Abstract: The present disclosure includes apparatus, methods, and systems for error detection for a semiconductor device. An apparatus includes a memory array, a detector array, and a detector coupled to the detector array. The detector is configured to detect an error in a portion of the detector array and output an output signal to memory components coupled to the detector array in response to detecting the error.

Abstract: Systems and procedures are provided for importing cryptographic credentials of a customer to an IHS (Information Handling System). During factory provisioning of the IHS, a signed inventory certificate is uploaded to the IHS that includes an encrypted access code for unlocking the IHS and also includes encrypted credentials provided by the customer. Upon delivery and initialization of the IHS, the inventory certificate is retrieved by a pre-boot validation process. A cryptographic challenge is issued that presents the encrypted access code. Further initialization of the IHS is halted until a response to the challenge is received from the customer that provides the decrypted access code. When the decrypted access code is received, further initialization of the IHS is enabled and the encrypted credentials from the inventory certificate are imported to the IHS, thus allowing the customer to establish an independent root of trusted components using the IHS.

Abstract: Various embodiments provide methods for validating hardware modifications of an IHS (Information Handling System) by confirming that a hardware modification corresponds to a hardware component supplied for installation in the IHS by a trusted entity. During factory provisioning of an IHS, an inventory certificate that specifies the factory installed IHS hardware is uploaded to the IHS and is also stored for ongoing support of the IHS. Upon a hardware component being supplied for installation in the IHS by a trusted entity, the inventory of the stored inventory certificate is updated to identify the supplied component and the updated certificate is transmitted to the IHS. An inventory of detected hardware components of the IHS is compared against the inventory from the updated inventory certificate in order to validate the detected hardware of the IHS includes the component, supplied by the trusted entity, that is identified in the updated inventory certificate.

Abstract: A voucher management system receives, from a computing device manufacturer system, an ownership voucher that transfers ownership of a computing device from the computing device manufacturer system to the voucher management system, and a hardware attestation certificate for the computing device, and associates them with the computing device in a voucher management database. When the voucher management system determines that the ownership of the computing device should be transferred to an end user system, it automatically generates second ownership transfer data by signing an end user system public key with a voucher management system private key, provides the second ownership transfer data in the ownership voucher in order to transfer ownership of the computing device from the voucher management system to the end user system, and provides the ownership voucher and the hardware attestation certificate to the end user system.

Abstract: A mechanism for identifying a position of one or more anatomical landmarks in a medical image. The medical image is processed with a machine-learning algorithm to generate, for each pixel/voxel of the medical image, an indicator that indicates whether or not the pixel represents part of an anatomical landmark. The indicators are then processed in turn to predict a presence and/or position of the one or more anatomical landmarks.

Abstract: The present invention relates to an X-ray imaging system (10), comprising: an X-ray image acquisition unit (20); and a processing unit (30). The processing unit is configured to instruct the X-ray image acquisition unit to carry out a sequence of scans of a body part of a patient. The X-ray image acquisition unit is configured to provide the processing unit with an X-ray image of the body part for a scan of the sequence of scans. The processing unit is configured to determine that the scan needs to be repeated, wherein the determination comprises analysis of the X-ray image of the body part. The processing unit is configured to determine that an action other than acquisition of the next scan in the scan sequence is required, wherein the determination comprises analysis of the X-ray image of the body part.

Abstract: Systems and methods provide validation of hardware components of an IHS (Information Handling System). An attestation certificate stored to the IHS specifies authenticated instructions for operation of a hardware component of the IHS. This attestation certificate is endorsed by a self-signed root attestation certificate. An identity certificate, also stored to the IHS, specifies an identity of the hardware component and is endorsed using an embedded keypair of the hardware component. The root attestation certificate is validated to ensure it corresponds to the hardware component specified in the identity certificate, where this validation confirms that a public key included in the identity certificate is identical to a public key included in the attestation certificate.

Abstract: System and method are provided for assigning a service identifier for use by an IHS (Information Handling System), where a new service identifier may be assigned to the IHS due to replacement of hardware of the IHS. The IHS is provisioned with an inventory certificate that identifies hardware components of the IHS, including a service identifier for the IHS. Support provided for the IHS is tracked based on this service identifier. A hardware component of the IHS is removed, where the service identifier is assigned to this removed hardware component. A replacement hardware component is installed in the IHS. An updated inventory certificate is generated that assigns a new service identifier to the replacement hardware component installed in the IHS. The IHS is provisioned with the updated inventory certificate that specifies the new service identifier. Support provided for the IHS is now tracked based on the new service identifier.

Abstract: The disclosure relates to a system for analysis of medical image data, which represents a two-dimensional or three-dimensional medical image. The system is configured to read and/or determine, for the medical image, a plurality of image quality metrics and to determine a combined quality metrics based on the image quality metrics. The system is further configured so that the determination of the combined quality metrics takes into account an interaction between the image quality metrics in their combined effect on the combined quality metrics.

Abstract: An embodiment of the present invention is directed to a Dynamic Audit Solution (DAS) that provides and enables a transformative audit methodology that uses data, embedded knowledge and advanced technologies to help inform auditor judgment through the selection of relevant procedures at the appropriate time. The Dynamic Audit Solution improves overall quality and value through a modernized audit approach that leverages technology, data and knowledge to create and support the execution of an effective and efficient methodology.

Abstract: An automatic drug delivery device is described, comprising: a housing (1); a skin sensor element (15) coupled to the housing and movable relative to the housing, wherein the skin sensor element is biased into a front position relative to the housing and is movable to a rear position relative to the housing when the skin sensor element is pressed against an injection site; a needle assembly comprising a hypodermic needle (11), the hypodermic needle extending outside of the housing when the device is in a needle insertion configuration; a drug delivery mechanism comprising a stored energy source (4), within the housing; wherein the drug delivery mechanism is released when the skin sensor element is moved from the front position towards the rear position and wherein the stored energy source is arranged to expand along an axis that is offset from an axis of travel of the needle assembly in use; a needle retraction mechanism configured to withdraw the hypodermic needle into the housing when the needle retraction m

Abstract: A folding play structure is provided. The play structure is convertible between a storage position and a use position, and has first, second, third and fourth sidewalls. A center beam is positioned between the first sidewall and the second sidewall. A first foldable frame structure joins one end of the first sidewall to one end of the second sidewall, and a second foldable frame structure joins the other end of the first sidewall to the other end of the second sidewall. A frame lock is provided and is prevented from moving when the play structure is in the use position to retain the structure in the use position. The structure has legs, a slide and a ladder.

Abstract: A system for verifying unique components are installed in an end user information handling system comprises a manufacturing facility collecting component information into a data structure, encrypting the data structure, creating a secured component verification (SCV) certificate, signing the SCV certificate and communicating the SCV certificate to a repository, the repository storing the signed SCV certificate. A copy of the signed SCV certificate is saved onto the information handling system. When the information handling system is delivered, the copy of the SCV certificate is compared with the SCV certificate stored in the repository. If they match, the information handling system is verified. If a unique component is replaced, a delta certificate is created and stored with the original SCV certificate in the repository such that all changes to unique components in the information handling system are tracked.

Abstract: Systems and procedures are provided for tracking hardware components of an IHS (Information Handling System). During factory provisioning of an IHS, an inventory certificate to the IHS is stored to the IHS that includes an inventory identifying factory-installed hardware components of the IHS. Also during the factory provisioning, a record is stored in a component datastore of the factory-installed hardware specified in the inventory certificate. Upon initialization of the delivered IHS, a pre-boot validation environment is initialized on the IHS and the stored inventory certificate is retrieved and used to validate the detected hardware components of the IHS. The results of the validation are then reported to a component datastore, where they are used to identify any transfer of a factory-installed hardware component. The factory datastore is updated in subsequent validations to reflect any detected modifications to the IHS in tracking genuine components.

Abstract: Systems and procedures are provided for validating an IHS (Information Handling System) as operating using only factory-provisioned lockable devices. During factory provisioning of the IHS, a signed inventory certificate is uploaded to the IHS that includes an inventory of factory-provisioned lockable devices and also includes encrypted code(s) for accessing the lockable devices. Upon delivery and initialization of the IHS, the inventory certificate is retrieved by a pre-boot validation process. An inventory of detected lockable devices of the IHS is then collected. The validation process compares the collected inventory of detected lockable devices against the inventory of factory-provisioned lockable devices from the inventory certificate in order to validate the IHS is operating using only factory-provisioned lockable devices.

Abstract: Systems and procedures are provided for provisioning an IHS (Information Handling System) to support validation of hardware components of the IHS. As part of manufacture of the IHS, an inventory of factory-installed hardware components of the IHS is generated. During factory provisioning, cryptographic capabilities of the IHS are used to generate a keypair, with the generated private key stored to a protected memory of the IHS. The inventory of factory-installed hardware components is signed using the private key. A trusted component of the IHS generates a certificate signing request (CSR) including the public key of the generated keypair, the digitally signed inventory and extensions identifying the factory-installed hardware components. A signed identity certificate is generated that attests to the digitally signed inventory, ownership of the private key corresponding to the public key from the CSR, and the extensions identifying the factory-installed hardware components of the IHS.

Abstract: Methods and systems are provided for validating and registering an IHS (Information Handling System) and components of the IHS for technical support. Upon delivery and initialization of an IHS, an inventory certificate that was uploaded to the IHS during factory provisioning of the IHS is retrieved. The inventory certificate includes an inventory that identifies factory-installed hardware components in the IHS. The inventory also specifies whether a registration requirement has been specified for the IHS, such as to initiate technical support. While still operating a pre-boot validation process, an inventory is collected of the detected hardware components of the IHS. Based on the inventory certificate, the validation process confirms whether a detected hardware component is a factory-installed hardware component and determines whether registration is required. If required, registration of the IHS is initiated by the validation process and initialization of the IHS continues.

Abstract: Systems and procedures are provided for enforcing geographic restrictions on the operation of an IHS (Information Handling System). During factory provisioning of the IHS, a signed inventory certificate is uploaded to the IHS that specifies a plurality of allowed geographic locations at which the IHS is operational. Upon delivery and initial powering of the IHS, a validation environment is instantiated and further initialization of the IHS is halted until a location of the IHS can be determined. Once a geographic location of the IHS has been determined, it is compared to the allowed geographic locations from the inventory certificate stored during factory provisioning. When the location of the IHS is not at an allowed geographic location specified in the inventory certificate, the IHS is rendered non-operational. When the location of the IHS is at an allowed geographic location specified in the inventory certificate, further initialization of the IHS is enabled.