Abstract: An apparatus and method for scheduling threads on local and remote processing resources.

Abstract: An apparatus and method for scheduling threads on local and remote processing resources.

Abstract: An apparatus and method for scheduling threads on local and remote processing resources.

Abstract: An apparatus and method for scheduling threads on local and remote processing resources.

Abstract: Examples are disclosed for establishing a secure destination address range responsive to initiation of a direct memory access (DMA) operation. The examples also include allowing decrypted content obtained as encrypted content from a source memory to be placed at a destination memory based on whether destination memory addresses for the destination memory fall within the secure destination address range.

Abstract: Examples are disclosed for establishing a secure destination address range responsive to initiation of a direct memory access (DMA) operation. The examples also include allowing decrypted content obtained as encrypted content from a source memory to be placed at a destination memory based on whether destination memory addresses for the destination memory fall within the secure destination address range.

Abstract: Examples are disclosed for establishing a secure destination address range responsive to initiation of a direct memory access (DMA) operation. The examples also include allowing decrypted content obtained as encrypted content from a source memory to be placed at a destination memory based on whether destination memory addresses for the destination memory fall within the secure destination address range.

Abstract: Examples are disclosed for establishing a secure destination address range responsive to initiation of a direct memory access (DMA) operation. The examples also include allowing decrypted content obtained as encrypted content from a source memory to be placed at a destination memory based on whether destination memory addresses for the destination memory fall within the secure destination address range.

Abstract: Examples are disclosed for establishing a secure destination address range responsive to initiation of a direct memory access (DMA) operation. The examples also include allowing decrypted content obtained as encrypted content from a source memory to be placed at a destination memory based on whether destination memory addresses for the destination memory fall within the secure destination address range.

Abstract: A platform to support verification of the contents of an input-output device. The platform includes a platform hardware, which may verify the contents of the I/O device. The platform hardware may comprise components such as manageability engine and verification engine that are used to verify the contents of the I/O device even before the contents of the I/O device are exposed to an operating system supported by a host. The platform components may delete the infected portions of the contents of I/O device if the verification process indicates that the contents of the I/O device include the infected portions.

Abstract: In network access control networks, it may be difficult to provide certain remote accesses such as remote boot or remote storage access. An available network connection established through chipset firmware (e.g. active management technology (AMT)) may be utilized to establish a connection and to enable the remote access. Then as soon the completion of the activity is detected, such as remote booting, then the connection may be immediately terminated to prevent access by improper agents.

Abstract: A platform to support verification of the contents of an input-output device. The platform includes a platform hardware, which may verify the contents of the I/O device. The platform hardware may comprise components such as manageability engine and verification engine that are used to verify the contents of the I/O device even before the contents of the I/O device are exposed to an operating system supported by a host. The platform components may delete the infected portions of the contents of I/O device if the verification process indicates that the contents of the I/O device include the infected portions.

Abstract: A system reserves and manages a hidden service partition through components of the hardware platform of a computing device. The hidden partition is not accessible by way of a host operating system on the computing device. A hardware platform controller provisions a portion of nonvolatile storage through configuration settings of the hardware platform controller. When the host system requests settings related to storage in the system, the request is routed through the interfaces of the hardware platform, and the hardware platform controller reports in accordance with the configuration settings, hiding the service partition. The hidden partition is dynamically modifiable through secure remote access to the hardware platform controller, not through the host system such as operating system or BIOS.

Abstract: In some embodiments, a secure authenticated remote boot of computing device over a wireless network is performed in a pre-boot execution environment (PXE) using active management technology (AMT) for remote discovery. In these embodiments, a management engine (ME) may maintain full control of a wireless interface and a wireless connection as booting begins. The ME may relinquish control of the wireless interface after a PXE timeout, in response to a shutdown command, or once the device has booted. The ME controls the use of an operating system received from a remote location.

Abstract: A method and device for providing a secure scan of a data storage device from a remote server are disclosed. In some embodiments, a computing device may include an in-band processor configured to execute an operating system and at least one host driver, communication circuitry configured to communicate with a remote server, and an out-of-band (OOB) processor capable of communicating with the remote server using the communication circuitry irrespective of the state of the operating system. The OOB processor may be configured to receive a block read request from the remote server, instruct the at least one host driver to send a storage command to a data storage device, receive data retrieved from the data storage device and authentication metadata generated by the data storage device, and transmit the data and the authentication metadata to the remote server.

Abstract: In some embodiments, a secure authenticated remote boot of computing device over a wireless network is performed in a pre-boot execution environment (PXE) using active management technology (AMT) for remote discovery. In these embodiments, a management engine (ME) may maintain full control of a wireless interface and a wireless connection as booting begins. The ME may relinquish control of the wireless interface after a PXE timeout, in response to a shutdown command, or once the device has booted. The ME controls the use of an operating system received from a remote location.

Abstract: A platform to support verification of the contents of an input-output device. The platform includes a platform hardware, which may verify the contents of the I/O device. The platform hardware may comprise components such as manageability engine and verification engine that are used to verify the contents of the I/O device even before the contents of the I/O device are exposed to an operating system supported by a host. The platform components may delete the infected portions of the contents of I/O device if the verification process indicates that the contents of the I/O device include the infected portions.

Abstract: Examples are disclosed for establishing a secure destination address range responsive to initiation of a direct memory access (DMA) operation. The examples also include allowing decrypted content obtained as encrypted content from a source memory to be placed at a destination memory based on whether destination memory addresses for the destination memory fall within the secure destination address range.

Abstract: A method and device allowing a scan of a data storage device from a remote server are disclosed. In some embodiments, a computing device may include an out-of-band (OOB) configured to compute a first hash value for data stored in one or more sectors of a data storage device at a first time; receive, using communication circuitry, a request to transmit a portion of the data stored in the one or more sectors of the data storage device at a second time, the second time being subsequent to the first time; compute a second hash value for the data stored in the one or more sectors of the data storage device at the second time; and transmit, using the communication circuitry, the requested portion of the data, only if the second hash value does not match the first hash value.

Abstract: A platform to support verification of the contents of an input-output device. The platform includes a platform hardware, which may verify the contents of the I/O device. The platform hardware may comprise components such as manageability engine and verification engine that are used to verify the contents of the I/O device even before the contents of the I/O device are exposed to an operating system supported by a host. The platform components may delete the infected portions of the contents of I/O device if the verification process indicates that the contents of the I/O device include the infected portions.