maintenance costs.
High Tensile Strength
Twice the strength of steel.
Corrosion Resistant
Exceptional resistance to water and salinity.
Does not rust, leach or cause concrete cancer.
Highly Chemical Resistant
Exceptionally resistant to a range of chemicals.
Lightweight
FRP rebar is ¼ the weight of steel.
Highly Durable
Over 100 years retention of strength and modulus in high pH environments.
Low Environmental Impact
Consumes approximately 85% the embodied energy of steel.
Non-electromagnetic
Non-conductive and electro-magnetically neutral.
Non-Magnetic
No interference with sensitive equipment.
Easy to cut and install
Cuts easily using standard cutting tools.
Faster to work with on-site.
Bends delivered ready to place.
Low Thermal Conductivity
Maintains good thermal insulation values.
Promotes energy efficiency in buildings.
No Thermal Cycling Impact
Thermal expansion coefficient closer to concrete than steel.
Ideal for environments with extreme temperature cycles.