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The 89 pages that link to Lithium-ion battery, each with the reason it gives.

• Nickel–cadmium batteryCompared with: Its higher energy density and lack of cadmium helped it replace nickel–cadmium in many portable devices.

• Solid-state batteryNarrower topic: It provides the familiar cell architecture that many solid-state designs modify.

• Allotropes of carbonRelated: Graphite commonly serves as the host material for lithium ions in its anode.

• Rechargeable batteryBroader topic: It is a widely used rechargeable chemistry in portable electronics and electric vehicles.

• Salar de AtacamaNarrower topic: Lithium from the salar enters supply chains serving rechargeable battery production.

• Salar de UyuniRelated: Demand for these batteries drives interest in Uyuni’s lithium resources.

• AnataseNarrower topic: Anatase is investigated as an electrode material for lithium-ion storage.

• Chemical energyBroader topic: Its reversible chemistry stores chemical energy during charging and supplies electrical energy during discharge.

• Deepsea ChallengerRelated: Battery power supported propulsion, lighting, instruments, and life-support equipment during the dive.

• Fluorine chemistryRelated: Fluorinated salts and binders help shape electrolyte and electrode performance.

• SpodumeneRelated: Lithium chemicals made from spodumene supply materials used in these batteries.

• AcetonitrileRelated: Acetonitrile is studied as a low-viscosity solvent for some battery electrolytes.

• Amorphous carbonRelated: Disordered carbon can serve as an anode material for storing lithium.

• Electric batteryBroader topic: Its high energy density and rechargeability make it common in portable devices and electric vehicles.

• LaptopRelated: It supplies the energy that lets a laptop work away from an outlet.

• Vanadium redox flow batteryCompared with: Lithium-ion cells generally offer higher energy density, while vanadium systems separate tanks from stack power.

• Vanadium(V) oxideNarrower topic: V₂O₅ is studied as a cathode material within this broader battery technology.

• John B. GoodenoughNarrower topic: Goodenough’s cathode work supplied a key component of this battery technology.

• PetaliteRelated: Battery production drives much of the demand for lithium recovered from ores such as petalite.

• Akira YoshinoNarrower topic: Yoshino’s central achievement was a commercially viable version of this battery family.

• Group 10 elementRelated: Nickel-rich cathodes use nickel to raise energy density in many battery designs.

• LepidoliteRelated: Lithium recovered from minerals such as lepidolite can enter battery supply chains.

• Tin miningRelated: Tin is investigated and used in some battery anodes, creating a potential source of future demand.

• Group 9 elementRelated: Cobalt compounds in some cathodes improve energy density and structural stability.

• KolweziRelated: Cobalt from Kolwezi is used in some battery chemistries, though cobalt-free designs also exist.

• Portable media playerRelated: Its high energy density enables long playback in a compact device.

• Bertrand PiccardRelated: Solar Impulse 2 stored daytime solar energy to fly through the night.

• History of the batteryBroader topic: Its high energy density transformed portable electronics and reshaped electric transport.

• Lithium iodideRelated: Lithium iodide has been studied as an electrolyte additive in some battery systems.

• M. Stanley WhittinghamNarrower topic: Whittingham’s research established an early foundation for this battery family.

• Mobile deviceRelated: Its rechargeable energy storage supports portable operation without a constant power connection.

• Technology life cycleBroader topic: Its continuing improvements show how a mature technology can renew its performance and applications.

• Alternative fuel vehicleRelated: It is the dominant onboard energy store in modern battery-electric vehicles.

• Atomic batteryCompared with: It stores electrical energy for later use, whereas an atomic battery continuously harvests decay energy.

• Home energy storageBroader topic: Most residential battery systems use this chemistry for its high energy density and efficiency.

• Inorganic chemicalsBroader topic: Its electrodes and electrolytes rely heavily on inorganic compounds.

• Lithium nitrateCompared with: Despite its lithium content, lithium nitrate is not the standard lithium-ion battery electrolyte.

• Lithium nitrideRelated: Li₃N has been studied as a lithium-ion-conducting component in battery designs.

• Propylene carbonateRelated: Propylene carbonate serves as a polar solvent in some lithium-ion battery electrolytes.