Nickel oxyhydroxide battery

Nickel oxyhydroxide battery (abbr. NiOx, IEC code: Z) is a type of primary cell. It is not rechargeable and must be disposed after a single use. NiOx batteries can be used in high-drain applications such as digital cameras.

NiOx batteries used in low-drain applications, have a lifespan similar to an alkaline battery.^{[citation needed]} NiOx batteries produce a higher voltage (1.7V) than alkaline batteries (1.5V) which can cause problems in certain products, such as equipment with incandescent light bulbs (such as flashlights/torches), or devices without a voltage regulator.

Oxyride battery cathode structure compared with traditional alkaline battery

Construction

The nickel oxyhydroxide cell is different from a standard alkaline battery in the manufacturing process and in chemical composition.

The chemical difference is the addition of nickel oxyhydroxide to the manganese dioxide and graphite for the cathode. This results in an unloaded voltage of 1.7 V DC per cell. The cells sustain a higher average voltage during discharge compared to alkaline batteries. This may cause a false indication in equipment that monitors battery voltage as an indication of remaining operating time.^[1]

Finer grained graphite in the cathode and a vacuum pouring process that inserts a higher quantity of electrolyte in the cell are used during the manufacturing of the nickel oxyhydroxide cells.^[2]

References

^ http://shure.custhelp.com/app/answers/detail/a_id/3276/~/using-the-panasonic-oxyride-batteries-with-uhf-r-wireless An example of an equipment manufacturer testing nickel oxyhydroxide batteries.
^ Katerina E. Aifantis, Stephen Andrew Hackney, Stephen A. Hackney, R. Vasant Kumar (ed) High Energy Density Lithium Batteries: Materials, Engineering, Applications, Wiley-VCH, 2010 ISBN 3-527-32407-0 page 49

External links

[1] ttp://shure.custhelp.com/app/answers/detail/a_id/3276/~/using-the-panasonic-oxyride-batteries-with-uhf-r-wireless An example of an equipment manufacturer testing nickel oxyhydroxide batteries.

[Aifantis2010-2] Katerina E. Aifantis, Stephen Andrew Hackney, Stephen A. Hackney, R. Vasant Kumar (ed) High Energy Density Lithium Batteries: Materials, Engineering, Applications, Wiley-VCH, 2010 ISBN 3-527-32407-0 page 49

[1]

[2]

v t e Electrochemical cells
Types	Galvanic cell Concentration cell Electric battery Flow battery Trough battery Fuel cell Thermogalvanic cell Voltaic pile
Primary cell (non-rechargeable)	Alkaline Aluminium–air Bunsen Chromic acid Clark Daniell Dry Edison–Lalande Grove Leclanché Lithium metal Lithium–air Mercury Metal–air electrochemical Nickel oxyhydroxide Silicon–air Silver oxide Weston Zamboni Zinc–air Zinc–carbon
Secondary cell (rechargeable)	Automotive Lead–acid gel–VRLA Lithium–air Lithium ion Dual carbon Lithium–iron–phosphate Lithium–polymer Lithium–sulfur Lithium–titanate Metal–air Molten salt Nanopore Nanowire Nickel–cadmium Nickel–hydrogen Nickel–iron Nickel–lithium Nickel–metal hydride Nickel–zinc Polysulfide–bromide Potassium ion Rechargeable alkaline Silver–cadmium Silver–zinc Sodium ion Sodium–sulfur Solid state Vanadium redox Zinc–bromine Zinc–cerium
Other cell	Atomic battery Fuel cell Solar cell
Cell parts	Anode Binder Catalyst Cathode Electrode Electrolyte Half-cell Ions Salt bridge Semipermeable membrane

Construction

See also

References

External links