Abstract: A system, vehicle and method are provided that automatically activate and deactivate a driver assistance system. The automatic activation and deactivation depend on predefined criteria such as brake or gas pedal release, current vehicle velocity, and the presence of a lead vehicle.

Abstract: A system, vehicle and method are provided that automatically activate and deactivate a driver assistance system. The automatic activation and deactivation depend on predefined criteria such as brake or gas pedal release, current vehicle velocity, and the presence of a lead vehicle.

Abstract: A method and apparatus for cross validation of data using multiple subsystems are described. According to one embodiment of the invention, a computer comprises a first subsystem and a second subsystem; and a memory, the memory comprising a first memory region and a second memory region, the first memory region being associated with the first subsystem and a second memory region being associated with the second subsystem; upon start up of the computer, the first subsystem to validate the second memory region and the second subsystem to validate the first memory region.

Abstract: Active management technology (AMT) may be provisioned in a client device automatically, which may provide a secure connection between the provisioning server and the client device. The client device comprising the active management technology may support zero-touch provisioning and one-touch provisioning.

Abstract: A method and apparatus for cross validation of data using multiple subsystems are described. According to one embodiment of the invention, a computer comprises a first subsystem and a second subsystem; and a memory, the memory comprising a first memory region and a second memory region, the first memory region being associated with the first subsystem and a second memory region being associated with the second subsystem; upon start up of the computer, the first subsystem to validate the second memory region and the second subsystem to validate the first memory region.

Abstract: A method and apparatus for cross validation of data using multiple subsystems are described. According to one embodiment of the invention, a computer comprises a first subsystem and a second subsystem; and a memory, the memory comprising a first memory region and a second memory region, the first memory region being associated with the first subsystem and a second memory region being associated with the second subsystem; upon start up of the computer, the first subsystem to validate the second memory region and the second subsystem to validate the first memory region.

Abstract: Apparatus, system, and method having a first memory to receive a parameter associated with a second operating system protocol stack; and a first operating system protocol stack to be configured with said parameter. The system includes a communication medium and a manageability module. The method includes monitoring content of messages communicated between a host client computer and a server computer over a network, inspecting the content of the messages for protocol parameters, providing the protocol parameters to a manageability module associated with the host client computer, and configuring a second operating system protocol stack associated with the manageability module to match a first operating system protocol stack associated with the host client computer.

Abstract: A method and apparatus for cross validation of data using multiple subsystems are described. According to one embodiment of the invention, a computer comprises a first subsystem and a second subsystem; and a memory, the memory comprising a first memory region and a second memory region, the first memory region being associated with the first subsystem and a second memory region being associated with the second subsystem; upon start up of the computer, the first subsystem to validate the second memory region and the second subsystem to validate the first memory region.

Abstract: A method and apparatus for cross validation of data using multiple subsystems are described. According to one embodiment of the invention, a computer comprises a first subsystem and a second subsystem; and a memory, the memory comprising a first memory region and a second memory region, the first memory region being associated with the first subsystem and a second memory region being associated with the second subsystem; upon start up of the computer, the first subsystem to validate the second memory region and the second subsystem to validate the first memory region.

Abstract: Active management technology (AMT) may be provisioned in a client device automatically, which may provide a secure connection between the provisioning server and the client device. The client device comprising the active management technology may support zero-touch provisioning and one-touch provisioning.

Abstract: In one embodiment, a method is provided. The method of this embodiment provides receiving one or more packets that are addressed to an alternate IP (Internet Protocol) address and that include a LADLC (local application data link control) address in a system having an operating system-independent processor (“service processor”) associated with the alternate IP address and an alternate DLC address, and an embedded network stack (“ENS”) of the service processor associated with a primary IP address; performing filtering to determine if the LADLC address matches the alternate DLC address; and if the LADLC address matches the alternate DLC address, then replacing the alternate IP address of the one or more packets with the primary IP address, and forwarding the one or more packets to the ENS.

Abstract: A method and system may allow a management server in a first network to communicate via a mediator server with a management module of a computing system in a second network. The mediator server may establish a communication connection to the management module and the data transferred from the management server to the management module may be associated with the communication connection.

Abstract: A computer system is disclosed. The computer system includes a storage device, a device controller and a chipset. The device controller includes lock registers having values that correspond to the ranges of locked sectors of the storage device. The lock registers verify if a storage device access request is targeted for ranges of sectors of the storage device that are locked. The chipset includes an embedded controller to authenticate the storage device access request and to manage configuration of the storage device.

Abstract: Embodiments of the invention are generally directed to systems, apparatuses, and methods for a host software presence check from an isolated partition. In an embodiment, a presence verification component is located within an isolated partition. The isolated partition may be, for example, a service processor or a virtual partition implemented on a host platform. The presence verification component determines whether a host software agent is executing on the host platform. In one embodiment, the presence verification component initiates a remedial action, if the host software agent is not executing on the host platform. Other embodiments are described and claimed.

Abstract: Apparatus, system, and method having a first memory to receive a parameter associated with a second operating system protocol stack; and a first operating system protocol stack to be configured with said parameter. The system includes a communication medium and a manageability module. The method includes monitoring content of messages communicated between a host client computer and a server computer over a network, inspecting the content of the messages for protocol parameters, providing the protocol parameters to a manageability module associated with the host client computer, and configuring a second operating system protocol stack associated with the manageability module to match a first operating system protocol stack associated with the host client computer.

Abstract: In one embodiment, a method is provided. The method of this embodiment provides if an OOB (out-of-band) state machine has not received a confirmation from an operating system that the operating system is functional, the operating system using a primary IP (internet protocol) address, then if the OOB state machine is in a passive state, transitioning to an active state and obtaining an OOB IP address if the OOB state machine currently has no OOB IP address; and receiving one or more first packets using the OOB IP address.

Abstract: Apparatus and systems, as well as methods and articles, may operate to update an executable image associated with a network client basic input-output system (BIOS) from a remote network location during a time when a state of an operating system associated with the network client comprises one of active, inactive, accessible, inaccessible, present, corrupt, and missing.

Abstract: In one embodiment, a method is provided. The method of this embodiment provides receiving one or more packets that are addressed to an alternate IP (Internet Protocol) address and that include a LADLC (local application data link control) address in a system having an operating system-independent processor (“service processor”) associated with the alternate IP address and an alternate DLC address, and an embedded network stack (“ENS”) of the service processor associated with a primary IP address; performing filtering to determine if the LADLC address matches the alternate DLC address; and if the LADLC address matches the alternate DLC address, then replacing the alternate IP address of the one or more packets with the primary IP address, and forwarding the one or more packets to the ENS.

Abstract: Described is a computing platform comprising a host processing system to host an operating system, a communication adapter to transmit data to or and receive data from a data transmission medium, and a non-volatile storage. The computing platform may also comprise an agent executable independently of the operating system to enable read-only or read/write access to at least a portion of the non-volatile storage.

Abstract: An improved, adaptive optics control system is disclosed. The system comprises a wavefront corrector, a wavefront sensor, a wavefront reconstructor and a wavefront controller. The wavefront corrector has a surface controlled by a plurality of actuators. The wavefront slope sensor has a subaperture separation mechanism for defining a plurality of subapertures through which the distorted wavefront can pass, each subaperture corresponding to an actuator of the wavefront corrector. The wavefront slope sensor produces a wavefront sensor output signal for each subaperture indicative of the distortion of the wavefront. The wavefront reconstructor is adapted to receive the wavefront sensor output signals and calculate corresponding phase estimates based thereon, each phase estimate having a signal-to-noise ratio. The wavefront reconstructor generates a plurality of correction signals to be applied to each of the actuators of the wavefront corrector, each correction signal having a bandwidth.