원래 이름 기록: Dell Products L.P.

A system can, while the system is traveling to a destination associated with a first entity, determine that an edge device associated with a second entity is located within a specified distance from the system, wherein the system is associated with the first entity. The system can map at least part of a physical area associated with the edge device, to produce mapping information. The system can enable the mapping information to be accessible to the second entity, wherein the mapping information being accessible to the second entity enables a drone associated with the second entity to use the mapping information to establish a light-based communications channel with the edge device.

An information handling system camera provides a 117 degree field of view with low distortion by capturing visual images through a lens having eight lens elements. The first lens element closest to the object, the third lens element and the sixth lens element each have a glass material, the remaining lens elements have a plastic material. The first two lens elements and the last lens element each have a negative refractive power and the remaining lens elements have a positive refractive power. Lens elements two and four through eight each have aspherical surfaces.

A system can maintain mapping information applicable to a physical area that corresponds to a device. The system can physically navigate the system toward the device, wherein the device is configured to emit light-based communications substantially vertically, and wherein the device does not comprise any internet connectivity capability. The system can, while physically navigating the system toward the device and based on the mapping information, adjust a position of the light-based communications antenna relative to another part of the system other than the light-based communications antenna. The system can, after physically navigating the system toward the device, attempt to establish a light-based communications channel with the device. The system can, based on a result of the attempt indicating success in establishing the light-based communications channel with the device, receive data from the device via the light-based communications channel.

A system can determine a group of samples that identifies respective trips underwent by a group of drones, wherein respective samples of the group of samples identify respective distances traveled for the respective trips, respective amounts of energy consumption applicable to the respective trips, and respective environmental factors present during the respective trips. The system can determine whether there is sufficient electrical energy to undergo a current trip to a destination, based on the group of samples and prevailing environmental conditions, to produce a result, in response to the result being indicative that there is sufficient electrical energy to undergo the current trip, travel to the destination, and in response to the result being indicative that there is insufficient electrical energy to undergo the current trip, travel to a charging station.

An information handling system battery interfaces with a motherboard through a connector and receptacle that contribute to a standardized coupling arrangement while accommodating a wide variety of footprints and component configurations. The connector terminates to pin terminals that mount to a circuit board and gap terminals that accept a wire to accommodate different coupling arrangements. The connector conductive elements slide horizontally into receptacle conductive members or alternatively press down for a vertical coupling. A switch included in the connector cuts of power communication from the battery by disconnecting an SMBus data interface when the switch moves to an off position.

An information handling system battery interfaces with a motherboard through a connector and receptacle that contribute to a standardized coupling arrangement while accommodating a wide variety of footprints and component configurations. The connector terminates to pin terminals that mount to a circuit board and gap terminals that accept a wire to accommodate different coupling arrangements. The connector conductive elements slide horizontally into receptacle conductive members or alternatively press down for a vertical coupling.

An information handling system battery interfaces with a motherboard through a connector and receptacle that contribute to a standardized coupling arrangement while accommodating a wide variety of footprints and component configurations. The connector terminates to pin terminals that mount to a circuit board and gap terminals that accept a wire to accommodate different coupling arrangements. The connector conductive elements slide horizontally into receptacle conductive members or alternatively press down for a vertical coupling.

Methods and systems for management of power distribution for a data processing system are disclosed. The method may include classifying an external device that may be attached to a port of the data processing system with respect to power consumption and power provisioning. The method may also include reconfiguring a switch network that connects the port to which the external device may be attached to load components (e.g., a battery, hardware resources, etc.) of the data processing system so that a power delivery path may be established. Power delivery may be performed to distribute power to the data processing system and/or to the external device using the power delivery path.

An information handling system battery interfaces with a motherboard through a connector and receptacle that contribute to a standardized coupling arrangement while accommodating a wide variety of footprints and component configurations. The connector terminates to pin terminals that mount to a circuit board and gap terminals that accept a wire to accommodate different coupling arrangements. The connector conductive elements slide horizontally into receptacle conductive members or alternatively press down for a vertical coupling. Insertion of the battery connector into the battery receptacle completes a circuit detected by an embedded controller that can selectively reset the system in the event of a hangup.

Facilitating a scheduler for distributed unit power management in advanced communication networks is provided herein. A method includes, based on a processing load of a group of core processors being determined to be below a threshold traffic amount for a first transmission time slot, selecting, by network equipment comprising a processor, a core processor of the group of core processors for power management, resulting in an identified core processor. Selection of the core processor can be based on a configuration of the identified core processor. The method also includes, based on a category assigned to the identified core processor, controlling, by the network equipment, a power consumption of the identified core processor during a second transmission time slot. The network equipment comprises a distributed unit, and controlling the power consumption is performed in a layerscheduler of the distributed unit.

One example method for generating QUBO (quadratic unconstrained binary optimization) problem source code, includes receiving a natural language description of a target optimization problem to be solved, based on the natural language description, performing a query to obtain a list that includes problems similar to the optimization problem, receiving a user selection of one of the problems in the list, either, retrieving penalties associated with the selected problem, or receiving a user indication that the penalties do not adequately conform with the target optimization problem, and when there is no receipt of the user indication, using the penalties, and the selected problem, to generate source code for a target QUBO problem that represents the target optimization problem.

Methods and systems for managing operation of a deployment are disclosed. The deployment may be managed by prioritizing chaos testing of services. The chaos testing may be prioritized by assigning an accessibility weight to a service of the services and selecting the service to perform chaos testing based on the accessibility weight. The accessibility weight may be measure of significance of a service to an ability of the deployment to continue to operate. Services with higher accessibility weights may be selected with which to perform chaos testing. By selecting the services with higher accessibility weights, time and resources of a deployment may not be significantly impacted and may be further allocated to a provision of computer implemented services.

Methods, apparatus, and processor-readable storage media for application program management are provided herein. An example computer-implemented method includes identifying at least one cluster of applications from among a plurality of applications based at least in part on structural information associated with the plurality of applications, determining that at least one application in the at least one cluster is using a first version of an application build tool, and updating the application build tool to a second version of the application build tool for the at least one application in the at least one cluster. The method also includes staging the at least one application using the second version of the application build tool.

A method for real-time, reboot-less configuration of network interface cards. The method includes: constructing a network interface binary large object (NI-BLOB) including a firmware update package; transferring, to a network interface card, a firmware update including the NI-BLOB; and activating, without power-cycling a host whereon the network interface card is installed, the firmware update to configure the network interface card in real-time. In foregoing the power-cycling of the host, embodiments described herein minimize (if not eliminate) any service downtime potentially caused through the frequent application of configuration changes to network interface card(s).

One example method includes maintaining a database of past executions of graph-based workloads and respective infrastructure graphs where the graph-based workloads were executed, obtaining a graph embedding of a new graph-based workload and searching for similar graph-based workloads in the database, retrieving each similar graph-based workload from the database, where each of the similar graph-based workloads is associated with a respective infrastructure subgraph corresponding to where that similar graph-based workload was executed, searching a large graph-based infrastructure topology for infrastructure subgraphs that are similar to the infrastructure subgraphs retrieved from the database, and retrieving a group of infrastructure subgraphs that collectively define a set of candidate nodes to run the new graph-based workload, filtering and ranking the set of candidate nodes according to a respective likelihood that the candidate nodes will satisfy requirements of the new graph-based workload, and assigning the new graph-based workload to one of the candidate nodes.

Techniques are disclosed for hardware management in an information processing system. For example, a method obtains, at an edge platform, one or more failure prediction values for one or more device types of the edge platform, wherein a failure prediction value for a device type represents a likelihood of failure associated with the device type. The method, at the edge platform, computes one or more health indicator values for the one or more device types based on the one or more failure prediction values, computes one or more behavior indicator values for the one or more device types based on the one or more health indicator values. The method causes, in response to the one or more behavior indicator values for the one or more device types, determination of one or more proactive actions to be initiated prior to a failure of one or more devices of the edge platform.

Techniques are provided for failure mitigation in software deployment pipelines using generative artificial intelligence (AI). One method comprises obtaining a request to merge code changes associated with a first branch of software code with a second branch of the software code; in response to the request: obtaining information characterizing the software deployment pipeline; applying at least a portion of the information to a classification model to obtain a prediction that an implementation of the request will result in a failure; applying, in response to the prediction that the implementation of the request will result in the failure, at least a portion of the information to a generative AI model, with failure information characterizing reasons for the failure, to obtain mitigation actions to mitigate the failure; and automatically initiating processing steps associated with at least one of the mitigation actions to mitigate the failure.

Techniques for synchronizing data involve determining, in response to that a replication session in a source cluster is initiated, a recovery point objective (RPO) of the replication session and a plurality of parameters of each device in a plurality of devices in a remote cluster. The plurality of parameters include at least performance headroom and a recovery point objective of a resident replication session. Such techniques further involve selecting a target device from the plurality of devices based on the recovery point objective of the replication session and the plurality of parameters. Such techniques further involve synchronizing data associated with the replication session from the source cluster to the target device in the remote cluster. Accordingly, replication sessions can be evenly distributed across devices, thereby improving resource utilization and data synchronization efficiency, preventing depletion of device utilization, reducing RPO bias, and strengthening the protection for disaster recovery data.

Devices, systems, and methods for managing a module for use with a chassis are disclosed. The module may include a body, a hardware component, positioned in the body, that consumes power to contribute to computer-implemented services provided by a data processing system housed by the chassis and that generates heat, a connector adapted to operably connect the hardware component to other hardware components of the data processing system, and a passive temperature indicator adapted to visually indicate a thermal state of at least a portion of the body.

Methods and system for managing data in a distributed system are disclosed. To manage data in the distributed system, a host system may initiate an input-output (IO) transaction based on an occurrence of an IO transaction event being identified. The IO transaction may include storage commands to manage the data stored in a destination and/or to store the data in the destination. The IO transaction may have a dynamic timeout that defines a duration of time to receive confirmation of the IO transaction being processed by the destination prior to performing remedial processes by the host system.