Power consumption/power backup device-based ride-through system
A power consumption/power backup-based ride-through system includes a power supply system that is configured to supply power to the one or more components. A power backup device is coupled to the one or more components and the power supply system, and operates to monitor an amount of power provided by the power supply system to the one or more components. Based on the amount of power provided by the power supply system to the one or more components, as well as characteristics of the power backup device in some embodiments, the power backup device determines a ride-through time period for which the power backup device is capable of powering the one or more components. When the power backup device detects a loss of power to the one or more components, it powers the one or more components for the ride-through time period.
1. A power consumption/power backup-based ride-through system, comprising:
one or more components;
a power supply system that is coupled to the one or more components and that is configured to supply power to the one or more components; and
a power backup device that is coupled to the one or more components and the power supply system and that includes at least one power storage subsystem, wherein the power backup device is configured to:
monitor a component power consumption amount of power provided by the power supply system to the one or more components;
monitor a power storage subsystem temperature of the power storage subsystem;
determine a ride-through time period for which the power storage subsystem is capable of powering the one or more components using:
an initial energy amount of the power storage subsystem that is a function of the component power consumption amount and the power storage subsystem temperature;
a State Of Health (SOH) of the power storage subsystem;
a State Of Charge (SOC) of the power storage subsystem; and
the component power consumption amount;
detect a loss of power to the one or more components; and
power the one or more components for the ride-through time period.
2. The system of claim 1 , wherein the power backup device is configured to:
determine, a plurality of different times, respective ride-through time periods for which the power storage subsystem is capable of powering the one or more components;
detect the loss of power to the one or more components; and
power the one or more components for the respective ride-through time period determined at a most recent time that is included in the plurality of different times.
3. The system of claim 1 , wherein the component power consumption amount is a real-time component power consumption.
4. The system of claim 1 , wherein:
the SOH of the power storage subsystem indicates a decreased health of the power storage subsystem relative to an initial health of the power storage subsystem that was measured at the beginning of its lifecycle; and
the SOC of the power storage subsystem indicates a charging capability of the power subsystem relative to a full charged state of the power storage subsystem.
5. The system of claim 1 , wherein the power backup device is configured to:
determine that the loss of power to the one or more components continues at the end of the ride-through period and, in response, cause the components to perform vaulting operations.
6. The system of claim 1 , further comprising:
a current sensor device that is coupled to the power supply system and the power backup device, wherein the power backup device is configured to monitor a first current that is detected by the current sensor device and that provides a real-time measure of the component power consumption amount.
7. The system of claim 6 , further comprising:
a Baseboard Management Controller (BMC) device that is coupled to the power backup device, wherein the BMC device is configured to:
receive, from the power backup device, the first current that is detected by the current sensor device and that provides the real-time measure of the component power consumption amount; and
verify the real-time measure of the component power consumption amount using a second current that was received from a current monitoring subsystem and that does not provide a real-time measure of the component power consumption amount.
8. An Information Handling System (IHS), comprising:
a processing system; and
a memory system that is coupled to the processing system and that includes instructions that, when executed by the processing system, cause the processing system to provide a power backup engine that is configured to:
monitor a component power consumption amount of power provided by a power supply system to one or more components;
monitor a power storage subsystem temperature of a power storage subsystem;
determine a ride-through time period for which the power storage subsystem is capable of powering the one or more components using:
an initial energy amount of the power storage subsystem that is a function of the component power consumption amount and the power storage subsystem temperature;
a State Of Health (SOH) of the power storage subsystem;
a State Of Charge (SOC) of the power storage subsystem; and
the component power consumption amount;
detect a loss of power to the one or more components; and
cause the power storage subsystem to power the one or more components for the ride-through time period.
9. The IHS of claim 8 , wherein the power backup engine is configured to:
determine, a plurality of different times, respective ride-through time periods for which the power storage subsystem is capable of powering the one or more components;
detect the loss of power to the one or more components; and
cause the power storage subsystem to power the one or more components for the respective ride-through time period determined at a most recent time that is included in the plurality of different times.
10. The IHS of claim 8 , wherein the component power consumption amount is a real-time component power consumption amount.
11. The IHS of claim 8 , wherein
the SOH of the power storage subsystem indicates a decreased health of the power storage subsystem relative to an initial health of the power storage subsystem that was measured at the beginning of its lifecycle; and
the SOC of the power storage subsystem indicates a charging capability of the power subsystem relative to a full charged state of the power storage subsystem.
12. The IHS of claim 8 , wherein the power backup engine is configured to:
determine that the loss of power to the one or more components continues at the end of the ride-through period and, in response, cause the components to perform vaulting operations.
13. The IHS of claim 8 , wherein the power backup engine is configured to:
monitor a real-time measure of the component power consumption amount that is provided by a first current detected by a current sensor device.
14. A method for providing a power consumption/power backup-based ride-through for one or more components, comprising:
monitoring, by a power backup device, a component power consumption amount of power provided by a power supply system to one or more components;
monitoring, by the power backup device, a power storage subsystem temperature of a power storage subsystem that is included in the power backup device;
determining, by the power backup device, a ride-through time period for which the power backup device is capable of powering the one or more components using:
an initial energy amount of the power storage subsystem that is a function of the component power consumption amount and the power storage subsystem temperature;
a State Of Health (SOH) of the power storage subsystem;
a State Of Charge (SOC) of the power storage subsystem; and
the component power consumption amount;
detecting, by the power backup device, a loss of power to the one or more components; and
powering, by the power backup device, the one or more components for the ride-through time period.
15. The method of claim 14 , further comprising:
determining, by the power backup device a plurality of different times, respective ride-through time periods for which the power storage subsystem is capable of powering the one or more components;
detecting, by the power backup device, the loss of power to the one or more components; and
causing, by the power backup device, the power storage subsystem to power the one or more components for the respective ride-through time period determined at a most recent time that is included in the plurality of different times.
16. The method of claim 14 , wherein the component power consumption amount is a real-time component power consumption amount.
17. The method of claim 14 , wherein
the SOH of the power storage subsystem indicates a decreased health of the power storage subsystem relative to an initial health of the power storage subsystem that was measured at the beginning of its lifecycle; and
the SOC of the power storage subsystem indicates a charging capability of the power subsystem relative to a full charged state of the power storage subsystem.
18. The method of claim 14 , further comprising:
determining, by the power backup device, that the loss of power to the one or more components continues at the end of the ride-through period and, in response, causing the components to perform vaulting operations.
19. The method of claim 14 , further comprising:
monitoring, by the power backup device, a real-time measure of the component power consumption amount that is provided by a first current detected by a current sensor device.
20. The method of claim 14 , further comprising:
receiving, by a Baseboard Management Controller (BMC) device from the power backup device, the first current that is detected by the current sensor device and that provides the real-time measure of the component power consumption amount; and
verifying, by the BMC device, the real-time measure of the component power consumption amount using a second current that was received from a current monitoring subsystem and that does not provide a real-time measure of the component power consumption amount.