introduction:overview_of_batteryless_devices
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| introduction:overview_of_batteryless_devices [2024/10/30 15:24] – [Embedded Programming vs "Typical" (Application/Enterprise) Programming] ibchadmin | introduction:overview_of_batteryless_devices [2024/12/04 16:58] (current) – [How Batteryless Devices Work] ibchadmin | ||
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| - **Matched operation**: | - **Matched operation**: | ||
| - | It should be noted that the circuit designed above is the simplest implementation: | + | It should be noted that the circuit designed above is the simplest implementation: |
| Regardless of the energy configuration used, however, it is likely that processing will consume more power than is available in a single cycle: as a result, an intermittent device will often save (checkpoint) the current system state periodically, | Regardless of the energy configuration used, however, it is likely that processing will consume more power than is available in a single cycle: as a result, an intermittent device will often save (checkpoint) the current system state periodically, | ||
| Line 50: | Line 50: | ||
| ==== Power restrictions ==== | ==== Power restrictions ==== | ||
| - | Total power is considerably | + | Capacitors can store only a fraction of the energy that a similarly-sized battery can. This means that power, when it is available, will often be considerably |
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| + | For example, a traditional device may use its MCU to calculate whether a minimum voltage threshold has been reached, but in an intermittent circuit using the MCU in this fashion will often consume too much of the available power to be viable, | ||
| ==== Efficiency ==== | ==== Efficiency ==== | ||
introduction/overview_of_batteryless_devices.1730301869.txt.gz · Last modified: 2024/10/30 15:24 by ibchadmin
