218 results about "Network interface device" patented technology

Examples described herein relate to a switch, when operational, that is configured to receive in a packet an indicator of number of remaining bytes in a flow and to selectively send a congestion message based on a fullness level of a buffer and indication of remainder of the flow. In some examples, the indicator is received in an Internet Protocol version 4 consistent Options header field or Internet Protocol version 6 consistent Flow label field. In some examples, the congestion message comprises one or more of: an Explicit Congestion Control Notification (ECN), priority-based flow control (PFC), and / or in-band telemetry (INT). In some examples, to selectively send a congestion message to a transmitter based on a fullness level of a buffer that stored the packet and the number of remaining bytes in flow, the switch is to determine whether the buffer is large enough to store the remaining bytes in the flow.

An information handling system executing a predictive hash table and carbon dioxide (CO2) minimizing system may comprise a network interface device to receive from a remote data center deduplication process workload metrics, fingerprint hash table size metrics, and a current reserved memory size allocated for storage of a fingerprint hash table, a processor executing code instructions to predict a future workload of deduplication processes and a future fingerprint hash table size to determine a predicted amount of memory to reserve for storage of a future fingerprint hash table based on the predicted future workload of deduplication processes and fingerprint hash table size, and to determine an over-allocated portion of the current reserved memory size where the network interface device transmits an instruction to the data center to limit power provided to the over-allocated portion of the current reserved memory size.

An information handling system of an orchestrating Internet of Things (IoT) gateway executing a carbon dioxide (CO2) minimizing IoT edge gateway data processing orchestration system comprises a network interface device receiving processed IoT sensor data generated by alteration of unprocessed IoT sensor data via access point (AP) IoT servers executing a common data processing method, a processor executing code instructions to determine that an initial volume of CO2 emitted per unit of processed sensor data transferred from the AP IoT servers to a cloud platform, via the orchestrating IoT gateway in an enterprise wide area network, is greater than an adjusted volume of estimated CO2 that would be emitted per unit of data if the common data processing method were performed at the orchestrating IoT gateway instead of the AP IoT servers, and transmitting an instruction to cease execution of the common data processing method at the AP IoT servers.

An apparatus is disclosed that includes a network interface device comprising processors to implement network interface device functionality and communication protocol engine circuitry, wherein the network interface device is to: receive a request to write data to a memory node communicably coupled to the network interface device; identify network information corresponding to the request, wherein the network information includes at least one of quality of service (QoS), physical function (PF), virtual function (VF), name space identifier (NSID), flow ID, service level objectives (SLOs), or process address space ID (PASID); identify characteristics of the memory node, wherein the characteristics include at least page size of the memory node; and cause the data to be coalesced with other data on the memory node based on the network information and the characteristics.

A network interface device comprises at least one processor configured to validate at least a part of a context associated with a queue pair, the context being fetched from a memory on a host device.

A network interface device (NID) is provided to accommodate the receipt and transmission of optical signals according to multiple standards in a single customer premises device. This permits the network service provider, among other things, to deliver one NID to any customer premises, whether or not the particular customer premises is currently being served by an optical line terminal (OLT) providing first protocol service or second protocol service. As a network is upgraded (e.g., from first protocol service to second protocol service), the network service provider can connect the customer premises to an OLT providing the upgraded second protocol service and then programmatically alter the NID to transceive signals according to the upgraded standard without requiring a new NID to be delivered or installed at the customer premises.

The invention relates to intra-network computing operations using encrypted communications. Examples described herein relate to an interface and a circuit module coupled to the interface. The circuitry module may provide an endpoint for transport layer security (TLS) over a remote direct memory access (RDMA) connection with a first network interface device, provide an endpoint for TLS over an RDMA connection with a second network interface device, provide a transport layer endpoint for packets received from the first network interface device, and provide a transport layer endpoint for packets received from the second network interface device. And providing a transport layer endpoint for a packet received from the second network interface device.

An information handling system executing a software test suite green data center policy generation system comprising a network interface device receiving data center hardware utilization analytics and a software test suite identifier for a selected software test suit and a processor to identify a reserved capacity of the data center processing system reserved for general execution of software test suites according to general quality of service requirements for input / output commands and to predict a future data center processor utilization rate and execution duration for the selected software test suite by forecasting actual use of data center resources during a future execution of the selected software test suite that is below the reserved capacity, and the network interface device to transmit an instruction to throttle power supplied to an over-allocated portion of the data center resources from the reserved capacity duration execution of the selected software test suite.

A peripheral device workspace cloud orchestrator executing at a cloud information handling system may comprise a network interface device to receive a user experience fingerprint associated with a user of an information handling system that has been previously operatively coupled to a previous peripheral device at a first location of a previous peripheral device workspace having operational configurations of previous peripheral device functional capabilities controlling operation of the previous peripheral device, and a hardware processor to determine for a new peripheral device node functional capabilities in a new peripheral device workspace operatively coupled to the user information handling system at a second identified location based on a user experiential compliance value to determine whether to apply operational configurations of previous peripheral device functional capabilities to the new peripheral device node and the hardware processor to execute code instructions to configure the new peripheral device node according to those operational configurations.

Methods and apparatus for providing L4S support with regard to non-3GPP untrusted / trusted accesses in which a core network interface device, e.g., N3IWF or a TNGF, is used are described. The core network interface device monitors for downlink and / or uplink congestion with regard to L4S downlink and / or uplink data traffic flows, detects congestion and perform explicit congestion notification (ECN) markings or communicates congestion information used in performing ECN marking to another device. In some embodiments, the core network interface device indicates detected congestion, at the core network interface device, in a DL traffic flow via performing ECN marking of the innermost IP header ECN field. In some other embodiments, the core network interface device communicates detected congestion information to other devices. Sometimes the congestion information is communicated via a GTP-U header to a UPF, which performs ECN marking based on the received non-3GPP congestion information.

An apparatus includes a host interface; a network interface; and a programmable circuitry communicably coupled to the host interface and the network interface, the programmable circuitry comprising one or more processors to implement network interface functionality and to: determine portions of a set of computer vision (CV) processes to be deployed on the programmable circuitry and a host device, wherein the host device to be communicably coupled to the programmable network interface device; access instructions to cause the portions of the set of the CV processes to be deployed on the host device and the programmable network interface device; and wherein a media processing portion of the set of the CV processes is to be deployed to the programmable circuitry, and wherein the programmable circuitry is to utilize media processing hardware circuitry hosted by the apparatus to perform the media processing portion.

A system method for provisioning a network interface device comprising providing a network interface device having a controller for controlling the network device and a plurality of ports, wherein one or more of the plurality of ports are associated with a user, wherein the controller includes memory for storing an initial configuration file associated with the network device, storing the initial configuration file and generating from the initial configuration file a final configuration file based on network interface device related information, including Quality of Service information and device identification information, processing the initial configuration by the network interface device when a boot sequence is initiated, receiving address information associated with the network interface device, locating and downloading by the network interface device the final configuration file, and automatically rebooting the network interface device to process the final configuration file.

Techniques described herein address the above challenges that arise when using host executed software to manage vector databases by providing a vector database accelerator and shard management offload logic that is implemented within hardware and by software executed on device processors and programmable data planes of a programmable network interface device. In one embodiment, a programmable network interface device includes infrastructure management circuitry configured to facilitate data access for a neural network inference engine having a distributed data model via dynamic management of a node associated with the neural network inference engine, the node including a database shard of a vector database.

An Internet of Things (IoT) edge gateway device information handling system executing an IoT edge gateway device location optimization and carbon dioxide (CO2) minimization system may comprise a network interface device receiving, at an edge gateway initial location, power consumption analytics and locations of AP IoT servers transceiving IoT data with the IoT edge gateway in an enterprise wireless area network (WAN), a processor executing code instructions to determine an optimal location for the IoT edge gateway that reduces total estimated CO2 emissions during IoT data transmission between the AP IoT servers and the IoT edge gateway, based on the power consumption analytics and current locations of the AP IoT servers to a new optimal location in the enterprise WAN, and the network interface device transmitting an instruction to physically move the IoT edge gateway to the optimal geographic location to minimize CO2 emitted during transceiving of the IoT data.

Examples described herein relate to a network interface device. In some examples, the network interface device is configured to determine routing information for a packet by: access a content addressable memory (CAM) to retrieve an Internet Protocol (IP) subnetwork identifier based on a portion of a destination address of the packet; determine a starting memory address of a subnetwork in a memory based on the subnetwork identifier; determine an offset from the starting memory address based on a second portion of the destination address; access the memory to retrieve the routing information for the packet based on the offset and the starting memory address.

Examples described herein relate to a network interface device. In some examples, the network interface device includes a device interface; input / output circuitry to receive Ethernet compliant packets and output Ethernet compliant packets; circuitry to monitor a particular page for a rate of data copying among nodes within a group of two or more nodes; and circuitry to perform one or more actions based, at least in part, on the rate of data copying among the nodes within the group of two or more nodes to attempt to reduce a number of copy operations of the data among the nodes within the group of two or more nodes, wherein the group of two or more nodes are part of a distributed shared memory (DSM).

Examples described herein relate to a network interface device that includes: a host interface; a direct memory access (DMA) circuitry; a network interface to receive, in at least one packet, time data associated with at least one of multiple layers, wherein the multiple layers provide inputs to a collective operation associated with a large language model (LLM); and circuitry. The circuitry is to based, at least in part, on the time data associated with the multiple layers, identify a first operation of a first layer of the multiple layers as a late completing process relative to times to completion of multiple first operations of other layers and based on the first operation being identified as a late completing process, perform a remedial action to adjust at least one configuration of a first device to execute a second operation of the first layer.

A peripheral device workspace cloud orchestrator server includes a network interface device to receive detected peripheral device enrollment data describing peripheral device nodes to be registered with the peripheral device workspace cloud orchestrator server and hardware device operational policies describing how the registered peripheral device nodes are to operate. The hardware processor executes computer code of a cloud manageability orchestrator module to create and store, on a peripheral device workspace database, peripheral device workspaces with each of the peripheral device workspaces having a peripheral device workspace identification value, wherein the peripheral device workspaces are defined by a manifest of detected peripheral device nodes operatively coupled to an anchor node information handling system and a physical location of the anchor node information handling system.

Embodiments of a device, a method, and a system for periodic wireless local area network (WLAN) sensing are disclosed. In an embodiment, the device includes a wireless network interface device implemented on one or more integrated circuits (ICs), where the wireless network interface device is configured to negotiate parameters for performing periodic sensing measurements, and implement the negotiated parameters when performing the periodic sensing measurements.

A peripheral device workspace cloud orchestrator may comprise a network interface device to receive telemetry readings describing a current usage pattern for an information handling system, available communication protocols at a location for linking the information handling system and a peripheral device, and communication protocol-dependent functional capabilities for the peripheral device operatively coupled to the information handling system at the location to form a peripheral device workspace, and a hardware processor to execute code instructions for the peripheral device workspace cloud orchestrator to instruct the information handling system to operatively couple to the peripheral device using a best-suited communication protocol for selected performance from communication protocol-dependent functional capability data for the peripheral device under the current usage pattern for executing software application on an anchor information handling system node or peripheral device workspace environmental telemetry readings.

Described herein are systems and methods for signal digitization. A system may include a camera; a network interface device; a user interface; and a computing device configured to, using the camera, capture an image of a signal; determine a signal metric as a function of the image of the signal; and using the user interface, display the signal metric to a user; wherein the system is communicatively connected to a repository of deidentified patient health information.

Examples described herein relate to a network interface device performing offloaded tag matching operation to support both one or more eager transactions and one or more rendezvous transactions using a tag-matching protocol. In some examples, the tag matching operation is offloaded from a server to the network interface device. In some examples, the network interface device is to receive messages from one or more senders, wherein the messages comprise tags and select one or more of the messages to write into a buffer based on matching on sender and / or tag.

Examples described herein relate to a network interface device that is to adjust a transmission rate of packets based on a number of flows contributing to congestion and / or based on whether latency is increasing or decreasing. In some examples, adjusting the transmission rate of packets based on a number of flows contributing to congestion comprises adjust an additive increase (AI) parameter based on the number of flows contributing to congestion. In some examples, latency is based on a measured roundtrip time and a baseline roundtrip time.

The invention relates to a message processing method and device, computer equipment, a readable storage medium and a program product. The method comprises the following steps: acquiring network function information of a plurality of hardware devices, and generating a virtual function network element corresponding to each piece of network function information; deploying the plurality of virtual function network elements in a target physical server, and respectively connecting the plurality of virtual function network elements with an integrated network bridge in the target physical server; detecting target network segment information corresponding to each first to-be-processed message under the condition that network interface equipment in a target physical server acquires the first to-be-processed message, and screening a target virtual function network element corresponding to each piece of target network segment information from a plurality of virtual function network elements; and respectively sending each first to-be-processed message to a target virtual function network element corresponding to the first to-be-processed message through the integrated network bridge. By adopting the method, the message can be efficiently processed.

Described herein are systems and methods for signal digitization. A system may include a camera; a network interface device; a user interface; and a computing device configured to, using the camera, capture an image of a signal; determine a signal metric as a function of the image of the signal; and using the user interface, display the signal metric to a user; wherein the system is communicatively connected to a repository of deidentified patient health information.

Examples described in this document relate to a network interface device. In some examples, the network interface device includes a host interface; direct memory access (DMA) circuitry; a network interface; and circuitry. The circuitry may be configured to: based on received telemetry data from at least one switch: select a next-hop network interface device from among a plurality of network interface devices based on the received telemetry data.

A device, a system, and a method for transmissions during a restricted Target Wake Time (rTWT) Service Period (SP) are disclosed. In an embodiment, the device includes a wireless network interface device implemented on one or more integrated circuits (ICs), where the wireless network interface device is configured to transmit a beacon on a first link that indicates an rTWT SP for the first link, transmit a frame prior to a wake period of the rTWT SP, where the frame is transmitted during a first Transmission Opportunity (TXOP) that overlaps with the wake period, and transmit low latency traffic on the first link during the wake period, where the first TXOP that overlaps with the wake period is at least one of ended and continued.

Examples described herein relate to processing packets. In some examples, based on receipt of a Hypertext Transfer Protocol (HTTP) packet at a network interface device, the HTTP packet comprising an HTTP body and HTTP header: provide the HTTP header, but not the HTTP body, for processing in user space; modify solely the HTTP header in user space; and in kernel space, combine the modified HTTP header and the HTTP body prior to transmission of the HTTP packet with modified HTTP header to a client.

A peripheral device workspace cloud orchestrator server includes a hardware processor, a memory device, and a network interface device to receive operational capabilities and settings associated with a peripheral device node operatively coupled to an anchor information handling system node, the anchor information handling system node and peripheral device forming part of a collaborative peripheral device workspace to be registered with the peripheral device workspace cloud orchestrator server. The hardware processor executes a collaborative workspace orchestrator module to register the peripheral device node within the collaborative peripheral device workspace. The hardware processor executes computer code of mesh manager module to identify and create a mesh within the collaborative peripheral device workspace including the anchor information handling system node and registered peripheral device node in a mesh manifest, the mesh created based on the KPIs of the registered peripheral device and assigned a mesh ID value.

A storage system includes a controller and a network interface device connected to the controller. The network interface device receives an access request from a host, converts the access request into an access request interpretable by the controller, and issues the access request to the controller. In processing in response to a data writing request from the host, the network interface transmits a message for an instruction to start transmission of writing target data to the host, and then allocates a buffer that temporarily stores writing target data, stores the writing target data received from the host in the buffer, and transfers the writing target data stored in the buffer to the controller.