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The 89 pages that link to Electrolyte, each with the reason it gives.

• Ionic compoundNarrower topic: Many ionic compounds act as electrolytes when their ions become mobile in solution or a melt.

• Lithium-ion batteryNarrower topic: The electrolyte conducts lithium ions while keeping the cell's electronic circuit outside the separator.

• PotassiumNarrower topic: Dissolved potassium salts supply K⁺, an abundant intracellular electrolyte.

• DehydrationNarrower topic: Water deficits often alter electrolyte concentrations as well as fluid volume.

• Sodium chlorideNarrower topic: Dissolved NaCl conducts because its ions can move through the solution.

• Oral rehydration therapyNarrower topic: The therapy replaces dissolved ions lost through diarrheal fluid.

• SalivaNarrower topic: Saliva’s dissolved ions underpin its buffering and mineral-repair functions.

• Potassium chlorideNarrower topic: Dissolved KCl conducts electricity because its potassium and chloride ions move freely.

• Ionic strengthNarrower topic: Ionic strength summarizes the ions supplied by dissolved electrolytes.

• Svante ArrheniusNarrower topic: Arrhenius’s dissociation theory explains how electrolytes conduct electricity in solution.

• Salt (chemistry)Narrower topic: Dissolved salts commonly act as electrolytes by supplying mobile ions.

• UrineNarrower topic: Urine contains electrolytes whose excretion helps regulate fluid and ionic balance.

• Water electrolysisNarrower topic: Water electrolysis needs an ion-conducting path to complete the electrical circuit.

• Calcium homeostasisNarrower topic: Calcium is one of the body's regulated charged solutes.

• Debye lengthNarrower topic: Its ion concentrations and valences set the solution's screening length.

• HypomagnesemiaNarrower topic: Magnesium is an electrolyte that helps regulate cellular and neuromuscular activity.

• Peter DebyeNarrower topic: Debye–Hückel theory became a foundation for predicting ionic behavior in electrolyte solutions.

• Alkaline batteryNarrower topic: The alkaline electrolyte carries charge internally as electrons flow through an external circuit.

• Extracellular fluidNarrower topic: Extracellular electrolytes govern osmotic balance and contribute to membrane potentials.

• Loop diureticNarrower topic: Loop diuretics change urinary handling of several electrolytes, including sodium, potassium, and magnesium.

• SweatNarrower topic: Sweat carries sodium and chloride, which can be lost during heavy sweating.

• Solid-state batteryNarrower topic: The defining change is replacing this battery component’s liquid form with a solid.

• Arrhenius baseNarrower topic: Many Arrhenius bases produce hydroxide ions as electrolytes in water.

• Sports drinkNarrower topic: Their dissolved ions, especially sodium, are the minerals sports drinks aim to replace.

• Calcium gluconateNarrower topic: Calcium is an electrolyte whose blood concentration affects nerves, muscles, and the heart.

• CryoliteNarrower topic: Molten cryolite carries ions between the electrodes during aluminium electrolysis.

• Vanadium redox flow batteryNarrower topic: The circulating vanadium solutions conduct ions and contain the battery’s active material.

• Lars OnsagerNarrower topic: Electrolyte solutions were the subject of Onsager’s influential transport theory.

• Comprehensive metabolic panelNarrower topic: Sodium, potassium, chloride, and bicarbonate are electrolytes included in the panel.

• Body fluid compartmentsNarrower topic: Electrolyte distributions distinguish the major fluid compartments.

• Electrokinetic flowsNarrower topic: Mobile ions carry charge through the liquids in most electrokinetic systems.

• Law of dilutionNarrower topic: The law concerns electrolytes whose ionization is incomplete in solution.