The Armstrong Solid Dense Concrete Block B&v 140mm 7.0N is a high-quality, durable building material designed for a variety of construction applications. Its solid and dense structure offers exceptional strength and stability, making it an ideal choice for load-bearing walls, foundations, and other structural elements in both commercial and domestic buildings. This concrete block is also easy to handle, install and can be cut or shaped to your specific requirements. Its 140mm thickness provides excellent insulation to help reduce energy use in buildings.

Brand Name	Thomas Armstrong
Certifications Met	Information not available
Colour	Grey
Country of Origin	Information not available
Manufacturer Model No	Information not available
Material	Concrete
Number of Pockets	Information not available
Protects From	Information not available
Type	Concrete blocks
Waterproof	Information not available
Wear Type	Information not available
Length	440mm
Width	215mm
Height	140mm
Weight	Information not available
Texture	Smooth
Density	Approx. 2000 kg/m^3
Compressive Strength	7N per mm2
Thermal Conductivity	Approx. 1.13 W/mK

The Hollow Dense Concrete Block 7.3N 140mm is a reliable and robust building material, ideal for construction projects of various scales. Made from high-density concrete, this block delivers exceptional durability and strength, meeting the 7.3N/mm² compressive strength requirement. Its hollow design reduces weight without compromising structural integrity, making it easier to handle and install. The block is versatile enough for both load-bearing walls and partitions. This concrete block provides an efficient thermal performance contributing to energy-saving construction.

Brand Name	Cemex UK
Certifications Met	7.3N/mm² compressive strength standard
Country of Origin	UK
Material	Concrete
Type	Concrete blocks
Wear Type	load-bearing walls and partitions
Length	440mm
Width	215mm
Height	140mm
Texture	Smooth
Material Composition	Concrete
Density	Approx. 2000 kg/m^3
Compressive Strength	7.3 N/mm2
Thermal Conductivity	Approx. 1.13 W/mK