34 results about "Internet service provider" patented technology

The present technology provides solutions for maintaining communications within a software-defined wide area network (SDWAN) when one or more devices in the SDWAN are isolated from one or more controllers. An example method includes receiving, at a static edge device associated with a static wide area network (WAN) Internet Protocol (IP) address in a data plane of the SDWAN, data from a first device communicating through an edge device of a first Internet service provider (ISP) of the SDWAN, where the first device is associated with a private IP address, associating, by the static edge device, the first device with the private IP address, and communicating, by the static edge device, with the first device at the private IP address. Systems and computer-readable media are also provided.

An Internet Service Provider (ISP) of a user device is identified. At least one VPN server of available VPN servers is identified based on data indicative of respective histories of successful connections from devices in a location of the user device to the available VPN servers via the ISP, The at least one VPN server is then transmitted to the user device.

In some examples, a method includes receiving, from a plurality of agents executing on scatter network devices, network performance metrics, at least some of the scatter network devices serving as endpoints for logical communication channels formed via a communication channel provider for which a first Internet service provider provides Internet backhaul and the logical communication channels traverse a first relay; aggregating the network performance metrics received from the plurality of agents; analyzing the aggregated network performance metrics to determine operational characteristics of a network; determining, based on the operational characteristics of the network, that the Internet service provider has transitioned from the first Internet service provider to a second Internet service provider to provide the Internet backhaul; and responsive to the determining, providing an instruction to the plurality of agents to modify operational settings of the agents to form logical communication channels that traverse a second relay.

The described technology is generally directed towards latency diagnostics for multiparty systems, such as a system comprising a communication network, a content delivery network (CDN), and one or more internet service providers (ISPs). A latency analyzer component can process latency data in response to a latency diagnostic trigger, such as an alert from a video quality monitoring system. The latency analyzer can determine whether latency is attributable to the communication network. If not, the latency analyzer can determine whether the latency is attributable to the CDN. If the latency is not attributable to the communication network or the CDN, the latency analyzer can determine that the latency is attributable to the ISP, and the latency analyzer can identify the ISP and generate appropriate reports and notifications.

A method for selectively providing Internet service to UEs by a company that functions as both a cellular service provider and an Internet service provider (ISP). In some embodiments, a request from a UE is received for Internet access via a non-cellular (e.g., WiFi) network, wherein the request identifies the UE's MAC address. If the UE has a SIM module, then the UE's IMEI / IMSI number is requested, received, and used to determine whether the UE is associated with a cellular service subscriber of the company. If so, then the Internet access via the non-cellular network is permitted; otherwise, the Internet access is denied. In this way, the company's ISP service can be restricted to its cellular service subscribers.

The embodiment of the invention provides a data processing method and device for multi-camera XR equipment, equipment and a storage medium. The method comprises the following steps: acquiring a hardware connection relationship between a plurality of camera sensors and an ISP (Internet Service Provider); dividing the plurality of camera sensors into a plurality of camera groups according to the hardware connection relation and business requirements, the camera sensors in each camera group having the same function, and the camera sensors in the camera groups being connected to the same aggregator or directly connected to the ISP; service processing is carried out according to the image data, obtained through processing of the ISP, of the multiple camera sensors, and the ISP is used for receiving sensor data sent by the camera sensors according to the connected camera sets and the parameters of the camera sensors in the camera sets and processing the sensor data to obtain the image data. According to the method, the cameras can be dynamically grouped according to the hardware connection relationship and the service requirements, and the cameras which have the same function and are connected to the same aggregator can be divided into one camera group, so that the ISP can perform efficient receiving and processing conveniently, and resource waste is avoided.

The techniques described herein provide a transport mechanism for large-scale exchange of cyber threat intelligence between entities and / or within an entity. Cyber threats evolve rapidly, and entities face challenges in efficiently sharing threat intelligence at “network speed” and applying mitigations across their networks. Existing techniques lack scalability, real-time updates, and coordination among organizations. Moreover, there is no existing technique for large-scale exchange of cyber threat intelligence. Additionally identifying threat data is often performed manually and is subjective. The techniques described herein provide mechanisms that leverage BGP or other routing protocols to facilitate large-scale threat intelligence exchange and mitigation across entities in real-time. The techniques described herein enable entities, including cloud providers, internet service providers, and others, to collaboratively mitigate cyber threats by disseminating real-time confirmed and actionable threat intelligence across their networks.

Systems and methods for providing detailed cloud-level network traffic visualizations include monitoring traffic traversing between any of computing devices, Data Centers (DCs), applications, and Internet Service Providers (ISPs); analyzing the traffic to determine network performance between any of the computing devices, DCs, applications, and ISPs; generating metrics based on the analyzing, the metrics being associated with the network performance of any of the computing devices, DCs, applications, ISPs, and connections therebetween; and providing a visual representation of the metrics, wherein the visual representation includes graphs visualizing any of the computing devices, DCs, applications, and ISPs, and any connections therebetween.

Novel tools and techniques might provide for implementing application, service, and / or content access control. Based at least in part on a consumer's choice of applications, services, content, and / or content providers—particular in exchange for a subsidy on content and / or network access fees provided to the consumer by chosen content providers—, a computing system may determine whether access to applications, services, and / or content not associated with the chosen content providers (“other content”) should be allowed or restricted. If restricted, the computing system might utilize various network access techniques and / or technologies to block the consumer's access to the other content, to allow access to the other content on a charge per access basis, or to allow access to the other content at reduced network access speeds. In some embodiments, an access provider (e.g., an Internet service provider, etc.) might perform both determination and implementation of content access and restriction.

The application discloses a DNS log-based P2P content distribution network node identification method and system, and belongs to the technical field of network security and traffic analysis.The application solves the problem that the prior art cannot accurately identify P2P content distribution network nodes.The application collects DNS resolution logs from recursive resolvers of Internet service providers, extracts key information of DNS queries from the DNS resolution logs, analyzes domain name access preference features, content provider aggregation features and external service behavior features of the nodes according to the extracted key information, obtains abstract features of the nodes, and finally inputs the abstract features of the nodes into a P2P content distribution network node identification model corresponding to network connection time lengths, so as to accurately identify the P2P content distribution network nodes through the identification model.The method can be applied to P2P content distribution network node identification.

Systems and methods are described herein for providing proxy mechanisms for DNS services, such as resolving DNS requests. In some embodiments, the systems and methods establish a Proxy DNS module at a DNS resolver of an internet service provider, and access, with the proxy DNS module, DNS queries destined for a public name server. The name server may be accessible by the DNS resolver via a publically-accessible network. Further, the systems and methods may route the accessed DNS queries to a private name server associated with the proxy DNS module and accessible via a private communications channel, and receive, from the private name server and via the private communications channel, IP addresses associated with the DNS queries.

Methods and system for providing network connectivity are disclosed. In an example, a method for providing network connectivity involves receiving from an Internet Service Provider (ISP) Internet Protocol (IP) address pool-to-tier mappings, generating an IP address-to-tier mapping at a Secure Access Service Edge (SASE) domain from the IP address pool-to-tier mappings, and forwarding traffic received at the SASE domain from a Broadband Network Gateway (BNG) of the ISP according to the IP address-to-tier mapping, wherein the traffic is received at the SASE domain from the BNG of the ISP only after access to the ISP is granted using an access ID.

Systems and methods for a customized Internet Service Provider (ISP) ranking dashboard include monitoring network traffic of a plurality of tenants of the cloud-based system, wherein the network traffic includes traffic originating from a plurality of computing devices distributed across various geolocations; analyzing the network traffic to determine network performance associated with a plurality of Internet Service Providers (ISPs); and providing a dashboard, wherein the dashboard includes one or more visualizations displaying the network performance of the plurality of ISPs.

Methods and system for providing network connectivity are disclosed. In an example, a method for providing network connectivity involves receiving from an Internet Service Provider (ISP) an access ID and an IP address at a SASE domain, wherein the access ID and the IP address correspond to a subscriber of the ISP, generating an IP address-to-tenant mapping at the SASE domain by applying the access ID and the IP address to an access ID-to-tenant mapping, and forwarding traffic received at the SASE domain from a Broadband Network Gateway (BNG) of the ISP according to the IP address-to-tenant mapping.

A system and accompanying methods for providing intelligent identification of computing services and categories of services in use within a plurality of computing networks. The system analyzes network traffic associated with services requested by computing devices interacting with a network device, such as a network device of an internet service provider. The system compares the network traffic to information from a service identification list to determine a type of the service and / or a category of the service. The system provides an identification of the services and / or categories of the service to a service provider associated with the network device. Services tailored for the service and / or category of service can be provided to the computing devices, such as via the network device associated with the service provider.

In one embodiment, a method includes: performing, via a cloud controller of at least one cloud server of an operator of an Internet service provider, a first authentication with a customer premises equipment (CPE) located at a user location remote from the at least one cloud server; after the first authentication, performing a second authentication with a third party application provider; receiving a request from the CPE for direct secure communication between the CPE and the third party application provider; and in response to the request, providing an authentication token to the CPE to enable the CPE to directly securely communicate with the third party application provider using the authentication token and without involvement of the cloud controller.

An electronic door lock intercom system. The electronic door lock intercom system is disclosed. The electronic door lock intercom system involves a cloud platform; an Internet service provider, communicated with the cloud platform; at least one indoor unit provided indoors, at least one first electronic door lock provided at a near-end door, an outdoor unit provided outdoors, and a second electronic door lock provided at a far-end door, communicated with the Internet service provider; and at least one application device, communicated with the Internet service provider. Through different arrangements of each component, it can be applied to different scenarios and can be remotely monitored through the application devices of user, property management or front-end management to achieve safety management.

For an entity having access to a plurality of independent cloud-based applications and including a member having access to at least one cloud-based application from the plurality of independent cloud-based applications via at least one member account associated with the at least one cloud-based application, a plurality of activities performed using the at least one member account can be analyzed with at least one machine learning model configured to flag an activity of an activity type from the plurality of activities in response to (1) the activity being associated with a geolocation outside a trusted geolocation cluster at an entity level for the entity, a trusted geolocation cluster at an activity level for the activity type, and / or a trusted geolocation cluster at a member level for the member, or (2) the activity being associated with an internet service provider (ISP) that is not recognized as being (a) a trusted ISP at the entity level for the entity, (b) a trusted ISP at the activity level for the activity type, and / or (c) a trusted ISP at the member level for the member.

To create or update a cohort comprising a weighted content category group that reflect usage behavior of a user group, a data packet in transit between a user device and a host through an internet service provider (ISP) core network is intercepted. The data packet is assigned to a category of content and analyzed to obtain a user identifier associated with the data packet. An identity graph of a user associated with the user identifier is updated based on the category of content. The identity graph tracks accesses to different categories of content. The cohort belongs to a set of cohorts configured to be queried to determine a particular cohort corresponding to a particular user identifier for delivering content associated with the particular cohort to a particular user represented by the particular user identifier.

An emergency location information system comprising: an emergency mobile location (EMP) server; an emergency service number (ESN) database server that stores city addresses and corresponding labels provided by an Internet service provider (ISP) over an IP network; a wireless access point (AP) component EMP-AP running on a processor of an AP at a city address known to the ISP, wherein the EMP-AP component provides a label known to the ISP, which is part of a radio frequency (RF) signal, a beacon transmitted by the AP; and a mobile operating system (OS) component EMP-OS running on a processor of a mobile phone and operating to monitor the AP's beacon signal and store the label,wherein the EMP-OS component further has the function of integrating the signaling into an emergency call from the mobile phone to the EMP server via a network.,

A method and system for identifying and classifying visitor information tracked on a website to distinguish between Internet Service Providers (ISPs) and non-ISPs. The technology employs machine intelligence to train a classifier on visitor intelligence rich in enterprise statistical structures through website tracking technology. The ISP classifier can differentiate between ISPs and non-ISPs to identify website business attributable to an ISP for a given website.

For an entity having access to a plurality of independent cloud-based applications and including a member having access to at least one cloud-based application from the plurality of independent cloud-based applications via at least one member account associated with the at least one cloud-based application, a plurality of activities performed using the at least one member account can be analyzed with at least one machine learning model configured to flag an activity of an activity type from the plurality of activities in response to (1) the activity being associated with a geolocation outside a trusted geolocation cluster at an entity level, an activity level, and / or a member level, or (2) the activity being associated with an internet service provider (ISP) that is not recognized as being (a) a trusted ISP at the entity level, the activity level, and / or the member level.

This invention introduces an adaptive hybrid network topology including a ring, star, and tree sub-topology interconnected through a shared backbone (100), a shared backbone (100) comprising a hierarchical structure with multiple levels of aggregation, characterized in that said shared backbone are installed network security infrastructure (101) comprising firewalls (104), intrusion detection (1041), Virtual Private Network (1011) and Point-to-Point Protocol over Ethernet (1012), a connection controller module (110) for managing network connections comprising a cross connection module (111), characterized in that said cross connection module is a plurality of a single dual core cable (114) connecting the plurality of intermediate distribution frames (112), a plurality of intermediate distribution frames (112), characterized in that said distribution frames attached are plurality of devices (121) and plurality of virtual local area network (1122) attached in internet service provider, and a failover configuration module (113) utilizing Spanning Tree Protocol (1131) for redundancy and path selection. Disclosed further are the methods for path selection and managing network topology in an adaptive hybrid network.

Disclosed is a system (200) and a method (400) for monitoring performance of one or more Internet Service Providers (ISPs) in a communication network (100). The 5 method includes triggering, by a user device (103), an execution of one or more applications at a predefined time to measure a plurality of speed testing parameters associated with a network connection of the one or more ISPs. Based on a result of the execution of the one or more applications, measured values of the plurality of speed testing parameters are stored in a predefined format. The measured values of 10 the plurality of speed testing parameters are compared across the one or more ISPs to monitor the performance of each of the one or more ISPs.

The invention relates to the field of computer vision and artificial intelligence, in particular to an ISP call participation evaluation method based on multiple serialized agents. The method comprises the steps that original images of different environments are acquired, and an RAW-RGB data set is obtained; constructing a serialized multi-agent reinforcement learning model, and training the serialized multi-agent reinforcement learning model through the RAW-RGB data set to obtain a trained serialized multi-agent reinforcement learning model; and performing parameter prediction on an input RAW image according to the trained serialized multi-agent reinforcement learning model to obtain ISP parameters. In this way, a serialized multi-agent architecture can be utilized to map an ISP assembly line module, multi-modal fusion input of image features, gradient features and ISP parameter features is combined, serialized process parameter optimization is performed module by module, and a mechanism of combining local and global rewards is adopted to guide the agents to realize high-quality RGB image generation and task-driven optimization.

System and methods include obtaining data, over the Internet, associated with a plurality of Wi-Fi networks each Wi-Fi network having one or more access points and each Wi-Fi network being associated with a customer of one or more service providers; aggregating and filtering the data; analyzing the aggregated and filtered data for the network condition of each of the plurality of customers of one or more service providers; determining an internet service provider (ISP) outage based on a plurality of factors; and performing one of a plurality of resolution or notification actions.

Described herein are ways to reduce bandwidth use for real-time broadcasts between an Internet Service Provider (ISP) and its subscribers by re-encoding audiovisual data streams to have a generic encoding that can be viewed by subscribers of different content providers. A system can determine that a plurality of subscribers is watching the same live event and can multicast the generic encoding of the live event to the plurality of subscribers, even where individual subscribers stream the live event from different content providers. This can eliminate the need for streaming multiple versions of the same live event from different content providers to subscribers. The systems can generically encode an audiovisual data stream of a live event to generate a single audiovisual data stream for the live event that is multicast to subscribers watching the same live event.

A computing device receives a first communication data associated with a communication connection between a gateway device and an internet service provider; determines a communication protocol associated with the communication connection, wherein the communication protocol comprises a plurality of communication features; identifies a data extraction specification associated with the communication protocol, the data extraction specification comprising an instruction identifying a first communication feature of the plurality of communication features to be extracted from the first communication data; analyzes the first communication data using the data extraction specification; and generates a first extracted data based on the analysis, the first extracted data comprising the first communication feature specified in the data extraction specification.

We provide a lottery system that can increase user satisfaction. [Solution] The lottery system 1 is a lottery system that is managed by a business operator and includes a management server (Internet service provider server 3) that processes the lottery in response to user operations, wherein the management server processes the lottery only during a specific period (during the ABC Live event) set based on the duration of a specific event (ABC Live). The specific period is the duration of the specific event. The user can receive a prize at the venue of the specific event in response to the lottery processing.

A community gateway for a satellite communication system can include a network switch configured to route data packets received from an Internet Service Provider (ISP); and a plurality of community gateway (CGW) antennas. The satellite communication system includes terrestrial gateway terminals in communication with the Internet. Each CGW antenna is configured to communicate with the satellites via a CGW-SAT link, and each CGW antenna includes a network interface processor configured to route data packets between the network switch and the CGW antenna. The network interface processor is configured to report to the network switch a connection status of a connection between the CGW antenna and a node of the satellite communication system. The network switch is configured to route the data packets to the CGW antennas for transmission through the satellite communication system based on the reported connection status of the CGW antennas.