Granted Patent B2

US 11,853,024 · App. 16/938,699 · Granted Dec 26, 2023

Inventors: Steven Embleton (Austin, TX); Jon Taylor Fitch (Austin, TX); Sandor T. Farkas (Round Rock, TX); Joseph Danny King (Georgetown, TX)

Assignee: Dell Products L.P.

G05B19/0428G01N17/00G01N17/04G06F1/206G06F11/3058G05B2219/24015

Abstract

Claims (92)

1. A computing device of an information handling system, comprising:

an environmental control component; and

an environmental manager programmed to:

identify an aggregate amount of corrosion of a component of the information handling system;

obtain a rate of corrosion associated with the component, wherein the rate of corrosion specifies at least one selected from a group consisting of a corrosion impact (CI) of water vapor on the component, a CI of a chemical substance on the component, a CI of a temperature change on the component, and a CI of a chemically reactive and humid gas on the component;

make a determination that the rate of corrosion indicates that the component will suffer a premature failure;

in response to the determination:

identify an environmental control modification that will reduce a chemically reactive and humid gas flowrate within an internal environment of a chassis that houses the computing device to remediate the premature failure of the component; and

update an operation of the environmental control component based on the environmental control modification.

2. The computing device of claim 1 , wherein the environmental manager is further programmed to:

identify a second aggregate amount of corrosion of a second component of the information handling system;

obtain a second rate of corrosion associated with the second component;

make a second determination that the rate of corrosion indicates that the component is unlikely to prematurely fail;

in response to the second determination:

identify a second environmental control modification that:

reduces an energy consumption rate used for management of the internal environment, and

increases the second rate of corrosion; and

updates an operation of the environmental control component based on the second environmental control modification.

3. The computing device of claim 1 , wherein the environment control modification comprises:

increasing a temperature of the environment proximate to the component while a temperature of the component is above a nominal temperature range associated with the component.

4. The computing device of claim 3 , wherein updating the operation of the environmental control component comprises reducing the flowrate within the environment proximate to the component generated by the environmental control component.

5. The computing device of claim 1 , wherein obtaining the rate of corrosion associated with the component comprises:

obtaining a corrosion rate estimate using a corrosion detector;

obtaining a first temperature of an ambient environment proximate to the corrosion detector;

obtaining a second temperature of an environment proximate to the component; and

obtaining an estimate of the rate of corrosion of the component based on the corrosion rate estimate, the first temperature, and the second temperature.

6. The computing device of claim 1 , wherein obtaining the rate of corrosion associated with the component comprises:

obtaining a corrosion rate estimate for the component using a corrosion detector that is associated with the component.

7. The computing device of claim 1 , wherein the environmental manager is further programmed to:

after updating the operation of the environmental control component:

make a second determination that a temperature of the component has exceeded a nominal range associated with the component;

in response to the second determination:

revert the operation of the environmental control component; and

decrease a humidity level of a source of a flow of the gas proximate to the component.

8. A method for environmentally managing a computing device of an information handling system, comprising:

identifying an aggregate amount of corrosion of a component of the information handling system;

obtaining a rate of corrosion associated with the component, wherein the rate of corrosion specifies at least one selected from a group consisting of a corrosion impact (CI) of water vapor on the component, a CI of a chemical substance on the component, a CI of a temperature change on the component, and a CI of a chemically reactive and humid gas on the component;

making a determination that the rate of corrosion indicates that the component will suffer a premature failure;

in response to the determination:

identifying an environmental control modification that will reduce a chemically reactive and humid gas flowrate within an internal environment of a chassis that houses the computing device to remediate the premature failure of the component; and

updating an operation of an environmental control component of the computing device based on the environmental control modification.

9. The method of claim 8 , further comprising:

identifying a second aggregate amount of corrosion of a second component of the information handling system;

obtaining a second rate of corrosion associated with the second component;

making a second determination that the rate of corrosion indicates that the component is unlikely to prematurely fail;

in response to the second determination:

identifying a second environmental control modification that:

reduces an energy consumption rate used for management of the internal environment, and

increases the second rate of corrosion; and

updating an operation of the environmental control component based on the second environmental control modification.

10. The method of claim 8 , wherein the environment control modification comprises:

increasing a temperature of the environment proximate to the component while a temperature of the component is above a nominal temperature range associated with the component.

11. The method of claim 10 , wherein updating the operation of the environmental control component comprises reducing the flowrate within the environment proximate to the component generated by the environmental control component.

12. The method of claim 8 , wherein obtaining the rate of corrosion associated with the component comprises:

obtaining a corrosion rate estimate using a corrosion detector;

obtaining a first temperature of an ambient environment proximate to the corrosion detector;

obtaining a second temperature of an environment proximate to the component; and

obtaining an estimate of the rate of corrosion of the component based on the corrosion rate estimate, the first temperature, and the second temperature.

13. The method of claim 8 , wherein obtaining the rate of corrosion associated with the component comprises:

obtaining a corrosion rate estimate for the component using a corrosion detector that is disposed upstream from the component.

14. The method of claim 8 , further comprising

after updating the operation of the environmental control component:

making a second determination that a temperature of the component has exceeded a nominal range associated with the component;

in response to the second determination:

reverting the operation of the environmental control component; and

decreasing a humidity level of a source of a flow of the gas proximate to the component.

15. A non-transitory computer readable medium comprising computer readable program code, which when executed by a computer processor enables the computer processor to perform a method for environmentally managing a computing device of an information handling system, the method comprising:

identifying an aggregate amount of corrosion of a component of the information handling system;

obtaining a rate of corrosion associated with the component, wherein the rate of corrosion specifies at least one selected from a group consisting of a corrosion impact (CI) of water vapor on the component, a CI of a chemical substance on the component, a CI of a temperature change on the component, and a CI of a chemically reactive and humid gas on the component;

making a determination that the rate of corrosion indicates that the component will suffer a premature failure;

in response to the determination:

identifying an environmental control modification that will reduce a chemically reactive and humid gas flowrate within an internal environment of a chassis that houses the computing device to remediate the premature failure of the component; and

updating an operation of a environmental control component of the computing device based on the environmental control modification.

16. The non-transitory computer readable medium of claim 15 , wherein the method further comprises:

identifying a second aggregate amount of corrosion of a second component of the information handling system;

obtaining a second rate of corrosion associated with the second component;

making a second determination that the rate of corrosion indicates that the component is unlikely to prematurely fail;

in response to the second determination:

identifying a second environmental control modification that:

reduces an energy consumption rate used for management of the internal environment, and

increases the second rate of corrosion; and

updating an operation of the environmental control component based on the second environmental control modification.

17. The non-transitory computer readable medium of claim 15 , wherein the environment control modification comprises:

increasing a temperature of the environment proximate to the component while a temperature of the component is above a nominal temperature range associated with the component.

18. The non-transitory computer readable medium of claim 17 , wherein updating the operation of the environmental control component comprises reducing the flowrate within the environment proximate to the component generated by the environmental control component.

19. The non-transitory computer readable medium of claim 15 , wherein obtaining the rate of corrosion associated with the component comprises:

obtaining a corrosion rate estimate using a corrosion detector;

obtaining a first temperature of an ambient environment proximate to the corrosion detector;

obtaining a second temperature of an environment proximate to the component; and

obtaining an estimate of the rate of corrosion of the component based on the corrosion rate estimate, the first temperature, and the second temperature.

20. The non-transitory computer readable medium of claim 15 , wherein obtaining the rate of corrosion associated with the component comprises:

obtaining a corrosion rate estimate for the component using a corrosion detector that is disposed upstream from the component.

Assignments (9)