| Battery Type: Chemistry of the battery cells, usually Lithium-ion or AGM. | Lithium-Ion |
|---|---|
| Capacity (Wh): Max capacity of the battery in watt-hours, e.g. a 100 watt lightbulb running on a 400 watt-hour battery would last 4 hours (in theory). | 168 |
| Capacity (Ah): An amp-hour is the amount of amperage the battery can provide for exactly one hour, e.g. if you run a device that pulls 20 amps for 1 hour that is 20 amp-hours. | 6.7 |
| Lifecycle: The number of charge and discharge cycles a battery can complete before performance will start to degrade. | hundreds of cycles |
| Recharge Time AC Adaptor: How long it takes to fully recharge using an AC Adaptor. | Not available |
| Output AC: The maximum output the battery can provide through the AC output plug. | 110V, 60Hz, 0.7A (80W continuous, 160W surge max) |
| Output USB-A: The maximum output the battery can provide through the USB-A plug. | 5V, up to 2.1A (10W max) |
| Output USB-C: The maximum output the battery can provide through the USB-C plug. | |
| Output Car Adaptor: The maximum output the battery can provide through the car adaptor. | 12V, up to 10A (120W max) |
| Weight: How much the unit weighs. | 12 lbs (5.4 kg) |
| Dimensions: The dimensions of the unit. | 7.75 x 5.75 x 6.75 in (19.7 x 14.6 x 17.2 cm) |
| Operating Temp Range: The temperature range in which the battery will best perform. | 32-104 F (0-40 C) |
| Warranty: How long is the manufacturers advertised warranty | 24 |
YETI 150
YETI 150
Specifications
A solar panel that is designed to produce the maximum amount of power possible given the amount of sunlight that is available.
Cell efficiency is a solar panel that is designed to be more efficient at converting sunlight into electricity. The higher the cell efficiency, the more electricity the panel can produce.
The power voltage in a solar panel is the amount of voltage that the panel produces when it is exposed to sunlight. The power voltage will vary depending on the type of solar panel and the amount of sunlight that the panel is exposed to.
Power current is the current that flows through a solar panel when it is exposed to sunlight. The current is used to generate electricity.
Open circuit voltage is the voltage across the terminals of a solar cell when no current is flowing. The open-circuit voltage of a solar cell increases as the intensity of sunlight increases.
Open circuit voltage is the voltage across the terminals of a solar cell when no current is flowing. The open-circuit voltage of a solar cell increases as the intensity of sunlight increases.
Open circuit voltage is the voltage across the terminals of a solar cell when no current is flowing. The open-circuit voltage of a solar cell increases as the intensity of sunlight increases.
Open circuit voltage is the voltage across the terminals of a solar cell when no current is flowing. The open-circuit voltage of a solar cell increases as the intensity of sunlight increases.
Open circuit voltage is the voltage across the terminals of a solar cell when no current is flowing. The open-circuit voltage of a solar cell increases as the intensity of sunlight increases.
Open circuit voltage is the voltage across the terminals of a solar cell when no current is flowing. The open-circuit voltage of a solar cell increases as the intensity of sunlight increases.
Open circuit voltage is the voltage across the terminals of a solar cell when no current is flowing. The open-circuit voltage of a solar cell increases as the intensity of sunlight increases.
Open circuit voltage is the voltage across the terminals of a solar cell when no current is flowing. The open-circuit voltage of a solar cell increases as the intensity of sunlight increases.
Open circuit voltage is the voltage across the terminals of a solar cell when no current is flowing. The open-circuit voltage of a solar cell increases as the intensity of sunlight increases.
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