Product descriptionour team is the foremost entity of quality approved range of shot peening glass beads at marginal rates. Specifications ideal suitable for use in shot peening processes process material glass other details Shot peening operates at ambient temperatures working process in which the outer layer of a part is bombarded with small spherical media called shot. Each piece of shot striking the metal functions as a tiny peening hammer imparting a small indentation or dimple appearing outwardly for the purpose of the dimple to the outermost, Be created layer of the metal must yield in tension . Below the compressed, The surface grains try to restore the surface to its original shape producing a hemisphere of cold, Worked metal highly stressed in compression. Overlapping dimples develop a uniform layer of residual compressive stress. It is famously acknowledged that cracks will not initiate nor propagate in a compressively stressed zone. Since nearly all fatigue and stress corrosion failures originate at or near the surface of compressive stresses, A part induced by shot peening provide significant increases in part life. The magnitude of residual compressive stress produced by shot peening is at least as great as half the tensile strength of the material being peened. In most modes of long term failure the common denominator is tensile stress. These stresses can result from externally applied loads or be residual stresses from manufacturing processes such grinding or, As welding machining. Tensile stresses attempt to stretch or pull the surface apart and may eventually lead to crack initiation compressive stress squeezes the surface grain boundaries together and will significantly delay the initiation of fatigue cracking. Since crack growth is slowed significantly in a increasing the, Compressive layer richness of this layer increases crack resistance. Shot peening stands out as the leading economical and practical method of ensuring surface residual compressive stresses. Features excellent finish rugged design optimum strength