Abstract: Embodiments described herein relate to systems and methods for automatically generating content for a generative answer interface of a collaboration platform. The system receives a natural language user input identifies corresponding blocks of text using an content extraction service. A prompt is generated using the blocks of text and used to obtain a generative response. The generative response and links to corresponding content are displayed in the generative answer interface and can be inserted into content of the collaboration platform. The systems and methods described use a network architecture that includes a prompt generation service and a set of one or more purpose-configured large language model instances (LLMs) and/or other trained classifiers or natural language processors used to provide generative responses for content collaboration platforms.

Abstract: Systems, methods, and other embodiments described herein relate to generating designs using learning models for analogics that process text and sketch-based inputs. In one embodiment, a method includes estimating analogical suggestions using a transformer model for a text prompt having design parameters. The method also includes generating an image using a learning model for an expression selected from the analogical suggestions and a sketched stroke inputted. The method also includes manipulating a modified sketch by the learning model and the modified sketch is derived from a sketched conversion of the image by an edge model.

Abstract: A method may include receiving imagery data from a wellsite; analyzing the imagery data for detection personal protective equipment; determining a risk to a human at the wellsite based on the analyzing; and, responsive to the determining, issuing an instruction to reduce the risk.

Abstract: A method may include receiving imagery data from a wellsite that includes a catwalk system; analyzing the imagery data to detect movement with respect to the catwalk system; determining a risk to a human at the wellsite based on the detected movement; and, responsive to the determining, issuing an instruction to reduce the risk.

Abstract: An information handling system may include a host central processing unit (CPU), a non-CPU processing unit, and a non-host device. The information handling system may be configured to, during execution of a pre-boot environment: establish trust between the host CPU and the non-host device via a cryptographic measurement; transfer data regarding the established trust from the host CPU to the non-CPU processing unit; and execute code associated with the non-host device on the non-CPU processing unit.

Abstract: An information handling system may include a host central processing unit (CPU); and a non-CPU processing unit. The information handling system may be configured to, during execution of a pre-boot environment: perform boot tasks on the host CPU; and perform diagnostic tasks on the non-CPU processing unit. The non-CPU processing unit may be an application processing unit (APU) and/or a graphics processing unit (GPU).

Abstract: A method may include receiving imagery data from a wellsite; analyzing the imagery data to detect movement; determining a risk to a human at the wellsite based on the detected movement; and, responsive to the determining, issuing an instruction to reduce the risk.

Abstract: Systems, methods, and other embodiments described herein relate to identifying and generating mechanisms from natural processes by a learning model for accelerating design development. In one embodiment, a method includes identifying mechanisms for a design task using a prompt transformer with seeds from biological processes, and the prompt transformer forms a taxonomy tree using the mechanisms. The method also includes generating functional solutions that expand sparse branches of the taxonomy tree for the mechanisms using the prompt transformer. The method also includes clustering the mechanisms using text embedding for the design task. The method also includes inspecting the mechanisms with the prompt transformer to select a solution associated with the design task.

Abstract: A method for operating a facility, the method including receiving real-time facility data representing an operational state of the facility, determining that an area of the facility is restricted based on the real-time facility data and a set of facility access rules that associates the operational facility state with at least one restricted area of the facility, and receiving image data representing at least a portion of the restricted area of the facility. The set of facility access rules may be selectively adjusted, and a portion of the received image data may be marked as the restricted within a graphical interface that is displayed on a screen that is associated with a user. A determination may then be made if there is a violation of the set of facility access rules based on the received image data, allowing for a corrective action to then be taken.

Abstract: Controlling power factor correction (PFC) in a secondary-controlled alternating current (AC) to direct current (DC) (AC-DC) power adapter is described. In one embodiment, an apparatus includes a transformer, a primary-side controller coupled to the transformer, a PFC component coupled to the primary-side controller, and a secondary-side controller coupled to the transformer. The secondary-side controller is configured at least to obtain data informative of an amount of power, and control, based on the amount of power, a PFC operating mode of the PFC component.

Abstract: Disclosed are package devices that include interconnects on first and second surfaces of a package substrate. The interconnects on the first surface of the package substrate are configured to carry general purpose input-output (GPIO) and miscellaneous IO signals. The interconnects on the second surface of the package substrate are configured to carry high speed input-output (HSIO) signals-signals whose speeds are above some minimum speed threshold. In this way, the package form can be reduced while still allowing for increased number of IO signals to be delivered.

Abstract: A system includes one or more hardware processors to perform operations for receiving, from a first entity of a financial entity network, a first data request to obtain a private data of a second entity of the financial entity network, and for authenticating the first data request. The operations also include retrieving, from a data repository, an encrypted private data when the first data request is authenticated, and creating, via a dynamic key exchange system, a first single use key. The operations further include providing the first single use key to the first entity, and receiving, from the first entity, a second data request to obtain the private data. The operations also include authenticating the second data request, and providing a second encrypted private data to the first entity when the second data request is authenticated, wherein the second encrypted data is decrypted using the first single use key.

Abstract: A method includes receiving a payment request that indicates a card identifier corresponding to a payment instrument to be used for payment. The method further includes determining that the card identifiers fails to satisfy at least one card activity criteria. Additionally, method includes subsequent to determining that no failed authorization attempts were performed for the card identifier within a previous time period, retrieving, from a database, a decline probability score associated with the card identifier. The method also includes based on the decline probability score, determining whether to transmit an authorization request for the card identifier prior to processing the payment request.

Abstract: A unified electronic control unit (ECU) interface provides a bridge from ECU clients to the ECU. The ECU interface may be implemented on a vehicle's onboard computer, and it may be used by clients executing on the onboard computer and, in some cases, by clients outside the onboard computer. The ECU interface may receive a request from a client in a first messaging format, e.g., a local networking protocol used by processes running on the vehicle. The ECU interface translates the request into a second messaging format and transmits the request to the ECU. The ECU interface receives a response from the ECU and translates the response into the first messaging format for delivery to the client. The ECU interface may further perform authentication of the client and/or the ECU, packet serialization of the response from the ECU, packet diagnostics, and other functionalities associated with communicating with the ECU.

Abstract: Systems and methods of the present disclosure enable the automated provisioning of security and compliance policies and onboarding to identity governance solutions. The systems and methods include processors to receive a database provisioning request associated with at least one entity and accessing at least one identity data record via an identity management mechanism associated with the at least one entity. The processors automatically access the database via a secured port; automatically cause to generate in the database, at least one privilege account and at least one access credential rule based on the at least one identity data record. The database is configured to utilize the at least one access credential rule to automatically manage access credentials for accessing the database via the at least one privilege account. The processors automatically disconnect from the secured port of the database.

Abstract: An integrated circuit (IC) device includes a substrate. The substrate includes a first side having a stepped configuration having a first surface that is elevated relative to a second surface. The first surface includes first solder resist openings (SROs), and the second surface includes second SROs. The IC device includes a first set of solder balls electrically connected to a first set of contacts in the first SROs. A solder ball of the first set of solder balls has a first characteristic dimension. The IC device also includes a second set of solder balls electrically connected to a second set of contacts in the second SROs. A solder ball of the second set of solder balls has a second characteristic dimension larger than the first characteristic dimension.

Abstract: A device comprising a first package and a second package coupled to the first package through a first plurality of solder interconnects. The first package includes a first substrate comprising at least one first dielectric layer and a first plurality of interconnects, and a first integrated device coupled to the first substrate. The second package includes a second substrate comprising at least one second dielectric layer and a second plurality of interconnects, a second integrated device coupled to a first surface of the second substrate, a third integrated device coupled to the first surface of the second substrate through a second plurality of solder interconnects and a first plurality of channel interconnects coupled to the first surface of the second substrate, wherein the first plurality of channel interconnects is located between solder interconnects from the second plurality of solder interconnects.

Abstract: A thermal management system enables fluid coupling of the cooling circuits for the battery and the propeller arrangements. More than one propeller arrangement can be serviced by the same cooling circuit, but distribution of the coolant may be finessed. Optional pathways are provided to use heated coolant for heating (e.g., de-icing, cabin heating, etc.) before cooling the coolant. Fluid coupling of conduits between and/or within the cooling circuits provide redundancy to accommodate various faults and equipment malfunctions.

Abstract: A method for responding to energy expenditure events includes providing electric energy from an external source to a vehicle energy storage component until the energy storage component is charged to a threshold state of charge percentage. An external data source is monitored using a controller for an occurrence of an energy expenditure event in at least one connected system. The controller responds to the occurrence of the energy expenditure event by charging a remainder of the vehicle energy storage component.

Abstract: A device includes a core including an upper core dielectric layer, a lower core dielectric layer, a central core dielectric layer contacting the upper core dielectric layer and the lower core dielectric layer, and a passive electronic component embedded within the central core dielectric layer. The device includes an upper laminate stack coupled to the upper core dielectric layer. The upper laminate stack includes upper metal layers and contact pads configured to electrically connect a die to the passive electronic component by way of conductive paths defined by the set of upper metal layers. The device includes a lower laminate stack coupled to a bottom surface of the lower core dielectric layer. The lower laminate stack includes lower metal layers and a set of lower dielectric layers disposed between adjacent metal layers of the set of lower metal layers.