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The 28 pages that link to Lead–acid battery, each with the reason it gives.

• Lithium-ion batteryCompared with: It is heavier and less energy-dense, but remains inexpensive and widely recyclable.

• Sulfuric acidBroader topic: Sulfuric acid participates directly in the cell's discharge and recharge reactions.

• LithiumCompared with: It is a mature, lower-cost alternative with lower energy density than lithium-ion batteries.

• LeadBroader topic: Its electrodes exploit lead’s reversible conversion between metallic and oxidized forms.

• BatteryBroader topic: It remains widely used for vehicle starting and backup power.

• Relativistic chemistryRelated: Relativistic effects influence lead’s electronic structure and help explain the battery’s unusually high voltage.

• Relativistic effectRelated: Relativistic effects influence lead’s electronic structure and the battery’s unusually high cell voltage.

• Nickel–metal hydride batteryCompared with: It is heavier for stored energy but remains economical for starting engines and backup power.

• Uninterruptible power supplyRelated: It has long been a common, economical energy store in stationary UPS systems.

• SupercapacitorCompared with: It offers inexpensive bulk energy storage but typically charges and cycles less rapidly.

• GalenaRelated: Lead recovered from galena supplies the metal used in these batteries.

• Lead(II) oxideRelated: Lead oxides are used in manufacturing battery plates and active materials.

• AntimonyRelated: Antimony-containing lead alloys have been used to strengthen battery grids and improve casting.

• Nickel–cadmium batteryCompared with: It is another established rechargeable chemistry, generally chosen where low cost outweighs weight and cycle-life tradeoffs.

• Rechargeable batteryBroader topic: Its mature chemistry powers vehicle starters and backup systems.

• Electric batteryBroader topic: Its low cost and high starting current support widespread use in vehicles and backup systems.

• Lead(II) sulfateBroader topic: Discharge converts active electrode materials into PbSO₄; charging reverses that conversion.

• Lead(II) acetateCompared with: It is a major modern use of lead chemistry, but does not rely on this acetate salt.

• Lead(II) sulfideRelated: It is a major use of lead recovered from PbS ores.

• StibniteRelated: Antimony has been alloyed with lead in battery grids to improve casting and mechanical strength.

• Carbon groupBroader topic: It exploits lead compounds’ reversible chemistry for vehicle starting and backup power.

• Lead dioxideRelated: Lead dioxide is the positive-electrode material that is reduced during discharge.

• Charles F. KetteringRelated: Reliable storage batteries helped make electric starting practical in automobiles.

• Distilled waterRelated: Water added to serviceable cells must not introduce mineral contaminants.

• History of the batteryBroader topic: Planté’s 1859 design established a practical rechargeable battery chemistry.

• M. Stanley WhittinghamCompared with: This older battery chemistry provides a practical contrast to Whittingham’s lightweight lithium-based design.

• Home energy storageCompared with: It is a lower-cost, heavier alternative to lithium-ion storage, often with shorter cycle life.

• Peukert's lawBroader topic: The law is commonly applied to lead–acid batteries, whose usable capacity varies notably with discharge rate.