Abstract: One embodiment provides a method, including: obtaining, using at least one sensor, a value related to a current overall power consumption for an electronic device; calculating, using a processor, a forecasted heat value calculated from the current overall power consumption, wherein the forecasted heat value indicates an expected value of heat for a region of the electronic device, wherein the calculating comprises correlating the current overall power consumption to a forecasted heat value; and proactively cooling, based upon a fan control algorithm, the electronic device prior to a sensor detecting a temperature corresponding to the expected value of heat, wherein the proactively cooling comprises adjusting a speed of one or more fans located within the electronic device based on the calculated heat value.

Abstract: Substantially homogeneous and stable suspensions of anthraquinone (AQ) compositions and methods of preparation are disclosed. The AQ compositions are utilized in pulping processes.

Abstract: An embodiment provides a method, including: receiving, from a temperature sensor disposed within an electronic device, temperature input relative to a first heat generating component; the first heat generating component being upstream of a cooling element of the electronic device; receiving, from a temperature sensor disposed within an electronic device, temperature input relative to a second heat generating component; the second heat generating component being downstream of the cooling element; and controlling the cooling element to cool the first and second heat generating components based on both the temperature input relative to the first heat generating component and the temperature input relative to the second heat generating component. Other aspects are described and claimed.

Abstract: A drive cage can include a base side and a top side that define altitude of the drive cage; a front end and a back end that define longitude of the drive cage; a lateral side disposed between the front end and the back end and between the base side and the top side; drive bays where each drive bay extends longitudinally; a first wire bundle clip fixed to the top side that extends longitudinally to a free end; and a second wire bundle clip fixed to the lateral side that extends altitudinally to a free end. Such an example may further include a wire bundle clipped to the drive cage via the first wire bundle clip and the second wire bundle clip. Various other apparatuses, systems, methods, etc., are also disclosed.

Abstract: One embodiment provides a method, including: obtaining, using a processor, a value related to power consumption for an electronic device; calculating, using a processor, a heat value based on the value related to power consumption; and adjusting, using a processor, one or more cooling elements based on the heat value. Other aspects are described and claimed.

Abstract: Apparatus, methods, and systems are disclosed for a power supply adapted to receive power from an outlet, the power input having a property, such as amperage, frequency or voltage. An indicator is provided on the connector to the power cord to indicate a value for the property to the power supply, wherein the power supply adapts to the value for the property. By providing an indication of the property the system is capable of reducing functionality to meet the capabilities of the power supply. A power cord may be provided with a male plug at one end capable of being inserted into a socket with a minimum value for a property, and the other end of the power cord may have a connector with an indicator to identify the minimum value for the power cord.

Abstract: An embodiment provides a method, including: receiving, from a temperature sensor disposed within an electronic device, temperature input relative to a first heat generating component; the first heat generating component being upstream of a cooling element of the electronic device; receiving, from a temperature sensor disposed within an electronic device, temperature input relative to a second heat generating component; the second heat generating component being downstream of the cooling element; and controlling the cooling element to cool the first and second heat generating components based on both the temperature input relative to the first heat generating component and the temperature input relative to the second heat generating component. Other aspects are described and claimed.

Abstract: A pulping process comprises using a high concentration of anthraquinone (AQ). The pulping process is capable of providing a pulp having low Kappa number with unexpectedly high strength. The pulping process can use wood or non-wood fibers (e.g., bagasse and corn stover) to provide pulp having good papermaking quality. The method for pulping a fiber comprising cooking a first mixture comprising the fibers, water, an alkali, and a delignification selectivity enhancing chemical for a cooking time and at a cooking condition sufficient to form a first pulp having a desired Kappa number of about 15 or less, and strength parameters that are sufficient for papermaking, where the starting material prior to cooking has a Kappa number of 60 or greater.

Abstract: One aspect of the invention relates to a pulp composition made from agricultural renewable fibers (ARF) having low Kappa number with unexpected quality sufficient for papermaking (e.g., high strength parameters and high freeness). Another aspect of the invention relates to an ARF pulp having ISO brightness of 60% or higher, and unexpected quality sufficient for papermaking (e.g. high strength parameters and high freeness). Another aspect of the invention relates to a pulp composition made from a pulping process comprising using a high concentration of anthraquinone (AQ). The pulping process can use wood or nonwood fibers (e.g., bagasse and corn stover) to provide pulp having good paper-making quality.

Abstract: One aspect of the invention relates to an article of manufacture made from a pulp composition comprising an ARF pulp. In one embodiment, the pulp composition made from agricultural renewable fibers (ARF) having low Kappa number with unexpected quality sufficient for papermaking (e.g., high strength parameters and high freeness). In another embodiment, the ARF pulp has ISO brightness of 60% or higher, and unexpected quality sufficient for papermaking (e.g. high strength parameters and high freeness). In another embodiment, the ARF pulp is made from a pulping process comprising using a high concentration of anthraquinone (AQ).

Abstract: A memory cooling duct can include: a front end and a back end; a top that includes a fan mount disposed between the front end and the back end; a front end vent; a front edge, a back edge and opposing side edges that define a rectangular bottom opening; and a flexible lever at the front end that includes a locking surface for locking the memory cooling duct over a rectangular array of memory sockets. Various other apparatuses, systems, methods, etc., are also disclosed.

Abstract: One aspect of the invention relates to an article of manufacture made from a pulp composition comprising an ARF pulp. In one embodiment, the pulp composition made from agricultural renewable fibers (ARF) having low Kappa number with unexpected quality sufficient for papermaking (e.g., high strength parameters and high freeness). In another embodiment, the ARF pulp has ISO brightness of 60% or higher, and unexpected quality sufficient for papermaking (e.g. high strength.parameters and high freeness). In another embodiment, the ARF pulp is made from a pulping process comprising using a high concentration of anthraquinone (AQ).

Abstract: One aspect of the invention relates to a pulp composition made from agricultural renewable fibers (ARF) having low Kappa number with unexpected quality sufficient for papermaking (e.g., high strength parameters and high freeness). Another aspect of the invention relates to an ARF pulp having ISO brightness of 60% or higher, and unexpected quality sufficient for papermaking (e.g. high strength parameters and high freeness). Another aspect of the invention relates to a pulp composition made from a pulping process comprising using a high concentration of anthraquinone (AQ). The pulping process can use wood or nonwood fibers (e.g., bagasse and corn stover) to provide pulp having good paper-making quality.

Abstract: A pulping process comprises using a high concentration of anthraquinone (AQ). The pulping process is capable of providing a pulp having low Kappa number with unexpectedly high strength. The pulping process can use wood or non-wood fibers (e.g., bagasse and corn stover) to provide pulp having good papermaking quality. The method for pulping a fiber comprising cooking a first mixture comprising the fibers, water, an alkali, and a delignification selectivity enhancing chemical for a cooking time and at a cooking condition sufficient to form a first pulp having a desired Kappa number of about 15 or less, and strength parameters that are sufficient for papermaking, where the starting material prior to cooking has a Kappa number of 60 or greater.

Abstract: A computer housing can include a front end and a back end; a back edge; opposing lateral sides; a top side; a base disposed between the front end and the back end and between the opposing lateral sides; and two spherical cap pads attached to the base that define, with respect to the back edge, a maximum tilt angle for downward movement of the back end responsive to upward movement of the front end of the computer housing. Various other apparatuses, systems, methods, etc., are also disclosed.

Abstract: A computer housing can include a front end and a back end; a back edge; opposing lateral sides; a top side; a base disposed between the front end and the back end and between the opposing lateral sides; and two spherical cap pads attached to the base that define, with respect to the back edge, a maximum tilt angle for downward movement of the back end responsive to upward movement of the front end of the computer housing. Various other apparatuses, systems, methods, etc., are also disclosed.

Abstract: A memory cooling duct can include: a front end and a back end; a top that includes a fan mount disposed between the front end and the back end; a front end vent; a front edge, a back edge and opposing side edges that define a rectangular bottom opening; and a flexible lever at the front end that includes a locking surface for locking the memory cooling duct over a rectangular array of memory sockets. Various other apparatuses, systems, methods, etc., are also disclosed.

Abstract: A drive cage can include a base side and a top side that define altitude of the drive cage; a front end and a back end that define longitude of the drive cage; a lateral side disposed between the front end and the back end and between the base side and the top side; drive bays where each drive bay extends longitudinally; a first wire bundle clip fixed to the top side that extends longitudinally to a free end; and a second wire bundle clip fixed to the lateral side that extends altitudinally to a free end. Such an example may further include a wire bundle clipped to the drive cage via the first wire bundle clip and the second wire bundle clip. Various other apparatuses, systems, methods, etc., are also disclosed.

Abstract: A method, apparatus, and system are disclosed for a planar adapter card retainer bracket that is removably attachable to a computer chassis and is formed with a plurality of plunger openings. Each plunger opening is configured to receive a respective adapter card retainer plunger. The adapter card retainer plunger is configured to extend from the bracket into the computer chassis to engage an edge of an adapter card thereby retaining the adapter card in a selected slot even if the adapter card is a low-profile adapter card.

Abstract: A computer system retrieves a performance value that corresponds to a first fan's performance, which is controlled by a first fan controller. Next, the computer system generates a control setting based upon the retrieved performance value. In turn, a second fan controller controls a second fan based upon the generated control setting. In one embodiment, the first fan controller is an automatic fan controller and the second fan controller is a manual fan controller.