Our Products

Temperature Controlled concrete

Developing temperature-controlled mixed concrete with reduced heat of hydration for mass concrete applications is aimed at achieving lower core temperatures, minimizing temperature differentials within concrete structures, and ultimately enhancing durability.

Temperature-controlled concrete is employed in massive concrete components, including but not limited to:

  • Large footings
  • Raft foundations
  • Thick retaining walls.
  • Dams

This results in reduced drying stress, decreased temperature-induced stress, and enhanced durability.

Self compacting concrete

Self-compacting concrete (SCC) is a type of fresh, pre-mixed concrete that possesses the ability to flow under its own weight without the need for external vibration to achieve compaction.

This concrete variety is well-suited for the following applications:

  • Drilled shafts
  • Columns
  • Earth retaining systems
  • Areas with a substantial presence of rebar, pipes, or conduits.

Self-compacting concrete, when featuring a similar water-cement or cement binder ratio, typically exhibits slightly greater strength in comparison to conventional concrete. This enhanced resistance to segregation is achieved through the incorporation of mineral fillers or fines and the use of specialized admixtures.

Green Building concrete

The term "Green Concrete" refers to a concrete that has undergone additional measures in its mix design and placement, ensuring a sustainable structure with an extended lifecycle and a low-maintenance surface, which contributes to energy efficiency, reduces CO2 emissions, and minimizes wastewater impacts.

Green building concrete is employed in the construction of various structures, including:

  • Sustainable homes
  • Exterior walls
  • Pavements, among others.

The target is to achieve a minimum 30% reduction in CO2 emissions, utilize a minimum of 20% residual products as aggregates in the concrete mix, and replace fossil fuels in cement production with CO2-neutral, waste-derived fuels, aiming for a 10% or higher substitution rate.

High density concrete

High-density concrete exhibits a density approximately 50% higher than that of conventional concrete, with the potential to achieve densities up to 5200 kg/m3 by utilizing iron as both the fine and coarse aggregate.

he demand for high-density concrete is prominent in areas where:

  • Buildings necessitate radiation control measures.
  • Nuclear reactors are in operation.
  • Regions engage in the large-scale production of electromagnetic waves.

This material possesses the capability to effectively absorb both neutron and gamma ray radiation, thereby diminishing radiation levels to a minimal state. Additionally, it demonstrates favorable mechanical attributes such as strength and durability.

High Strength concrete

The typical composition of the material involves the combination of Portland cement, supplementary cementitious materials, reactive powders, fine sand, limestone and/or quartz flour, high-range water reducers, and water.

High-strength concrete is employed in the construction of:

  • Concrete girders.
  • Highway bridges.
  • Buildings exceeding 30 stories in height.

It is possible to create a material with compressive strengths surpassing 29,000 pounds per square inch(200 MPa). Additionally, employing fine materials in the matrix results in a dense, sleek surface appreciated for its visual appeal and its capacity to faithfully replicate form details on the solidified surface.

Early Strength concrete

Concrete achieving a compressive strength exceeding 60 MPa within 28 days falls into the category of high-performance concretes, offering versatile technical properties suitable for a wide range of construction applications.

Early strength concrete finds frequent application in:

  • Constructing high-load-bearing columns and various precast products. Being well-suited for use in high-rise buildings, particularly in earthquake-prone regions.

Elevating the strength of concrete can be attained through the utilization of various methods, either individually or in combination, which may include:

  • Increased cement content
  • Reduction of the water-cement ratio
  • Improved workability, resulting in enhanced compaction.

Light Weight concrete

Lightweight concrete falls into three primary categories: lightweight aggregate concrete, foamed concrete, and autoclaved aerated concrete (AAC). It can be manufactured using a diverse selection of lightweight aggregates, including materials like volcanic pumice, clay, and slate, among others.

Lightweight concrete is employed in a range of applications, including:

  • Structural uses, with strengths matching those of standard-weight concrete.
  • Surface applications for architectural aesthetics.
  • Roof insulation to regulate heat.
  • Insulating water pipes to prevent heat loss.

The advantages include:

  • Decreased dead loads, leading to cost savings in foundations and reinforcement.
  • Enhanced thermal characteristics.
  • Enhanced fire resistance.
  • Cost savings in the transportation and on-site handling of precast components.
  • Diminished requirements for formwork and propping.

Water Permeable concrete

A unique form of porous concrete, designed for flatwork applications, facilitates the direct passage of water from precipitation and various sources. This design helps minimize runoff from a site and promotes the recharge of groundwater.

Water-permeable concrete is employed in:

  • Payements
  • Streets and roads to alleviate waterlogging issues by allowing water to pass through.

Permeable concrete is created by using predominantly large aggregates with minimal to no fine aggregates. The concrete paste then envelops these aggregates, enabling water to permeate through the concrete slab.