75 results about "Internetworking" patented technology

Systems, methods, and network attached storage nodes for peer-to-peer file sharing using consistent hashing for distributing data among storage nodes. A plurality of network attached storage nodes may be interconnected by a network and configured for peer-to-peer communication without a centralized server. When a node receives a user data file, it divides the file into data chunks and determines hashes for those data chunks. It uses consistent hashing of the chunk hashes and storage node addresses to map the data chunks to other nodes for distributed storage.

One embodiment provides a graphics processor comprising a memory interface and a processing cluster array including a plurality of processing resources interconnected via a switched interconnect network, at least one of the plurality of processing resources including a matrix accelerator configured to execute an instruction to perform a multi-dimensional sparse matrix multiply and accumulate operation having input in a sparse microscaling format including merged sparsity and scaling metadata.

A fault-tolerant quantum computer using topological codes such as surface codes can have an architecture that reduces the amount of idle volume generated. The architecture can include qubit modules that generate surface code patches for different qubits and a network of interconnections between different qubit modules. The interconnections can include “port” connections that selectably enable coupling of boundaries of surface code patches generated in different qubit modules and / or “quickswap” connections that selectably enable transferring the state of a surface code patch from one qubit module to another. Port and / or quickswap connections can be made between a subset of qubit modules. For instance port connections can connect a given qubit module to other qubit modules within a fixed range. Quickswap connections can provide a log-tree network of direct connections between qubit modules.

A system / process provides fault tolerance to an integrated component system which integrates core components of a transaction processing system into a single processing platform, i.e., a single server, enabling elimination of the network interconnects and associated latencies introduced thereby in favor of much faster interconnects, such as inter-process communication and shared memory communication messaging, where a failure of any one component necessitates failing over the entire system to a backup thereof.

A fault-tolerant quantum computer using topological codes such as surface codes can have an architecture that reduces the amount of idle volume generated. The architecture can include qubit modules that generate surface code patches for different qubits and a network of interconnections between different qubit modules. The interconnections can include “port” connections that selectably enable coupling of boundaries of surface code patches generated in different qubit modules and / or “quickswap” connections that selectably enable transferring the state of a surface code patch from one qubit module to another. Port and / or quickswap connections can be made between a subset of qubit modules. For instance port connections can connect a given qubit module to other qubit modules within a fixed range. Quickswap connections can provide a log-tree network of direct connections between qubit modules.

Methods, systems, and apparatus, including computer programs encoded on computer storage media, for distributing machine learning workloads across hardware accelerators. One of the systems comprises a first plurality of hardware accelerators that are interconnected over a first network and one or more corresponding hosts for the first plurality of hardware accelerators; and a second plurality of hardware accelerators that are interconnected over a second network and one or more corresponding hosts for the second plurality of hardware accelerators, wherein the corresponding hosts for the first and second pluralities of hardware accelerators are connected over a third network. For example, the first and second network can each be a respective Inter-Core Interconnect (ICI) network, while the third network can be a data center network, e.g., an Ethernet network.

Method for transporting packets in a multi-cluster Network on Chip (NoC) interconnect with a transport protocol significantly enhance packet management in complex NoC chip architectures. This approach involves processing a packet within clusters to determine a destination cluster and a destination node, and executing a node lookup for the packet intended for different clusters. This lookup identifies an optimal path for transporting the packet out of the cluster. The multi-cluster NoC interconnect efficiently outlines cluster-to-cluster connections and manages global traffic, incorporating deadlock prevention techniques. Global bridges and boundary bridges facilitate effective traffic management between clusters. Each node includes a programmable path table that dynamically assigns efficient routes. This method significantly improves packet management across multi-cluster NoCs, offering a scalable, efficient, and reliable solution for complex computing environments.

The invention discloses a data transmission method and device, equipment and a storage medium. The method comprises the following steps: a network interconnection protocol (IP) entity of the terminal generates a first message; the first message carries addresses of a plurality of relay servers used for receiving data carried by the first message; the IP entity of the terminal sends the first message to a service data adaptation protocol (SDAP) entity of the terminal; the SDAP entity of the terminal generates an SDAP protocol data unit (PDU) based on the first message; and sending the SDAP PDU to a network device, so that the network device forwards data corresponding to the first message to the plurality of relay servers by using the addresses of the plurality of relay servers.

The invention provides a circuit breaker networking system and a communication gateway, and relates to the technical field of low-voltage electric appliances. The system comprises a circuit breaker cluster, a gateway cluster, a cloud service platform and a mobile terminal, the circuit breaker cluster comprises a plurality of circuit breaker devices, and each circuit breaker device is configured with a first target communication chip; the gateway cluster comprises a plurality of communication gateways, and each communication gateway is configured with a second target communication chip; at least a satellite flash communication protocol is integrated in the first target communication chip and the second target communication chip; each communication gateway establishes a network topology with each circuit breaker device through a star flash communication protocol; each communication gateway is also in network interconnection with the cloud service platform through a local area network communication protocol; and the cloud service platform establishes communication connection with the mobile terminal through a network communication protocol. According to the method, a network topology can be established between the circuit breaker cluster and the gateway cluster through a star flash communication protocol, the data transmission efficiency and the transmission distance of circuit breaker equipment are improved, and the network coverage rate and the stability are improved.

1. Name of the designed product: Integrated Application Gateway (CT-HIAG200). 2. Use of the designed product: for network interconnection. 3. Design points of the designed product: in shape. 4. Picture or photo that best indicates the design points: perspective view.

1. The name of the design product: broadcast gateway. 2. The use of the design product: network interconnection for broadcast system. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: perspective view 1.

The application provides a smart device abnormal recovery method and device, an electronic device and a device local area network, and relates to the technical field of smart homes. The smart device abnormal recovery method comprises the following steps: determining that a fault occurs; obtaining black box abstract information of fault state data at a current time; broadcasting an abnormal rescue request in the device local area network; after a network interconnection device detects the broadcast of the abnormal rescue request, the network interconnection device establishes a connection with the smart device, reads the black box abstract information from the smart device; receiving an update package sent by the network interconnection device; the update package corresponds to the black box abstract information; the update package is received from a cloud server after the network interconnection device reports the black box abstract information to the cloud server; and performing an online upgrade operation based on the update package. The application can efficiently and reliably recover the fault of the smart device occurring in the running process.

Small and compact Deep Learning models are required for embedded AI in several domains. In many industrial use-cases, there are requirements to transform already trained models to ensemble embedded systems or re-train those for a given deployment scenario, with limited data for transfer learning. Moreover, the hardware platforms used in embedded application include FPGAs, AI hardware accelerators, System-on-Chips and on-premises computing elements (Fog / Network Edge). These are interconnected through heterogenous bus / network with different capacities. Method of the present disclosure finds how to automatically partition a given DNN into ensemble devices, considering the effect of accuracy—latency power—tradeoff, due to intermediate compression and effect of quantization due to conversion to AI accelerator SDKs. Method of the present disclosure is an iterative approach to obtain a set of partitions by repeatedly refining the partitions and generating a cascaded model for inference and training on ensemble hardware.

Systems, methods, and network attached storage nodes for secure peer-to-peer file sharing using consistent hashing for distributed ownership data. A plurality of network attached storage nodes may be interconnected by a network and configured for peer-to-peer communication without a centralized server. When a node receives a user data file, it divides the file into data chunks and determines hashes for those data chunks. It uses the chunk hashes to map the data chunks to other nodes for storage. It also sends ownership data for the file that includes an owner identifier, a hash key, the set of chunk hashes.

A chip architecture and system design for accelerating neural network computation is disclosed. The chip includes a plurality of cores interconnected via a ring-shaped network-on-chip (NoC), each core comprising a 2D mesh of processing elements (PEs) with hierarchical software-and hardware-based schedulers. Each PE includes specialized compute engines, local memory, and dynamic precision conversion logic. The architecture supports flexible instruction dispatch, scalable memory access, and runtime scheduling optimization. The chip can be deployed in chiplet-based configurations, PCIe cards with paired chips, or modular OAM cards with single-chip packaging. Multi-card systems utilize crossbar switch fabrics and direct inter-card links to enable efficient, low-latency communication and high-bandwidth scalability.

A memory chip comprises memory banks, each memory bank including a compute unit. The memory banks are configured to be interconnected through an inter-bank network and perform inter-bank communication, and the compute unit is configured to perform a computation using data transmitted through the inter-bank network.

1. Name of the Design Product: Gateway (FTTR Slave Device TG62). 2. Use of the Design Product: For network interconnection. 3. Design Key Points of the Design Product: Lies in the shape. 4. Picture or Photograph that Best Illustrates the Design Key Points: Perspective View 1.

A programmable logic controller (PLC) for controlling an automated system, in which a large number of control devices are interconnected via a communication network (50), has a first hardware platform (60) on which a first operating system (62), dependent on the hardware platform (60), is installed. The first operating system provides a real-time capable first execution environment (64) for a first control program (66). The PLC also has a virtualization platform (68a) that provides a second execution environment (70) for a second control program (72a). A first control program (66) is executable in the first execution environment (70) and implements a first control functionality with hard real-time requirements. A second control program (72a) is executable in the second execution environment (70) and implements a second control functionality.The first execution environment (60) has access to a first network interface (82, 84). The second execution environment (70) provides a second network interface (82). The first control program (66) and the second control program (72a) exchange data with each other via the first and second network interfaces (82).

The invention relates to the technical field of chip computing network interconnection, in particular to a Mesh and Dragonfly fused chip computing network networking method, which comprises the following steps: firstly, adopting Mesh topology to interconnect computing nodes in a local range to form a POD unit, and enabling POD internal nodes to be only directly connected with adjacent nodes; abstracting a POD edge routing node into an external connection channel as a unique interface of cross-unit communication; then, taking the POD as a basic unit, constructing a switch-free multi-stage Dragonfly topology through an external connection channel, and directly undertaking a cross-group connection function by an edge routing node; a symmetric interconnection rule and a port retention rule are followed in the networking process. Core advantages of the Mesh topology and the Dragonfly topology are fused, low-overhead and efficient communication in the POD is achieved by means of the Mesh topology, global communication delay is reduced through the switchless Dragonfly topology, meanwhile, the excellent multi-level expansion capacity is achieved, the hardware area and power consumption overhead can be reduced, the method is compatible with various computing node types, and multi-field networking requirements are met.

The embodiment of the invention discloses a COE interconnection simulation method and system based on a DPDK and a full user mode protocol stack and a medium. Constructing a user state simulation environment comprising a DPDK driver and a full-user state network protocol stack on at least two network interconnected nodes; encapsulating a memory access request of the CXL protocol into frame data conforming to a predetermined format, and adding network layer and transport layer protocol headers through a full-user-state network protocol stack to form an Ethernet data frame; the Ethernet data frame is submitted to a physical network card for sending through a DPDK interface; receiving an Ethernet data frame from a physical network card through a DPDK interface, stripping protocol heads of a network layer and a transport layer by a full-user-state network protocol stack, and de-encapsulating to obtain CXL protocol data; and performing response processing according to the decapsulated CXL protocol data, generating confirmation information when needed, and sending the confirmation information to an opposite-end node through a full-user-state network protocol stack and a DPDK interface.

The invention discloses a programmable network interconnection core particle, a network interconnection unit and a multi-core particle interconnection structure. The network interconnection core grain comprises a control core, a plurality of processing cores and a plurality of routing nodes corresponding to the processing cores, each processing core is provided with an external interface and a network interface, each network interface is in two-way communication connection with the corresponding routing node, and the routing nodes are actually arranged or virtually arranged into a multi-row and multi-column matrix. The adjacent routing nodes in the same row and the same column are respectively in bidirectional communication connection, so that all the processing cores are connected together to form an information interconnection network channel; and the control core is connected with each routing node, monitors the state of the routing node and controls and switches the transmission direction of the routing node. Communication paths between different interfaces can be freely programmed and adjusted, the interconnection flexibility is high, and maintenance is convenient.

Techniques are described in which storage nodes within a storage cluster are configured to support graph-based storage management. For example, a storage cluster comprises a network and a plurality of computing systems, each interconnected over the network, wherein the plurality of computing systems includes a plurality of storage nodes. The computing system of the plurality of computing systems is configured to allocate a volume of storage within the storage cluster, generate a volume graph of the volume, wherein the volume graph represents one or more functional elements in a data plane of the volume, and manage the volume based on the volume graph.

A network interconnection, for interconnecting a power supply network with a number of power distribution networks, including a power converter station that is connected in use adjacent to an end of a power supply network and is controllable to provide an alternating voltage source. The network interconnection also includes an interconnection bus which extends from the power converter station towards a primary point of interconnection that is connected, in use, with a primary power distribution network and at least one secondary point of interconnection which is connected, in use, with a corresponding secondary power distribution network. The network interconnection additionally includes a power regulator that is electrically connected between the interconnection bus and each secondary point of interconnection. The network interconnection further includes a power flow controller that is arranged in operative communication with the power converter station and each power regulator.

1. Name of the design product: Gateway (FTTR Master Device TG62). 2. Use of the design product: For network interconnection. 3. Design key points of the design product: Lies in the shape. 4. Picture or photograph that best shows the design key points: Perspective view 1.

Systems, methods, and network attached storage nodes for secure peer-to-peer file sharing using consistent hashing for distributed ownership data. A plurality of network attached storage nodes may be interconnected by a network and configured for peer-to-peer communication without a centralized server. When a node receives a user data file, it divides the file into data chunks and determines hashes for those data chunks. It uses the chunk hashes to map the data chunks to other nodes for storage. It also sends ownership data for the file that includes an owner identifier, a hash key, the set of chunk hashes.

A method for extending connectivity from a core network to remote mobile networks includes: installing a security gateway between the core network and wireless broadband base stations located at a periphery of the core network; creating a virtual layer 2 (data link) overlay network interconnecting the broadband base stations; activating a local layer 3 (network) protocol between the security gateway and the core network; activating a sensor protocol between the security gateway and each remote mobile network, the sensor protocol being configured to use broadband communication through the broadband base stations when at least one broadband base station is in range of the remote mobile network, and otherwise use satellite communication; and providing each remote mobile network with a remote layer 3 protocol that uses the broadband communication until disconnected from the broadband base stations, and then uses the satellite communication until reconnected to one of the broadband base stations.

1. Name of the product in this design: Individual Soldier Gateway. 2. Application of this design: This design is used to achieve network interconnection in scenarios such as forest rescue and post-disaster relief. 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

A chip architecture and system design for accelerating neural network computation is disclosed. The chip includes a plurality of cores interconnected via a ring-shaped network-on-chip (NoC), each core comprising a 2D mesh of processing elements (PEs) with hierarchical software-and hardware-based schedulers. Each PE includes specialized compute engines, local memory, and dynamic precision conversion logic. The architecture supports flexible instruction dispatch, scalable memory access, and runtime scheduling optimization. The chip can be deployed in chiplet-based configurations, PCIe cards with paired chips, or modular OAM cards with single-chip packaging. Multi-card systems utilize crossbar switch fabrics and direct inter-card links to enable efficient, low-latency communication and high-bandwidth scalability.

A system interconnects multiple client devices over a network. A local group of the client devices is located at a live event and a remote group is located remote from the live event. Each client device of the local group is a potential source of a live stream which, when rendered by another client device, causes display of a vantage point of the live event. The system dynamically updates a subscription list to include an indication of any client device of the local group that is actively live streaming and remove an indication of any client device of the local group that terminated live streaming. The system can enable selective access to any live streams of any client device of the updated subscription list and disable access to any live streams of any client device removed from the updated subscription list.