Abstract: Techniques and apparatus for remotely accessing debugging resources of a target system are described. A target system including physical compute resources, such as, processors and a chipset can be coupled to a controller remotely accessible over a network. The controller can be arranged to facilitate remote access to debug resources of the physical compute resources. The controller can be coupled to debug pin, such as, those of a debug port and arranged to assert control signals on the pins to access debug resources. The controller can also be arranged to exchange information elements with a remote debug host to include indication of debug operations and/or debug results.

Abstract: Techniques and apparatus for remotely accessing debugging resources of a target system are described. A target system including physical compute resources, such as, processors and a chipset can be coupled to a controller remotely accessible over a network. The controller can be arranged to facilitate remote access to debug resources of the physical compute resources. The controller can be coupled to debug pin, such as, those of a debug port and arranged to assert control signals on the pins to access debug resources. The controller can also be arranged to exchange information elements with a remote debug host to include indication of debug operations and/or debug results.

Abstract: Techniques and apparatus for remotely accessing debugging resources of a target system are described. A target system including physical compute resources, such as, processors and a chipset can be coupled to a controller remotely accessible over a network. The controller can be arranged to facilitate remote access to debug resources of the physical compute resources. The controller can be coupled to debug pin, such as, those of a debug port and arranged to assert control signals on the pins to access debug resources. The controller can also be arranged to exchange information elements with a remote debug host to include indication of debug operations and/or debug results.

Abstract: Techniques for providing power to components of a computer system are described. An example of a computer system includes a plurality of server nodes and a power distribution system that provides power to the plurality of server nodes. The computer system also includes a hardware-based alert signal line that couples the power distribution system to the plurality of server nodes. If a power failure occurs, the power distribution system is to send an alert signal to all of the server nodes through the alert signal line. The alert signal triggers each server node to activate a low power state.

Abstract: Techniques and apparatus for remotely accessing debugging resources of a target system are described. A target system including physical compute resources, such as, processors and a chipset can be coupled to a controller remotely accessible over a network. The controller can be arranged to facilitate remote access to debug resources of the physical compute resources. The controller can be coupled to debug pin, such as, those of a debug port and arranged to assert control signals on the pins to access debug resources. The controller can also be arranged to exchange information elements with a remote debug host to include indication of debug operations and/or debug results.

Abstract: Techniques for providing power to components of a computer system are described. An example of a computer system includes a plurality of server nodes and a power distribution system that provides power to the plurality of server nodes. The computer system also includes a hardware-based alert signal line that couples the power distribution system to the plurality of server nodes. If a power failure occurs, the power distribution system is to send an alert signal to all of the server nodes through the alert signal line. The alert signal triggers each server node to activate a low power state.

Abstract: A system and method for dynamically configuring an information handling system includes a configurable backplane having one or more connectors, at least one switch, one or more terminations, and at least one sense engine. The switch includes an open state and a closed state while the terminations include an active state and an inactive state. The sense engine interfaces with the connectors, the switch, and the terminations and detects peripheral attachments to the connectors. Based on the detection information, the sense engine determines if the switch should be in the open or closed state and determines whether each termination should be in the active or inactive state. The sense engine alters the switch setting and the termination states.

Abstract: A system and method for dynamically configuring an information handling system includes a configurable backplane having one or more connectors, at least one switch, one or more terminations, and at least one sense engine. The switch includes an open state and a closed state while the terminations include an active state and an inactive state. The sense engine interfaces with the connectors, the switch, and the terminations and detects peripheral attachments to the connectors. Based on the detection information, the sense engine determines if the switch should be in the open or closed state and determines whether each termination should be in the active or inactive state. The sense engine alters the switch setting and the termination states.

Abstract: A system and method are provided for configuring an I/O bus. The system and method includes a plurality of adapter cards. A plurality of adapter card slots associated with the I/O busses receive the adapter cards into the computer. A user initiates optimization to check for configuration optimization problems and more specifically to check the placement of the adapter cards within the adapter card slots of the I/O busses. The user initiates optimization and in turn activates the improvement engine within the computer. The improvement engine analyzes the data transfer rates of the I/O busses and adapter cards and the placement of the adapter cards to determine an improved configuration of the adapter cards within the I/O busses. Indicators located proximate to the I/O busses display visual indication regarding the adapter card placement within the I/O busses allowing the user to determine if the configuration can be improved.

Abstract: A system and method are provided for configuring an I/O bus. The system and method includes a plurality of adapter cards. A plurality of adapter card slots associated with the I/O busses receive the adapter cards into the computer. A user initiates optimization to check for configuration optimization problems and more specifically to check the placement of the adapter cards within the adapter card slots of the I/O busses. The user initiates optimization and in turn activates the improvement engine within the computer. The improvement engine analyzes the data transfer rates of the I/O busses and adapter cards and the placement of the adapter cards to determine an improved configuration of the adapter cards within the I/O busses. Indicators located proximate to the I/O busses display visual indication regarding the adapter card placement within the I/O busses allowing the user to determine if the configuration can be improved.