Deformed rebar serves as a key material in construction and civil engineering, primarily utilized to reinforce concrete structures and enhance their load-bearing capabilities. Its ribbed surface pattern is specifically designed to create a strong mechanical bond with concrete, minimizing slippage and boosting structural stability under tensile, compressive, and shear stresses. This enhanced bonding is crucial for ensuring the safety and longevity of reinforced concrete structures. Available in grades like A2, A3, and A4, deformed rebar caters to diverse structural and engineering needs. Each grade is characterized by unique mechanical properties, such as variations in yield strength, tensile strength, and ductility, enabling engineers to select the most appropriate option based on project requirements and design criteria. These rebars are produced in compliance with established national and international standards to guarantee consistent quality and dependable performance. Widely used across various construction applications, deformed rebar is integral to residential and commercial structures, bridges, highways, tunnels, reservoirs, dams, foundations, and reinforced concrete frames. Its high tensile strength ensures concrete structures can effectively handle heavy loads, dynamic forces, and seismic stresses. Certain grades and coatings add resistance to environmental factors like moisture, temperature changes, and corrosion, extending the service life of structures and reducing maintenance costs. On a practical level, deformed rebar is highly workable—it can be efficiently cut, bent, or assembled to meet specific construction requirements. Most grades are weldable, although grade A4 demands controlled welding procedures due to its higher strength and carbon content. Combining strength, durability, cost-efficiency, and versatility, deformed rebar remains a vital element for ensuring dependable, long-lasting construction outcomes.