Building Material

What is concrete grade beam? Grade beams are commonly concrete beams which are designed to act as horizontal ties between footings or pile caps. They should be reinforced with continuous reinforcem

Glass fiber reinforced concrete (GFRC) comprises of cement or concrete mixed with glass fibers. Glass fibers used as reinforcement in concrete.

The ground granulated blast furnace slag (GGBFS) is a by-product of iron manufacturing which when added to concrete improves its properties such as workability, strength and durability.

Geopolymer concrete is an innovative and eco-friendly construction material and an alternative to Portland cement concrete. Use of geopolymer reduces the demand of Portland cement which is responsi

Garage floor slab construction process includes the preparation of base, erection of formwork, placement of reinforcement, pouring, compaction, finishing and curing of the concrete slab. In this ar

Thermal insulation is the cornerstone of energy-efficient building envelope design. The selection of appropriate insulation materials and systems directly determines the thermal performance of the building enclosure, influencing heating and cooling energy consumption, occupant comfort, condensation control, and the overall carbon footprint of the building. With the increasing stringency of energy codes and the growing

The roofing membrane is the single most weather-exposed component of the building envelope, enduring the full force of sun, rain, snow, ice, wind, and temperature extremes throughout its service life. The selection of an appropriate roofing membrane system is one of the most consequential decisions in building envelope design, affecting not only the immediate weathertightness

The initial setting time of concrete is the time when cement paste starts hardening while the final setting time is the time when cement paste has hardened sufficiently in such a way that a 1 mm ne

Vapor control is one of the most nuanced and frequently misunderstood aspects of building envelope design. The proper selection and placement of vapor barriers—more accurately termed vapor retarders—requires a thorough understanding of moisture dynamics, building science principles, and climate-specific conditions. Getting vapor control wrong can be worse than having no vapor control at all, as

When concrete is not cured properly, its durability, strength and abrasive resistance are affected. Due to inadequate curing, concrete develops plastic shrinkage cracks, thermal cracks, along with