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The 25 pages that link to Residence time, each with the reason it gives.

• Carbon cycleRelated: Different residence times distinguish rapid biological exchanges from slow geological storage.

• Biogeochemical cycleRelated: Different reservoirs retain elements for very different lengths of time.

• PyrolysisRelated: Vapor residence time affects whether primary products undergo further cracking.

• Water cycleRelated: Water’s residence time differs greatly among clouds, rivers, oceans, and glaciers.

• Atmospheric lifetimeRelated: Atmospheric lifetime is often treated as the residence time of a substance in air.

• Mass balanceRelated: Stored mass and throughput together determine how long material remains in the system.

• Chemical reactorRelated: Residence time links reactor flow to the opportunity for reaction.

• Hydration shellRelated: Water exchange times reveal how dynamically the shell rearranges.

• Steam crackingRelated: Short furnace residence times help preserve desired olefins before they undergo further reactions.

• LimnologyRelated: Water residence time helps determine how quickly lakes retain or flush nutrients and contaminants.

• Dead zoneRelated: Long residence times quantify how slowly material leaves a dead zone.

• BiogeochemistryRelated: Residence time distinguishes rapidly recycled pools from elements locked in rocks for millennia.

• Carbonate–silicate cycleRelated: Long reservoir times distinguish geological carbon cycling from rapid atmospheric and biological exchanges.

• Spray dryingRelated: Droplets must remain in the chamber long enough to dry before collection.

• DesorptionRelated: Surface residence time links binding strength and temperature to desorption rates.

• Continuous stirred-tank reactorRelated: It links vessel volume and flow rate to how long reactants can react.

• Plug flow reactorRelated: Flow rate and reactor volume set how long reactants remain available to react.

• Geochemical cycleRelated: Residence time distinguishes rapid exchanges from storage lasting millions of years.

• Laminar flow reactorRelated: It links reactor dimensions and flow rate to the time available for reaction.

• Semibatch reactorRelated: Feed and withdrawal complicate the residence-time picture used for continuous reactors.

• Lagrangian particle trackingRelated: Trajectories reveal how long particles persist in a chosen flow region.

• Plug flow reactor modelRelated: Each ideal fluid element has the same residence time in steady plug flow.

• Trommel screenRelated: Cylinder length, slope, and speed affect how long particles have to encounter openings.

• Vapor–liquid separatorRelated: Adequate residence time lets droplets separate before the outlet.