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The 15 pages that link to Work hardening, each with the reason it gives.

• MetallurgyRelated: Rolling and forging can strengthen metal without changing its chemical composition.

• DislocationRelated: Plastic strain multiplies and entangles dislocations, making further motion harder.

• Bronze sculptureRelated: Hammering bronze can change its mechanical properties during shaping and finishing.

• AlloyRelated: Deforming an alloy can raise its strength by increasing dislocation density.

• HardnessRelated: Deformation around an indentation can strengthen the material and alter measured hardness.

• BronzeRelated: Hammering bronze can strengthen it, though excessive deformation can make it crack.

• DuctilityRelated: As deformation accumulates, work hardening can delay localized thinning and fracture.

• AnnealingCompared with: Annealing can reverse the hardening and loss of ductility caused by working a metal.

• Aluminum alloyRelated: Strain hardening provides strength in aluminum alloys that are not precipitation-hardened.

• Precipitation hardeningCompared with: It strengthens through accumulated defects, rather than dispersed precipitates.

• MalleabilityRelated: Repeated hammering or rolling can make a malleable metal harder and less able to deform.

• Aluminum canRelated: Forming and ironing change the mechanical properties of can-wall aluminum.

• Crystallographic defectRelated: Deformation multiplies dislocations, whose interactions impede further motion.

• Grain boundary strengtheningCompared with: It raises strength by adding dislocation obstacles, unlike grain refinement’s boundary obstacles.

• Aluminium foilRelated: Rolling hardens foil, so manufacturers may anneal it to restore flexibility.