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: An embodiment provides a method, including: providing a multi-protocol connector in an electronic device for connecting at least one storage device thereto; determining, using an operative coupling between the multi-protocol connector and the electronic device, if the electronic device supports one or more protocols of the multi-protocol connector; and providing an informational prompt for each determined protocol of the multi-protocol connector that the electronic device supports. Other aspects are described and claimed.

Abstract: For dynamic application optimization, a method is disclosed that includes detecting, by use of a processor, an altered need for a resource in an executing application, identifying one or more configuration parameters for configuring an operating environment for the application, and applying the one or more configuration parameters in response to detecting the altered need.

Abstract: For remote diagnostics of a computing device, a method is disclosed that includes collecting failure information from a computing device, wherein the computing device has an error, encapsulating the failure information into a file, and transmitting the file from the computing device to a remote device using a low level file transfer protocol.

Abstract: Described is a technology by which two or more air moving devices have some of their control lines combined, including a frequency control line from a controller. Along with the combined frequency control line, power voltage lines and ground lines and may be combined, with a separate sensing line for each air moving device. One or more couplers couples the combined lines to air moving device control circuitry.

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: Described is a technology by which two or more air moving devices have some of their control lines combined, including a frequency control line from a controller. Along with the combined frequency control line, power voltage lines and ground lines and may be combined, with a separate sensing line for each air moving device. One or more couplers couples the combined lines to air moving device control circuitry.

Abstract: An apparatus, system, and method are disclosed for providing customized thermal control data structures. The default thermal control data structure is typically stored in a first storage device of the IOS module of the information processing system. A custom thermal control data structure is stored on a second storage device that is separately updatable from the first storage device. The thermal cooling module that provides cooling for the information processing system is directed to use the custom thermal control data structure for cooling components of the information processing system.

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: An apparatus for adjusting a memory transfer setting includes a storage device storing machine-readable code and a processor executing the machine-readable code. The machine-readable code includes a determination module determining that an amount of main memory exceeds a threshold percentage of secondary storage on an information handling device. The machine readable code also includes an adjustment module adjusting a memory transfer setting on the information handling device in response to the determination module determining that the amount of main memory exceeds the threshold percentage.

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 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.

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 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 power supply is disposed adjacent a first end of a chassis. The chassis comprises a z axis from the first end to a second end of the chassis and an x axis orthogonal to the z axis. A bay is disposed adjacent the first end of the chassis along the x axis from the power supply. The bay comprises at least one storage device. A chamber is disposed adjacent the first end of the chassis adjacent the bay along the x axis between the bay and the power supply. A first baffle is disposed offset from the power supply, the bay, and the chamber along the z axis toward the second end. The first baffle forms a first section and isolates a first airflow in the first section from a second airflow.

Abstract: An apparatus, system, and method are disclosed for routing a power cable assembly. A motherboard is disposed in a chassis. A power cable assembly is routed parallel to a plane of the motherboard and comprises a plurality of power cables. Each power cable is in physical and electrical communication with a power supply. The power cable assembly is organized in a 1×n array, wherein n is a positive integer greater than five and the power cable assembly is in electrical communication with the motherboard.

Abstract: A method and corresponding network interface device for communicating between devices connected to a LAN includes attempting to communicate between the network devices over an initial subset of the network media wires. If the communication fails, a subsequent subset of media wires is selected. The wires of this subsequent subset differ from the wires of the initial subset. If the attempted communication succeeds, the current subset of network media wires is used as the media over which subsequent network data is transmitted. Attempting to communicate over the media may include sending an initialization sequence such as an Ethernet Auto-negotiate sequence. In one embodiment, the network media is implemented as 8 wires of CAT 5 cabling suitable for use with a Gigabit Ethernet. In this embodiment, any subsequent subsets of the network media wires may consist of 4 of the 8 wires over which 100 Mbps Ethernet operation may occur.

Abstract: A method and corresponding network interface device for communicating between devices connected to a LAN includes attempting to communicate between the network devices over an initial subset of the network media wires. If the communication fails, a subsequent subset of media wires is selected. The wires of this subsequent subset differ from the wires of the initial subset. If the attempted communication succeeds, the current subset of network media wires is used as the media over which subsequent network data is transmitted. Attempting to communicate over the media may include sending an initialization sequence such as an Ethernet Auto-negotiate sequence. In one embodiment, the network media is implemented as 8 wires of CAT 5 cabling suitable for use with a Gigabit Ethernet. In this embodiment, any subsequent subsets of the network media wires may consist of 4 of the 8 wires over which 100 Mbps Ethernet operation may occur.

Abstract: An Ethernet auto-negotiate extension incorporates a gigabit verification procedure following the establishment of a gigabit level of serve. If auto-negotiate resolves a gigabit data rate for a particular connection, the auto-negotiate extension verifies that each of the eight required wires is functional. The verification extension sends a data pattern that can by detected only if all eight wires are functional. In this manner, the ability of each wire to transition between 1's and 0's at the highest possible data rate is verified. The gigabit verification extension will detect flag any wires that are missing, grounded from a previous 10 or 100 Mbps system or otherwise non-functional. By incorporating this functional verification extension, the invention recognizes the limited functional verification inherent in auto-negotiate. The invention leaves the core pieces of the auto-negotiate process intact thereby minimizing the impact on existing systems.

Abstract: A method and corresponding network interface device for communicating between devices connected to a LAN includes attempting to communicate between the network devices over an initial subset of the network media wires. If the communication fails, a subsequent subset of media wires is selected. The wires of this subsequent subset differ from the wires of the initial subset. If the attempted communication succeeds, the current subset of network media wires is used as the media over which subsequent network data is transmitted. Attempting to communicate over the media may include sending an initialization sequence such as an Ethernet Auto-negotiate sequence. In one embodiment, the network media is implemented as 8 wires of CAT 5 cabling suitable for use with a Gigabit Ethernet. In this embodiment, any subsequent subsets of the network media wires may consist of 4 of the 8 wires over which 100 Mbps Ethernet operation may occur.