Linked from

The 35 pages that link to Fatigue, each with the reason it gives.

• Stress (mechanics)Related: Cyclic stress can initiate cracks even when peak stress is modest.

• Fracture mechanicsCompared with: Fatigue describes a loading-driven failure process, while fracture mechanics analyzes crack behavior within it.

• Strain (mechanics)Related: Repeated strain cycles can initiate and grow fatigue cracks.

• Yield strengthCompared with: Repeated stresses below yield strength can still cause fatigue failure.

• Pressure vesselRelated: Repeated pressurization can initiate and grow cracks even when each cycle stays below yield strength.

• DuctilityCompared with: Fatigue failure can occur without the large one-time deformation measured by ductility.

• CreepCompared with: Fatigue is driven by load cycles, whereas creep is driven by sustained stress over time.

• Creep (deformation)Compared with: Fatigue is driven by load cycles, whereas creep develops under sustained loading.

• Elasticity (physics)Related: Repeated elastic cycles can initiate cracks and eventually cause failure.

• Work hardeningRelated: Work-hardened regions can alter fatigue resistance and crack initiation behavior.

• FlywheelRelated: Repeated speed cycles can fatigue a flywheel and its attachments.

• Composite materialRelated: Repeated loading can grow matrix cracks and interface damage in composites.

• Stress–strain curveCompared with: A single monotonic curve does not predict failure under cyclic loading.

• AnhedoniaCompared with: Low energy can limit participation even when anticipated pleasure remains.

• Beam (structure)Related: Cyclic beam loads can initiate fatigue cracks even below static strength limits.

• Shift workRelated: Long or poorly timed shifts can reduce alertness during work.

• Brittle fractureCompared with: Fatigue usually accumulates over cycles, unlike sudden brittle overload failure.

• Connecting rodRelated: A connecting rod experiences millions of alternating tensile and compressive cycles.

• Strength of materialsRelated: Repeated stresses can cause failure below the static strength.

• Stress concentrationRelated: Repeated local stress peaks can initiate fatigue cracks below the material's static strength.

• Thermal crackingRelated: Repeated temperature cycles can accumulate damage and extend cracks through thermal fatigue.

• Bridge deckRelated: Repeated traffic cycles can initiate fatigue cracks in deck components.

• BrittlenessRelated: Repeated stress can grow cracks until a brittle final break occurs.

• Truss bridgeRelated: Repeated traffic loads can initiate fatigue cracks in truss members and connections.

• Turbine bladeRelated: Cyclic loading can initiate cracks in blades and shorten their service life.

• Chain (physical links)Related: Repeated loading can crack links even when each pull stays below the chain's static strength.

• FastenerRelated: Cyclic loading can initiate cracks and eventually break a fastener.

• Spring steelRelated: Repeated flexing can fatigue spring steel even when each cycle stays below its yield strength.

• FuselageRelated: Cabin pressure cycles and flight loads can initiate fatigue cracks in fuselage structures.

• Solid mechanicsBroader topic: It explains failures that occur below a material's one-time strength limit.

• Energy (everyday usage)Compared with: It is the most direct everyday opposite of feeling energetic.

• Paris' lawNarrower topic: Paris' law models crack propagation within the broader fatigue process.

• Biomedical and Dental MaterialsRelated: Repeated chewing and movement can initiate cracks in restorations and implants.

• Mechanical & acoustical propertiesRelated: Repeated stress can cause failure well below a material’s one-time strength.

• Yield (materials science)Related: Repeated stresses below monotonic yield can still cause fatigue damage.