Abstract: A processing system with multiple processing units may support separate operating systems (OSs) in separate partitions. During an initialization process, a preboot manager in the processing system may copy software to a sequestered area of memory in the processing system. The preboot manager may also configure the processing system to hide the sequestered area of memory from a first partition of the processing system. Also, the preboot manager may use a first processing unit in the processing system to boot an OS on the first partition, and the preboot manager may transmit a boot trigger from the first processing unit to a second processing unit in the processing system. The boot trigger may cause the second processing unit to use the software in the sequestered area of memory to boot a second partition of the processing system. Other embodiments are described and claimed.

Abstract: A processing system with multiple processing units may support separate operating systems (OSs) in separate partitions. During an initialization process, a preboot manager in the processing system may copy software to a sequestered area of memory in the processing system. The preboot manager may also configure the processing system to hide the sequestered area of memory from a first partition of the processing system. Also, the preboot manager may use a first processing unit in the processing system to boot an OS on the first partition, and the preboot manager may transmit a boot trigger from the first processing unit to a second processing unit in the processing system. The boot trigger may cause the second processing unit to use the software in the sequestered area of memory to boot a second partition of the processing system. Other embodiments are described and claimed.

Abstract: A processing system with multiple processing units may support separate operating systems (OSs) in separate partitions. During an initialization process, a preboot manager in the processing system may copy software to a sequestered area of memory in the processing system. The preboot manager may also configure the processing system to hide the sequestered area of memory from a first partition of the processing system. Also, the preboot manager may use a first processing unit in the processing system to boot an OS on the first partition, and the preboot manager may transmit a boot trigger from the first processing unit to a second processing unit in the processing system. The boot trigger may cause the second processing unit to use the software in the sequestered area of memory to boot a second partition of the processing system. Other embodiments are described and claimed.

Abstract: A system and method of idle driven scheduling in a network device is disclosed. An interrupt signal is received from a timer, wherein a network processing component of a network device awakes from sleep mode of a first sleep duration for a first cycle upon receiving the interrupt signal. Load information of a computer processing unit in the network device for the first cycle is determined. A second sleep duration is selected for the network processing component in a second cycle based on the load information, wherein the second sleep duration is different from the first sleep duration. The timer is then instructed to send the interrupt signal to the network processing component at an expiration of the second sleep duration.

Abstract: A system and method of idle driven scheduling in a network device is disclosed. An interrupt signal is received from a timer, wherein a network processing component of a network device awakes from sleep mode of a first sleep duration for a first cycle upon receiving the interrupt signal. Load information of a computer processing unit in the network device for the first cycle is determined. A second sleep duration is selected for the network processing component in a second cycle based on the load information, wherein the second sleep duration is different from the first sleep duration. The timer is then instructed to send the interrupt signal to the network processing component at an expiration of the second sleep duration.

Abstract: An apparatus and method for a dynamically extensible virtual switch. An apparatus or virtual switch includes at least one router and a data structure. The router utilizes the data structure to organize a connection between one or more virtual network interface cards (VNICs) to form a virtual network. The virtual switch also identifies a VNIC node of a data frame by its unique identifier, utilizes the unique identifier to index a collection of elements to retrieve a pointer to a virtual network head, and forwards the data frame to all VNIC nodes in a VNIC node listing associated with the virtual network head except for a VNIC node that relates to the unique identifier.

Abstract: A processing system with multiple processing units may support separate operating systems (OSs) in separate partitions. During an initialization process, a preboot manager in the processing system may copy software to a sequestered area of memory in the processing system. The preboot manager may also configure the processing system to hide the sequestered area of memory from a first partition of the processing system. Also, the preboot manager may use a first processing unit in the processing system to boot an OS on the first partition, and the preboot manager may transmit a boot trigger from the first processing unit to a second processing unit in the processing system. The boot trigger may cause the second processing unit to use the software in the sequestered area of memory to boot a second partition of the processing system. Other embodiments are described and claimed.

Abstract: A processing system with multiple processing units may support separate operating systems (OSs) in separate partitions. During an initialization process, a preboot manager in the processing system may copy software to a sequestered area of memory in the processing system. The preboot manager may also configure the processing system to hide the sequestered area of memory from a first partition of the processing system. Also, the preboot manager may use a first processing unit in the processing system to boot an OS on the first partition, and the preboot manager may transmit a boot trigger from the first processing unit to a second processing unit in the processing system. The boot trigger may cause the second processing unit to use the software in the sequestered area of memory to boot a second partition of the processing system. Other embodiments are described and claimed.

Abstract: A processing system with multiple processing units may support separate operating systems (OSs) in separate partitions. During an initialization process, a preboot manager in the processing system may copy software to a sequestered area of memory in the processing system. The preboot manager may also configure the processing system to hide the sequestered area of memory from a first partition of the processing system. Also, the preboot manager may use a first processing unit in the processing system to boot an OS on the first partition, and the preboot manager may transmit a boot trigger from the first processing unit to a second processing unit in the processing system. The boot trigger may cause the second processing unit to use the software in the sequestered area of memory to boot a second partition of the processing system. Other embodiments are described and claimed.

Abstract: A processing system may include a first processing unit for a legacy partition and a second processing unit for a sequestered partition. In one embodiment, a first interrupt handler in the legacy partition may support power management for the first processing unit. A second interrupt handler in the sequestered partition may cause the sequestered partition to take control of power management hardware in the processing system when the legacy partition enters reduced power mode. For example, the second interrupt handler may program the power management hardware to route interrupts to the second processing unit. The sequestered partition may relinquish control of power management hardware to the legacy partition when the legacy partition exits reduced power mode. A power policy manager in the sequestered partition may support features such as wake for incoming communications, wake to record, etc. Other embodiments are described and claimed.

Abstract: In a processing system with a main partition and a sequestered partition, the main partition sends an interrupt to the sequestered partition before calling an operating system (OS) boot loader for the main partition. The sequestered partition may then enter an interrupt handler. After the sequestered partition enters the interrupt handler, an address line of the processing system may be disabled, and the OS boot loader for the non-sequestered partition may be called. The sequestered partition may then determine whether the address line has been re-enabled. The sequestered partition may remain in the interrupt handler until after the address line has been re-enabled. Other embodiments are described and claimed.

Abstract: Devices in a processing system may be managed by performing a first scan of a bus of the processing system from a first partition. In one embodiment, the first scan may discover location information for devices on the bus. A communications hub of the processing system may be programmed to hide at least one of the devices on the bus. After the communications hub is so programmed, the first partition may scan the bus again. A second partition of the processing system may receive location information for one or more of the devices detected in the first scan but not detected in the second scan. In one embodiment, the second partition may boot, and then the communications hub may again be programmed to hide at least one of the devices on the bus. An operating system may then boot on the first partition. Other embodiments are described and claimed.

Abstract: A processing system may include a first processing unit for a legacy partition and a second processing unit for a sequestered partition. In one embodiment, a first interrupt handler in the legacy partition may support power management for the first processing unit. A second interrupt handler in the sequestered partition may cause the sequestered partition to take control of power management hardware in the processing system when the legacy partition enters reduced power mode. For example, the second interrupt handler may program the power management hardware to route interrupts to the second processing unit. The sequestered partition may relinquish control of power management hardware to the legacy partition when the legacy partition exits reduced power mode. A power policy manager in the sequestered partition may support features such as wake for incoming communications, wake to record, etc. Other embodiments are described and claimed.

Abstract: In a processing system with a main partition and a sequestered partition, the main partition sends an interrupt to the sequestered partition before calling an operating system (OS) boot loader for the main partition. The sequestered partition may then enter an interrupt handler. After the sequestered partition enters the interrupt handler, an address line of the processing system may be disabled, and the OS boot loader for the non-sequestered partition may be called. The sequestered partition may then determine whether the address line has been re-enabled. The sequestered partition may remain in the interrupt handler until after the address line has been re-enabled. Other embodiments are described and claimed.

Abstract: Apparatus, systems, methods, and articles may operate to store one or more parameters associated with a pseudo-device in a device configuration table associated with a first partition within a multi-partition computing platform. An inter-partition bridge (IPB) may be exposed to an operating system executing within the first partition. The IPB may be adapted to couple the first partition to a second partition sequestered from the first partition. The IPB may be configured by the parameter(s) associated with the pseudo-device. Other embodiments may be described and claimed.

Abstract: A processing system may include a first processing unit for a legacy partition and a second processing unit for a sequestered partition. In one embodiment, a first interrupt handler in the legacy partition may support power management for the first processing unit. A second interrupt handler in the sequestered partition may cause the sequestered partition to take control of power management hardware in the processing system when the legacy partition enters reduced power mode. For example, the second interrupt handler may program the power management hardware to route interrupts to the second processing unit. The sequestered partition may relinquish control of power management hardware to the legacy partition when the legacy partition exits reduced power mode. A power policy manager in the sequestered partition may support features such as wake for incoming communications, wake to record, etc. Other embodiments are described and claimed.

Abstract: A system includes an interface device that executes a driver and a processing device that executes instructions to implement a virtual machine, and to implement a virtual network interface card that is configurable to enable communication between the driver and the virtual machine. The processor executes instructions to configure the virtual network interface card.

Abstract: A processing system with multiple processing units may support separate operating systems (OSs) in separate partitions. During an initialization process, a preboot manager in the processing system may copy software to a sequestered area of memory in the processing system. The preboot manager may also configure the processing system to hide the sequestered area of memory from a first partition of the processing system. Also, the preboot manager may use a first processing unit in the processing system to boot an OS on the first partition, and the preboot manager may transmit a boot trigger from the first processing unit to a second processing unit in the processing system. The boot trigger may cause the second processing unit to use the software in the sequestered area of memory to boot a second partition of the processing system. Other embodiments are described and claimed.

Abstract: In a processing system with a main partition and a sequestered partition, the main partition sends an interrupt to the sequestered partition before calling an operating system (OS) boot loader for the main partition. The sequestered partition may then enter an interrupt handler. After the sequestered partition enters the interrupt handler, an address line of the processing system may be disabled, and the OS boot loader for the non-sequestered partition may be called. The sequestered partition may then determine whether the address line has been re-enabled. The sequestered partition may remain in the interrupt handler until after the address line has been re-enabled. Other embodiments are described and claimed.

Abstract: A processing system may include a first processing unit for a first partition and a second processing unit for a second partition. To support power management, an interrupt handler in the processing system may receive a standby command from an operating system. In response to receiving the standby command, the interrupt handler may cause the first processing unit to transition into a reduced power mode. After the second partition detects a wake event, the second partition may cause the first processing unit to transition out of the reduced power mode. In an example embodiment, the interrupt handler executes within the first partition, and the first processing unit transitions into the reduced power mode by entering an idle loop within the interrupt handler. The first partition may determine from within the idle loop whether the first partition has been released from the low power state. Other embodiments are described and claimed.