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  2. Molten-salt battery - Wikipedia

    en.wikipedia.org/wiki/Molten-salt_battery

    Because of their high specific power, NaS batteries have been proposed for space applications. [8] [9] An NaS battery for space use was successfully tested on the Space Shuttle mission STS-87 in 1997, [10] but the batteries have not been used operationally in space. NaS batteries have been proposed for use in the high-temperature environment of ...

  3. Thermal Batteries for Military Market to Reach $274.2 million ...

    lite.aol.com/tech/story/0022/20250204/9352659.htm

    Wilmington, Delaware, Feb. 04, 2025 (GLOBE NEWSWIRE) -- Allied Market Research published a report, titled, "Thermal Batteries for Military Market by Voltage (10 V to 50 V, 51 V to 100 V, Above 101 V) and Application (Missiles, Artillery, Space Crafts, and Rockets): Global Opportunity Analysis and Industry Forecast, 2024-2033". According to the ...

  4. Thermal energy storage - Wikipedia

    en.wikipedia.org/wiki/Thermal_energy_storage

    An encapsulated thermal battery is physically similar to a phase change thermal battery in that it is a confined amount of physical material which is thermally heated or cooled to store or extract energy. However, in a non-phase change encapsulated thermal battery, the temperature of the substance is changed without inducing a phase change.

  5. Batteries in space - Wikipedia

    en.wikipedia.org/wiki/Batteries_in_space

    Vehicles such as the Apollo spacecraft and the Space Shuttle required more power than could be supplied by batteries or solar panels, and so relied on hydrogen fuel cells to provide several kilowatts of power for hundreds of hours. [2] A reserve battery is a primary battery that keeps its chemical reactants separated until needed. This improves ...

  6. List of spacecraft powered by non-rechargeable batteries

    en.wikipedia.org/wiki/List_of_spacecraft_powered...

    Examples with non-rechargeable battery power only Year [a] Spacecraft Role Battery life [b] Type of battery Parent Notes 1999 Deep Space 2: Scientific landers (2) 1–3 days (planned) [1] Lithium–thionyl chloride [1] Mars Polar Lander: Impact landers for Mars, lost during EDL: 2016 ExoMars Schiaparelli: Technology demonstration lander

  7. Spacecraft thermal control - Wikipedia

    en.wikipedia.org/wiki/Spacecraft_thermal_control

    The thermal control subsystem can be composed of both passive and active items and works in two ways: Protects the equipment from overheating, either by thermal insulation from external heat fluxes (such as the Sun or the planetary infrared and albedo flux), or by proper heat removal from internal sources (such as the heat emitted by the internal electronic equipment).

  8. Eagle-Picher - Wikipedia

    en.wikipedia.org/wiki/Eagle-Picher

    These batteries exceeded their projected 5-year life expectancy by 14 additional years, totaling 19 years battery life in space. [ 9 ] In January 1991 Eagle-Picher filed for bankruptcy protection having over $2.5 billion in asbestos-related claims asserted against it, [ 10 ] [ 11 ] as well as other environmental claims.

  9. Thermoelectric battery - Wikipedia

    en.wikipedia.org/wiki/Thermoelectric_battery

    The system's power density was some maximum power density of 60+-3 1 W m −2 (based on a single electrode), with a maximum energy density of 453 W h m −3 (normalized to the electrolyte volume), substantially higher than that of other liquid-centered thermal-electrics. [3] Power density increased with the number of batteries in the system. [1]