Abstract: In one or more embodiments, one or more systems, one or more methods, and/or one or more processes may determine an identification of an application executing on an information handling system (IHS); determine a first performance profile based at least on a policy and based at least on the identification of the application; configure a processor to utilize power up to a first power level based at least on the first performance profile; determine that a user physically utilizes at least one human input device of the IHS within an amount of time transpiring; receive information indicating that the user is physically in contact with the IHS; determine a second performance profile based at least on the policy and based at least on the information; and configure the processor to utilize power up to a second power level based at least on the second performance profile.

Abstract: A system and method for cooling components and a chassis in a portable information handling system includes a pressure barrier that divides the chassis into a plurality of zones, an evacuative fan in a first zone to generate airflow across components to cool the components and a hyperbaric fan in a second zone to increase air pressure in the second zone. The pressure barrier may provide thermal isolation, acoustic dampening and electromagnetic insulation. A controller communicatively coupled to the fans can operate each fan independently to cool components for improved performance and maintain a surface temperature of the chassis below a temperature for user comfort.

Abstract: In one or more embodiments, one or more systems, one or more methods, and/or one or more processes may determine an identification of an application executing on an information handling system (IHS); determine a first performance profile based at least on a policy and based at least on the identification of the application; configure a processor to utilize power up to a first power level based at least on the first performance profile; determine that a user physically utilizes at least one human input device of the IHS within an amount of time transpiring; receive information indicating that the user is physically in contact with the IHS; determine a second performance profile based at least on the policy and based at least on the information; and configure the processor to utilize power up to a second power level based at least on the second performance profile.

Abstract: In one or more embodiments, one or more systems, methods, and/or processes may: determine a utilization value of a processor; determine that the utilization value is at or is above a threshold utilization value; determine a temperature value of the processor; determine a temperature value of a voltage regulator that provides power to the processor; determine if the temperature value of the processor is below a first threshold value and if the temperature value of the voltage regulator is below a second threshold value; if so: determine first power utilization information that informs the processor that it is utilizing less power than it is currently utilizing and provide the first power utilization information to the processor; and otherwise: determine second power utilization information that informs the processor that it is utilizing more power than it is currently utilizing and provide the second power utilization information to the processor.

Abstract: In one or more embodiments, one or more systems, one or more methods, and/or one or more processes: may determine a first amount of power consumed by a processor of an information handling system; may configure power consumed by the processor to a second amount of power, lower than the first amount of power; may determine a first performance value based at least on a first change of frames per second and a first change of temperature; may determine a second performance value based at least on a second change of frames per second and a second change of temperature; may determine that the second performance value is greater than the first performance value; may configure power consumed by the processor to the second amount of power; and may configure power consumed by the a graphics processing unit of the information handling system to a third amount of power.

Abstract: In one or more embodiments, one or more systems, one or more methods, and/or one or more processes: may determine a first amount of power consumed by a processor of an information handling system; may configure power consumed by the processor to a second amount of power, lower than the first amount of power; may determine a first performance value based at least on a first change of frames per second and a first change of temperature; may determine a second performance value based at least on a second change of frames per second and a second change of temperature; may determine that the second performance value is greater than the first performance value; may configure power consumed by the processor to the second amount of power; and may configure power consumed by the a graphics processing unit of the information handling system to a third amount of power.

Abstract: A system and method for cooling components and a chassis in a portable information handling system includes a pressure barrier that divides the chassis into a plurality of zones, an evacuative fan in a first zone to generate airflow across components to cool the components and a hyperbaric fan in a second zone to increase air pressure in the second zone. The pressure barrier may provide thermal isolation, acoustic dampening and electromagnetic insulation. A controller communicatively coupled to the fans can operate each fan independently to cool components for improved performance and maintain a surface temperature of the chassis below a temperature for user comfort.

Abstract: In one or more embodiments, one or more systems, methods, and/or processes may: determine a utilization value of a processor; determine that the utilization value is at or is above a threshold utilization value; determine a temperature value of the processor; determine a temperature value of a voltage regulator that provides power to the processor; determine if the temperature value of the processor is below a first threshold value and if the temperature value of the voltage regulator is below a second threshold value; if so: determine first power utilization information that informs the processor that it is utilizing less power than it is currently utilizing and provide the first power utilization information to the processor; and otherwise: determine second power utilization information that informs the processor that it is utilizing more power than it is currently utilizing and provide the second power utilization information to the processor.

Abstract: In one or more embodiments, one or more systems, methods, and/or processes may determine if a user is in contact with an information handling system. If the user is not in contact with the information handling system, the information handling system may utilize a thermal profile. If the user is in contact with the information handling system, it may be determined if the user is in contact with a first display of multiple displays of the information handling system. If the user is in contact with the first display, processing of information may be migrated from a component associated with the first display to a component associated with a second display of the multiple displays. If the user is not in contact with the first display, processing of the information may be migrated from the component associated with the second display to the component associated with the first display.

Abstract: A multi-radial-zone varying blade density fan system includes a fan in a fan chassis including a plurality of fan blades. A first radial fan zone on the fan includes a first fan blade density provided by fan blades located in the first radial fan zone. A second radial fan zone on the fan is located adjacent the first radial fan zone and includes a second fan blade density that is greater than the first fan blade density and that is provided by fan blades located in the second radial fan zone. A third radial fan zone on the fan is located adjacent the second radial fan zone and includes a third fan blade density that is greater than the second fan blade density and that is provided by fan blades located in the third radial fan zone.

Abstract: In one or more embodiments, energy transfer device may include: a sealed housing having an evaporating region and a condensing region; a fluid; a Tesla valve enclosed in the housing, between the evaporating region and the condensing region and configured to transfer the fluid in a gaseous state from the evaporating region to the condensing region; and a first liquid fluid transfer structure enclosed in the housing, between the first condensing region and the first evaporating region and configured to transfer the fluid in a liquid state from the first condensing region to the first evaporating region. In one example, the liquid fluid transfer structure may include the Tesla valve. In another example, the liquid fluid transfer structure may include metal sintered particles. In one or more embodiments, the fluid may include one or more of acetone, ammonia, water, and a chlorofluorocarbon, among others.

Abstract: In one or more embodiments, one or more systems, methods, and/or processes may determine temperatures of respective components, of an information handling system, housed in a duct of the information handling system and vertically positioned within the duct; may determine that a first temperature of the temperatures associated with a respective first component of the components meets a temperature threshold; may determine that a second component of the components is vertically positioned above the first component; may determine, based at least on a second temperature of the temperatures, associated with the second component, that the second temperature can be increased; and may provide, to the second component, information that causes the second temperature of the second component to increase, causing air to flow from a first end of the duct to a second end of the duct.

Abstract: In one or more embodiments, one or more systems, methods, and/or processes may determine temperatures of respective components, of an information handling system, housed in a duct of the information handling system and vertically positioned within the duct; may determine that a first temperature of the temperatures associated with a respective first component of the components meets a temperature threshold; may determine that a second component of the components is vertically positioned above the first component; may determine, based at least on a second temperature of the temperatures, associated with the second component, that the second temperature can be increased; and may provide, to the second component, information that causes the second temperature of the second component to increase, causing air to flow from a first end of the duct to a second end of the duct.

Abstract: An external chassis wall liquid cooling system includes a chassis defining a chassis housing. A chassis wall is located on the chassis and includes a first surface that is located adjacent the chassis housing and a second surface that is located opposite the chassis wall from the first surface and that provides an outer surface of the chassis. A liquid cooling channel is defined by the chassis wall and extends through the chassis wall between the first surface and the second surface. A liquid is located in the liquid cooling channel, and a pump is coupled to the liquid cooling channel and configured to move the liquid through the liquid cooling channel. A fan system in the chassis housing may move air past heat producing components to transfer heat produced by those heat producing components, and the liquid may further dissipate that heat out of the chassis.

Abstract: In one or more embodiments, energy transfer device may include: a sealed housing having an evaporating region and a condensing region; a fluid; a Tesla valve enclosed in the housing, between the evaporating region and the condensing region and configured to transfer the fluid in a gaseous state from the evaporating region to the condensing region; and a first liquid fluid transfer structure enclosed in the housing, between the first condensing region and the first evaporating region and configured to transfer the fluid in a liquid state from the first condensing region to the first evaporating region. In one example, the liquid fluid transfer structure may include the Tesla valve. In another example, the liquid fluid transfer structure may include metal sintered particles. In one or more embodiments, the fluid may include one or more of acetone, ammonia, water, and a chlorofluorocarbon, among others.

Abstract: In one or more embodiments, one or more systems, methods, and/or processes may determine if a user is in contact with an information handling system. If the user is not in contact with the information handling system, the information handling system may utilize a thermal profile. If the user is in contact with the information handling system, it may be determined if the user is in contact with a first display of multiple displays of the information handling system. If the user is in contact with the first display, processing of information may be migrated from a component associated with the first display to a component associated with a second display of the multiple displays. If the user is not in contact with the first display, processing of the information may be migrated from the component associated with the second display to the component associated with the first display.

Abstract: An airflow control system includes a chassis defining a chassis housing that includes at least one airflow inlet and an airflow outlet. A cooled device is located in the chassis housing between the at least one airflow inlet and the airflow outlet. A convection enhancing heat element is located in the chassis housing between the cooled device and the airflow outlet. A controller is coupled to the convection enhancing heat element and configured to activate the convection enhancing heat element such that a convective airflow through the chassis housing is increased.

Abstract: An information handling system includes an electronic assembly, the assembly including heat-generating components arranged on a printed circuit board. The system further includes a conformal coating that is applied over a first region of the electronic assembly. The coating includes a graphene containing polymer material configured to dissipate heat away from the heat-generating components.

Abstract: An airflow control system includes a chassis defining a chassis housing that includes at least one airflow inlet and an airflow outlet. A cooled device is located in the chassis housing between the at least one airflow inlet and the airflow outlet. A convection enhancing heat element is located in the chassis housing between the cooled device and the airflow outlet. A controller is coupled to the convection enhancing heat element and configured to activate the convection enhancing heat element such that a convective airflow through the chassis housing is increased.

Abstract: An external chassis wall liquid cooling system includes a chassis defining a chassis housing. A chassis wall is located on the chassis and includes a first surface that is located adjacent the chassis housing and a second surface that is located opposite the chassis wall from the first surface and that provides an outer surface of the chassis. A liquid cooling channel is defined by the chassis wall and extends through the chassis wall between the first surface and the second surface. A liquid is located in the liquid cooling channel, and a pump is coupled to the liquid cooling channel and configured to move the liquid through the liquid cooling channel. A fan system in the chassis housing may move air past heat producing components to transfer heat produced by those heat producing components, and the liquid may further dissipate that heat out of the chassis.