57 results about "Packet switched" patented technology

A coherent, intelligent, packet-switched memory fabric enables predictive, cache-coherent access across distributed compute, accelerator, and memory resources using a Memory-Fabric Transaction Layer Protocol (MF-TLP). MF-TLP defines routable packet formats for read, write, vectorized, atomic, reduction, collective, and predictive-prefetch transactions executed by memory-centric network interface controllers (MC-NICs). Each MC-NIC performs packet parsing, address translation, coherence management, and near-memory arithmetic or tensor operations while coordinating with MF-TLP-aware switches providing hierarchical directory control, multi-path routing, and in-network aggregation. Vectorized and multimodal packets encode multiple addresses or tensor offsets to reduce scatter / gather overhead, and programmable caching and quality-of-service modules manage tiered memory and tenant fairness. MF-TLP supports extension headers for predictive prefetch, collective coordination, and tenant governance, operating across hierarchical leaf-spine topologies using Ultra-Ethernet Transport, InfiniBand, or CXL fabrics. The system delivers scalable, low-latency, memory-centric orchestration for large-language-model training, multimodal AI, and data-intensive analytics.

Blockchain synchronization and point-of-sale integration systems are provided in a packet-switched computer network. The POS interfaces through the network with a consumer smartphone and a blockchain validation device. The POS shares a session identifier with the blockchain validation device by transmitting a graphic encoding of a payment request and the session identifier to the smartphone. The camera of the smartphone is configured with an image of the graphical encoding. A payment instruction is encoded to conform to the payment request including the session identifier and is transmitted to the blockchain validation device. The blockchain validation device performs a verification of the correctness and authenticity of the payment instruction encoded in the data record. The POS device receives a confirmation that the correctness and authenticity of the payment instruction encoded in the data record to confirm it has been verified.

Blockchain synchronization and point-of-sale integration systems are provided in a packet-switched computer network. The POS interfaces through the network with a consumer smartphone and a blockchain validation device. The POS shares a session identifier with the blockchain validation device by transmitting a graphic encoding of a payment request and the session identifier to the smartphone. The camera of the smartphone is configured with an image of the graphical encoding. A payment instruction is encoded to conform to the payment request including the session identifier and is transmitted to the blockchain validation device. The blockchain validation device performs a verification of the correctness and authenticity of the payment instruction encoded in the data record. The POS device receives a confirmation that the correctness and authenticity of the payment instruction encoded in the data record to confirm it has been verified.

Solutions are disclosed that enable capacity-aware local repair of tunnels in packet switched wide area networks (WANs). Traffic engineering agents on the routers are programmed to create the tunnels and include sets of primary and alternate tunnels sharing the same source and destination. A tunnel source router is provided a traffic split for allocating incoming traffic to its primary and alternate tunnels for when the primary tunnel is operating at or near full capacity operation, and another traffic split that shifts at least some traffic from the primary tunnel to the alternate tunnel, when the primary tunnel's capacity drops below a threshold. A tunnel may lose capacity for commonly-occurring reasons, such as a disturbance to cabling and faults in optical transceivers. Traffic engineering agents along the tunnel report capacity to the tunnel source router, permitting the network to respond to capacity changes more rapidly than waiting for network tunnel reconfiguration.

A user equipment (UE) is configured to initiate a packet-switched call via a first radio access technology (RAT) and start a plurality of session initiation protocol (SIP) timers responsive to initiating the call. Responsive to at least one condition being present with initiation of a fallback process for the call, the UE is configured to restart a set of the plurality of SIP timers for the fallback process, wherein the set can include some or all of the plurality of SIP timers started with initiation of the call. Each SIP timer has a corresponding default timer duration, and in some instances restarting a SIP timer of the set includes restarting the SIP timer with a starting duration equal to a sum of the default timer duration and an offset so that the restarted SIP timer provides for a greater duration than when originally started to better accommodate the fallback process.

The present disclosure refers to methods and systems to reduce delays in VoWI-FI handover and packet switching registration. The method includes triggering a Router Solicitation Router Advertisement (RSRA) procedure to establish a Transmission Control Protocol / Internet Protocol (TCP / IP) interface based on a determination that the VoWi-Fi handover of a user equipment (UE) is to be performed, determining if a router advertisement (RA) is received within a first time interval, and obtaining a full Internet Protocol version 6 (IPv6) address previously used by the UE in response to determining that the RA is not received within the first time interval, the full IPv6 address being for establishing the TCP / IP interface with a network.

Solutions are disclosed that enable capacity-aware local repair of tunnels in packet switched wide area networks (WANs). Traffic engineering agents on the routers are programmed to create the tunnels and include sets of primary and alternate tunnels sharing the same source and destination. A tunnel source router is provided a traffic split for allocating incoming traffic to its primary and alternate tunnels for when the primary tunnel is operating at or near full capacity operation, and another traffic split that shifts at least some traffic from the primary tunnel to the alternate tunnel, when the primary tunnel's capacity drops below a threshold. A tunnel may lose capacity for commonly-occurring reasons, such as a disturbance to cabling and faults in optical transceivers. Traffic engineering agents along the tunnel report capacity to the tunnel source router, permitting the network to respond to capacity changes more rapidly than waiting for network tunnel reconfiguration.

This invention discloses a distributed optical switching and interconnect chip and system having multiple connected nodes, each node including an optical routing unit with one side having multiple internal input / output ports and the other side having multiple external input / output ports, a laser array and a photodetector array, connected to the internal input and output ports, respectively. The external output ports are connected to the external input ports of other nodes through optical waveguides. The signals received by the photodetectors can be dropped to the node or re-routed to the lasers by an electronic packet switching chip for re-transmission to other nodes. The invention integrates and encapsulates laser arrays, photodetector arrays, optical routing units and interconnection network in one chip. The distributed optical switching chip and system architecture have the advantages of high scalability, low latency and low power consumption, and can be used for multi-chip computing systems and datacenters.

This invention relates to a method for autonomously obtaining the Owner node of an Ethernet ring network based on an improved ERPS protocol, belonging to the field of industrial internet technology. By adding a new field to the reserved fields of the ERPS protocol and adding corresponding opcodes, an improved ERPS protocol is obtained. This enables an Ethernet ring network composed of switch nodes supporting the improved ERPS protocol to not only be compatible with and support existing ERPS protocol communication, but also to have the ability to autonomously obtain the Owner node. In an Ethernet ring network composed of switch nodes supporting the improved ERPS protocol, each switch node first traverses the Ethernet ring network to obtain the total number of switch nodes, then applies a hash ring to obtain the corresponding group number for each switch node, then selects the master switch node within the same group, and finally selects the global master switch node as the Owner node from all group master switch nodes. This solves the problem in existing technologies where the Owner node of an Ethernet ring network cannot autonomously recover after a failure, resulting in poor robustness and fault tolerance of the network platform.

A network capture device receives data packets received by one or more packet switches in a data communications network and processes each of the data packets decoding the data packet and determining whether the data packet is a financial data packet or not. The network capture device transmits, to a risk exposure computer system, the data packets determined to be financial data packets.

Packet switching operations in network devices are managed based on detection of excess rate traffic flows. A network device receives data units, determines the traffic flow to which the data units belong, and updates flow tracking information for the flow. The network device uses the tracking information to determine when the rate at which the network device is receiving data belonging to the flow exceeds an excess rate threshold and is therefore an excess rate flow. The network device can enable one or more excess rate policies for excess rate traffic flows. Such policies can include any number of features affecting how the device handles data units belonging to the flow, such as excess rate notification, differential discard, differential congestion notification, and reprioritization. Memory and other resource optimizations for such flow tracking and management are also described.

The application provides a power dispatching communication integrated configuration system based on a dual-mode hybrid networking for a prefecture-level power dispatching institution, which combines the stability and reliability of traditional circuit switching and the flexibility and expansibility of modern IP packet switching, and realizes the optimal configuration and efficient use of all-element equipment resources including a dual-mode dispatching station, an IAD equipment, an IP dispatching telephone terminal, a recording system, a unified network management system and an intelligent service platform through the unified management and control of all the equipment on the basis of mutual cooperation and complementary advantages, while completing the low-cost, high-reliability and full-coverage of remote sites, and taking into account the instant communication efficiency and long-term development potential. Meanwhile, the integrated resource configuration system meets the safe and efficient operation requirements of the power dispatching communication system, conforms to the development trend of the continuous digital transformation and intelligent upgrading of the power dispatching communication system, and can promote the collaborative evolution of related equipment resource elements, so that the technical system and intelligent service can be developed synchronously.

Techniques are disclosed relating to spectrum sharing between different radio access technologies. In some embodiments, a broadcast base station is configured to wirelessly broadcast audio and video data to a plurality of broadcast receiver devices using a particular frequency band. In these embodiments, the broadcast base station is configured to discontinue broadcasting in the particular frequency band during a scheduled time interval, to enable one or more cellular base stations to perform cellular packet-switched wireless data communications using the particular frequency band.

Techniques are disclosed relating to spectrum sharing between different radio access technologies. In some embodiments, a broadcast base station is configured to wirelessly broadcast audio and video data to a plurality of broadcast receiver devices using a particular frequency band. In these embodiments, the broadcast base station is configured to discontinue broadcasting in the particular frequency band during a scheduled time interval, to enable one or more cellular base stations to perform cellular packet-switched wireless data communications using the particular frequency band.

Systems and methods for playing synchronized audio streams for live broadcasts are described. For example, supplemental audio streams (e.g., extra commentary or sound effects) may be streamed over a packet switched network with a copy (e.g., a reduced bandwidth copy) of a main audio signal from a television broadcast. A user device may synchronize the streamed audio with the audio from a television recorded with a microphone, and play a supplemental audio signal synchronously with the audio from the television. For example, methods may include capturing a first audio signal using a microphone; receiving a second audio signal and a third audio signal using a network interface; determining an estimated delay of the first audio signal relative to the second audio signal; and playing, using a speaker, the third audio signal with an added delay determined based on the estimated delay.

A method for enabling a round-trip packet loss measurement in a packet-switched communication network wherein a first node and a second node exchange packets comprising a packet loss field settable to an idle value or one or more measurement values. The first node performs a generation step whereby first packets having their set to a measurement value are transmitted to the second node. For each received first packet, the second node transmits back a second packet having its set to a measurement value. The first node then performs a reflection step whereby, for each received second packet, it transmits to the second node a respective third packet having its set to a measurement value. The time lapsing between start of the generation step and start of the reflection step has a predefined and substantially constant duration.

This application discloses a communication method, apparatus, terminal, and network-side device, belonging to the field of communication technology. The communication method of this application includes: a terminal receiving first information; wherein the first information includes at least one of the following: first indication information and second indication information; the first indication information is used to indicate that the network supports the transmission of IP Multimedia Subsystem IMS voice via packet switching (PS), and the second indication information is used to indicate that the network supports IMS voice via satellite; based on the first information, it is determined that the network supports IMS voice via satellite.

Disclosed is an apparatus for communication over a packet-switched network, including a transport protocol portion causing the apparatus to: transmit user data in a sequence of data blocks having respective sequence numbers; receive acknowledgements blocks acknowledging reception of at least some of the data blocks; retransmit those ones of the data blocks that are not acknowledged by the other apparatus, enter a congestion avoidance state in response to a predefined amount of the data blocks not being acknowledged by the other apparatus. The apparatus includes a complementary transport protocol portion to: provide the transport protocol portion with information indicating acknowledgement of all data blocks up to one having a first reference sequence number assigned thereto, and selectively cause the apparatus to transmit a control block instructing the other apparatus to ignore any unreceived data blocks having a sequence number that is smaller than a second reference sequence number.

In one example, techniques are provided for extending an active measurement protocol with an Operations, Administration and Management / Maintenance (OAM) channel. A first Provider Edge (PE) node obtains from or provides to a second PE node, over a packet-switched network via an overlay, OAM data in an OAM channel of the active measurement protocol. The OAM data relates to a networking issue. The network issue is automatically resolved responsive to the OAM data.

A wireless communication method and relates apparatuses are provided. The method by a first network node (e.g., LMF) includes obtaining information of a second network node (e.g., SMF); subscribing to a notification service of the second network node according to the information of the second network node; and receiving, by using the notification service of the second network node, a notification containing packet switched (PS) data off status in a user equipment (UE). This greatly reduce time and network resources for the LMF to be aware of the PS data off status in the UE.

Disclosed herein is a monitoring system for deriving a measurement of a separation distance between a monitor and one or more tags, where each tag is adapted to be attached to or contained within an object to be monitored, the system including a monitor that is operable to trigger an event if the separation distance exceeds a set separation limit. A frequency of packet exchange between a tag and monitor is dynamically altered based on a comparison of one or more monitored parameters with a mode transition threshold.

Methods and systems provided herein provide for IMS de-registration when a roaming network does not support voice over long term evolution (VoLTE) or voice over new radio (VoNR). An IMS de-registration system can trigger functionality in a home subscriber server and / or a unified data management (UDM) function to trigger de-registration from the IMS. The system may trigger identification of a non-voice over packet switched (non-VoPS) network and further trigger de-registration based on this identification.

A driving control system includes: a first communication controller that is provided in a vehicle and performs communication with outside by selectively using packet-switched circuit-switched communication; a second communication controller that is provided in a control server and performs communication with outside by selectively using the packet-switched or circuit-switched communication; a first travel controller that is provided in the vehicle and makes an autonomous travel control of the vehicle based on travel environment information; a second travel controller that is provided in the control server and makes a remote travel control of the vehicle based on travel environment information. When recognizing a decline in a communication response rate with the vehicle or a communication abnormality while making the remote travel control by using the packet-switched communication, the second travel controller commands, by using the circuit-switched communication, the vehicle to switch to the autonomous travel control.

An apparatus and system are described for supporting user equipment (UE) Policy Provisioning and Packet Switched Data Off (PSDO) in a 6G system. A Central Unit for Control Plane (CU-CP) receives a Registration Request message from UE that contains a UE Policy Container, the UE Policy Container including Policy Set Identifiers (PSIs), a UE Policy Support / Request indication, and an operating system (OS) identifier (ID). A UE Policy Association is established with a UE Policy Control Function (UE-PCF) and the UE Policy Container to the UE-PCF. A PSDO status is received from the UE at a Distributed Unit for Control Plane (DU-CP) and an updated Policy and Charging Control (PCC) rule applied to a user plane function (UPF) for enforcement based on the PSDO status.

An apparatus and associated method for processing packets transmitted in a packet-switched communication network includes a sampling module that identifies amongst the received packets a plurality of samples distributed in a statistically uniform way amongst at least two non-overlapping sample sequences. Each sample sequence is then subjected to at least one identification rule, thereby identifying in the sample sequence at least one sub-sequence of samples fulfilling the at least one identification rule. The identification rule comprises a condition on the value of at least one identification field of the packets. Then, at least one parameter indicative of a behavior of the at least one sub-sequence of samples is provided.

Provided are methods and systems for inserting custom content. An example method can comprise receiving, at a first computing device, an insertion instruction over a first non-packet-switching protocol information stream. The method can also comprise querying, by the first computing device, a second computing device in response to receiving the insertion instruction. The method can further comprise receiving, at the first computing device, content over a packet-switching protocol information stream in response to querying the second computing device. The content can be customized for an end-user associated with the first computing device.

A computing system (10) for transport layer network recovery on a packet-switched computer network includes a source computing device (12) with a processor (14) that executes a network traffic communication module (40), a load balancing module (42), and a congestion control module (44). The network traffic communication module (40) provisions a plurality of source ports to transmit outbound packets to a destination computing device (18), each source port being associated with a respective network path. The load balancing module (42) assigns each outbound packet to one of the source ports using a port scheduling algorithm (56) to uniformly distribute the packets among the source ports and associated network paths. The congestion control module (44) detects a congestion control condition for a packet transmitted via a source port associated with a congested network path. The load balancing module (42) assigns a next source port for a next outbound packet from a remainder of the source ports not associated with the congested network path.

A method and apparatus for processing packets transmitted in a packet switched communication network are disclosed. A sampling module of the apparatus identifies in a received packet a plurality of samples distributed in a statistically uniform manner among at least two non-overlapping sample sequences. Each sample sequence is then subjected to at least one identification rule, thereby identifying in the sample sequence at least one sample sub-sequence satisfying the at least one identification rule. The identification rule comprises a condition on a value of at least one identification field of the packet. At least one parameter indicative of a behavior of the at least one sample sub-sequence is then provided.

Embodiments include systems and methods for enabling fast recovery by a user equipment (UE) from packet switched (PS) call failure in a fifth generation (5G) non-standalone (NSA) network. Various embodiments for recovering from PS call failure in a 5G NSA network may include determining whether a total number of Evolved Packet System (EPS) bearer deactivation requests received from a base station of a 5G NSA network during a time period exceeds a maximum counter value, and disabling 5G data calls on the UE in response to determining that the total number of EPS bearer deactivation requests received from the base station of the 5G NSA network during the time period exceeds the maximum counter value.