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The 26 pages that link to Soil liquefaction, each with the reason it gives.

• EarthquakeRelated: Earthquake shaking can destabilize waterlogged ground beneath structures.

• LoessCompared with: Loose, water-saturated loess can collapse or lose strength, though these behaviors are not identical to classic liquefaction.

• Geotechnical engineeringBroader topic: Earthquake loading can make seemingly solid ground behave temporarily like a fluid.

• Megathrust earthquakeRelated: Strong megathrust shaking can trigger liquefaction in susceptible coastal ground.

• PaleoseismologyRelated: Liquefaction features can preserve evidence of strong prehistoric ground shaking.

• Effective stressBroader topic: In severe liquefaction, pore pressure approaches total stress and effective stress nearly vanishes.

• ClayCompared with: It is a different failure process from the remolding-induced collapse of quick clay.

• AlluviumRelated: Loose, saturated alluvial sediments can be especially susceptible to earthquake liquefaction.

• PropaneRelated: Pressurizing propane makes it a compact liquid for storage and transport.

• Soil mechanicsBroader topic: It is a high-consequence case where loading and excess pore pressure sharply reduce resistance.

• Great Kantō EarthquakeRelated: Shaking destabilized soft, waterlogged ground in parts of the affected region.

• Supercritical fluidCompared with: Compression cannot liquefy a substance once it is above its critical temperature.

• 1964 Alaska earthquakeRelated: Liquefied soils contributed to ground failure and damage in parts of Anchorage.

• Artificial islandRelated: Loose reclaimed ground can liquefy, threatening buildings and infrastructure.

• Pore water pressureBroader topic: Earthquake-generated pore pressure can sharply reduce effective stress in loose saturated soil.

• 1999 İzmit earthquakeRelated: Liquefaction contributed to ground deformation and damage in parts of the affected area.

• Pore waterRelated: Rapid pressure buildup can make water-saturated sediment behave like a fluid.

• Leaning Tower of PisaCompared with: Unlike liquefaction, the tower's tilt developed through gradual settlement, not earthquake-induced soil failure.

• Seismic engineeringRelated: Liquefied ground can cause settlement, tilting, or loss of foundation support.

• Geological hazardRelated: Earthquake shaking can destabilize saturated ground beneath buildings and infrastructure.

• Great Hanshin earthquakeRelated: Liquefaction damaged reclaimed waterfront land around Kobe’s port.

• Intraplate earthquakeRelated: 1811–1812 sand blows remain the main physical record of intraplate rupture in the Mississippi Valley.

• Tangshan earthquakeRelated: Unstable ground conditions can worsen damage during strong shaking.

• Earthquake preparednessRelated: Liquefaction can damage foundations and buried utilities even away from surface rupture.

• İskenderunRelated: Soft coastal soils contributed to ground deformation and damage during the 2023 earthquakes.

• Soft-sediment deformation structuresRelated: Earthquake shaking or rapid loading can liquefy sediment and allow layers to deform.