173 results about "Telenet" patented technology

Systems and methods for scheduling actions in remote networking environments while minimizing exposure of secured access credentials using a bifurcated security approach. The system may receive confirmation of a first verification that the first user is authorized to access the remote server. The system may, after providing access to the remote server, receive and schedule a first action. The system may generate a first access token for the remote server, wherein the first access token is specific to the first user. The system may authorize, via a second verification, the first action based on determining that the first access token is currently valid.

Systems and methods use independently sourced authentication for a bifurcated authentication process. For example, in furtherance of authentication of devices in a first device session (e.g., between a user and an interface provider), the systems and methods create a second device session (e.g., between the interface provider and an independent authentication source). To do so, the interface provider may facilitate the transmission of information from the user to the independent authentication source. The independent authentication source may use information (e.g., information only accessible to the independent authentication source) to authenticate the information provided by the user. The independent authentication source may then authenticate the user. By doing so, the interface provider has relied on information known to the other parties (e.g., the user and the independent authentication source) to authenticate the user.

A certificate management service (CMS) may securely provision and rotate certificates for edge devices. The CMS may pre-register a unique device ID of an edge device (e.g., provided by the device manufacturer). When the edge device is installed at the client's remote network, it is provisioned with a common bootstrap certificate that allows the edge device to initially establish a secure to connection to a local hub device and to request a client certificate. The CMS receives the request for the client certificate, which includes the unique device ID. Since the unique device ID was pre-registered at the CMS, the CMS authenticates the request for the client certificate. The CMS causes a signed client certificate to be delivered back to the edge device, which may be used by the edge device to establish subsequent secure connections.

A computer-implemented method is disclosed for controlling the disclosure (e.g., flow) of sensitive information from a document in a computer application running on a computer endpoint device to a tool (e.g., a generative artificial intelligence tool) hosted at a remote network destination. The application is configured to selectively enable or disable in-line access to the remote generative artificial intelligence tool from within the document. The method includes receiving a notification (e.g., at a computer-implemented endpoint agent) that a document has been opened in the application, obtaining text from the open document, determining (e.g., with a computer-implemented scanning engine) whether the text from the open document contains sensitive information based, at least in part, on content of the text, and disabling the in-line access to the generative artificial intelligence tool at the application in response to determining that the content of the text from the open document contains sensitive information.

The invention relates to a data migration method and device, computer equipment and a storage medium, and belongs to the technical field of distributed storage. The method comprises the steps that data migration task parameters are determined according to a received data migration request, and the data migration task parameters at least comprise the thread concurrence number; according to the thread concurrent number, starting at least one thread and reading data and metadata information of a file to be migrated in the source end remote network file sharing system through the first client library; and in response to reading completion, storing data and metadata information of the to-be-migrated file to a file system of a target storage end through the second client library. On the basis of ensuring the integrity and consistency of the file data and the metadata, the system resource occupation amount is reduced, and the data transmission efficiency is improved.

The invention provides an optical module management method, system and device, relates to the technical field of optical modules, and can be applied to scenes such as dynamic prediction and intelligent scheduling of the optical modules, and the method comprises the following steps: data acquisition of operation state data and link state data of each optical module in a communication device, state modeling of the optical modules by using the operation state data, and state modeling of the optical modules by using the link state data; obtaining a state vector corresponding to each optical module; and inputting the state vector and the link state data into a preset parameter evolution analysis model to obtain a potential risk event, and uploading the potential risk event to a remote network control platform. Through obtaining and processing the operation state data and the link state data, a potential risk event is obtained, the potential risk event is identified and synchronized to a remote network control platform, fine state evaluation and intelligent scheduling of the optical module are realized, and the defect that the optical module is difficult to carry out in an actual complex communication environment is overcome. And the potential performance degradation and aging trend of the optical module cannot be judged to perform intelligent scheduling on the optical module.

The invention provides a safety control system for ship-to-ship liquefied natural gas unloading. The system comprises a liquefied transport ship, a floating storage ship, a dynamic control module and a land terminal processing mechanism. The land terminal processing mechanism comprises a gas discharge unit and a liquid storage unit; the dynamic control module is composed of an unloading regulation and control unit, a temperature regulation and control unit and a pressure regulation and control unit. The output end of the transport ship is connected with the floating storage ship through a first liquid channel; the connecting output end of the floating storage ship is connected with the liquid storage unit through a second liquid channel; the floating storage ship is connected with the transport ship through a first gaseous loop; the floating storage ship is connected with the gas discharge unit through a second gaseous loop; the dynamic control module controls the first liquid channel, the second liquid channel, the first gaseous loop and the second gaseous loop to work through a remote network. The potential safety hazard caused by improper unloading rate control, temperature difference over-limit and insufficient pressure regulation of the liquefied natural gas in the prior art is solved.

An item return transaction for an item is identified at a transaction terminal. The item is authenticated using multiple factors at least some of which are independent of item code identification for the item. A fraud score is calculated based on the multiple factors, item code identification, and data that is specific to a customer associated with the transaction, specific to the item, specific to a store associated with the transaction terminal, and specific to a retailer associated with the store. The fraud score and a customer-return grade for the customer are processed to determine whether the transaction can complete at the terminal without assistance or whether the transaction is to be held in abeyance for an audit (onsite audit or remote network-based audit). In an embodiment, the t terminal is a Self-Service Terminal (SST) and the transaction is a self-item return transaction conducted by a customer at the terminal.

The present invention is a drone assembly for being used for multirole, first responders, and military applications. The drone assembly is formed from a drone and a launch tube therefor. In an un-deployed position of the drone assembly, the drone is stowed in a stowed position within the launch tube and the launch tube is closed. In a deployed position of the launch tube, the launch tube is open and the drone is peripherally exposed and capable of passing from an un-deployed position to a deployed position when the drone still rests in the launch tube. The drone comprises an onboard AI chipset and onboard sensors. The take-off and flight are performed autonomously. The launch tube relays the video images, sensor data and other telemetry information, via local Wi-Fi, and / or ethernet, cellular to a local or remote user or directly to be stored in a remote network system.

A computer implemented method includes establishing a local connection to a local private network via a gateway device. A connection is established between the gateway device and a management service in a remote network. A private network target device is discovered on the local private network and information identifying the private network device is provided to the management service. Communications are transferred between the management service and the private network target device via the gateway device over the connection.

The invention provides a safety three-level management and control system in a complex environment, and the system comprises a first-level wearable sensing unit which is worn by an operator and is used for collecting environment parameters and physiological parameters of the operator and generating corresponding safety monitoring data; the second-stage relay gateway unit is used for establishing two-way communication connection with the first-stage wearable sensing unit through a first wireless self-organizing network so as to receive and gather the safety monitoring data and relaying the gathered data to the outside through a second high-bandwidth self-organizing communication link; and the third-stage monitoring and distributing unit is used for receiving the safety monitoring data from the second-stage relay gateway unit and carrying out centralized monitoring and management on the operation state through a local network or a remote network. The method is suitable for operation real-time scenes in complex environments with serious metal shielding and limited signals, such as mines, factory closed spaces, steel structures, underground facilities and the like.

Endpoints in a network execute a sensor module that intercepts commands to obtain information regarding a remote network resource. The sensor module compares a source of commands to a sanctioned list of applications. If the source is not sanctioned, then a simulated response can be provided to the source that references a decoy server.

Using at least one hardware processor, obtain, at a network monitoring location, an indication of a putative power failure at a remote network location. Responsive to obtaining the indication, initiate, using the at least one hardware processor, an automated triage process to determine whether the putative power failure is an actual power service failure. Using the at least one hardware processor, issue an alert based on the determination of whether the putative power failure is an actual power service failure.

Disclosed herein are network elements for use in a transport network and methods of using the same. The network elements may comprise an embedded device having a processor, a communication device in communication with the processor, a first memory, a second memory, and a third memory. The third memory may store a hybrid boot sequence comprising computer-executable instructions that when executed by the processor of the embedded device cause the embedded device to: determine whether a first kernel image is stored on the first memory; responsive to the determination that the first kernel image is not stored on the first memory, obtain a second kernel image stored on a remote network element; store at least one of the first kernel image and the second kernel image on the second memory as a primary kernel image; and boot the primary kernel image stored on the second memory.

This application discloses a Bluetooth locking method, device, and medium for a micro-inverter, relating to the field of distributed generation system technology. It is used to achieve locking control of the Bluetooth signal of a micro-inverter. Addressing the current issue of not supporting flexible Bluetooth on / off switching, this application provides a Bluetooth locking method for a micro-inverter. First, the Bluetooth signal receives network distribution information uploaded by the user, thereby connecting the micro-inverter to the local area network. Then, a router connects it to the internet, enabling remote network control of the micro-inverter. Subsequently, the user can control the Bluetooth signal locking of the micro-inverter without using an external switch, effectively solving the problem of the special application environment of micro-inverters being unsuitable for external switches. Furthermore, this method can also enable the Bluetooth signal without unlocking by disconnecting the micro-inverter from the network connection, making the use and maintenance of the micro-inverter more flexible.

This invention relates to a method allowing collectors to submit a video proof of the condition of their collection cards to obtain remote certification by a competent third party of the condition of their filmed cards.The process mainly involves the following steps:E1—Recording by a user device of a video capturing the following steps performed by said user:E1.1—Presentation of the cardE1.2—Insertion into the protection deviceE1.3—Closure and sealing of the protection deviceE1.4—Presentation of the different sides of the sealed protection deviceE1.5—Presentation of the unique identifier of the protection deviceE2—Automatic transfer by said user device connected to a remote network of said video to a remote storage server accessible to the competent third party.

A communication management resource receives wireless service usage information indicating travel speeds of multiple communication devices using a first wireless network in a geographical region to access a remote network. The communication management resource further receives a metric indicating wireless services to provide in the geographical region via a second wireless network. Based on the travel speeds of the multiple communication devices and the metric, the communication management resource produces a wireless base station installation plan to install the second wireless network.

This invention relates to the field of intelligent robot technology, specifically to a remote network control system based on intelligent robots, comprising: a monitoring module for monitoring the packet loss rate of environmental parameters collected during historical robot operation and during transmission; and a creation module for acquiring the number of online robots, creating a data transmission channel based on the number of online robots, and configuring the data transmission channel on the robots. This invention combines the packet loss rate of the robot's movement scenario and the packet loss rate of the robot when transmitting environmental parameter data packets to prioritize the robots for data transmission through the data transmission channel. Furthermore, it resets the operation control based on the system, enabling the system to continuously adapt to the actual performance state of the robots in real time, ensuring that robots with good performance can prioritize the execution of environmental parameter transmission tasks, thereby improving the effectiveness of the robot swarm in collecting environmental parameters and making the collection of environmental parameters in robot application scenarios more comprehensive.

The invention relates to the technical field of vehicles, and provides a vehicle diagnosis method and system and a gateway architecture. The method comprises the steps of receiving an original diagnosis request sent by external equipment; the original diagnosis request at least comprises a CAN request, a DoIP request and a remote interface request; the received original diagnosis request is processed, and according to the current diagnosis state of the target vehicle, distribution of the diagnosis request is completed according to a preset processing algorithm; the diagnosis state at least comprises idle state, CAN diagnosis occupation state, DoIP diagnosis occupation state and remote network occupation state; generating a target routing path based on the source of the original diagnosis request and the corresponding target execution module, and transmitting the distributed diagnosis request to the corresponding target execution module through the target routing path; and executing a diagnosis test according to the received diagnosis request, and feeding back a diagnosis execution result to the external equipment. According to the invention, the seamless diagnosis of the target execution module can be realized no matter whether the diagnosis request is from the CAN bus or the DoIP network in the prior art.

Aspects of the present disclosure enable a system with limited computing resources to remotely perform security testing of a large number of host devices. These host devices may be included as part of a single networked computing environment or may be distributed among multiple networked computing environments. The networked computing environments may be associated with a single entity or multiple entities. The system can allocate its limited computing resources among the host devices based on a type of security testing and the amount of host devices to be tested. Further, the system can obtain secure access to the remote networking environment through a secure virtual private network connection to an on-site access system installed at a physical location of the networked computing environment.

An integrated computer network security and threat prevention and detection platform includes a central processor and a display operable to aggregate and present data from a plurality of network security applications in an integrated dashboard format to a system administrator. The network security applications may be hardware, software, or hybrid applications running on local machines, local networks, remote machines, or remote networks, in communication with the central processor. In one embodiment implementation of the integrated computer network security and threat prevention and detection platform is performed on premises, in an alternative embodiment the integrated computer network security and threat prevention and detection platform is provided in an Internet or cloud-based environment, in other embodiments the computer system security platform is a hybrid configuration having both on-premises and cloud base components.

1. The name of this design product: Tracked chassis (intelligent remote control). 2. Purpose of this product design: It can be remotely controlled over the network, and the modular components can meet the needs of different application scenarios and adapt to different terrains, so as to carry out outdoor inspections, environmental surveys and explorations and other activities. 3. The key design point of this design product lies in the combination of shape and pattern. 4. The picture or photo that best illustrates the design points: Stereoscopic drawing 1.

The application provides a JZ-7 remote control braking system, which comprises a total air pipe, a first passage, a second passage and a third passage, a relay valve, an equalizing air cylinder, a first high-speed electric air valve, an overcharge air cylinder, a control device, a CCU and a remote network control unit, the total air pipe is connected with the overcharge pipe of the relay valve after being communicated with the first passage, and the gas outlet of the first passage is also communicated with the exhaust port of the overcharge air cylinder; the total air pipe is connected with the equalizing pipe of the relay valve after being communicated with the second passage, and the gas outlet of the second passage is also communicated with the first high-speed electric air valve and the equalizing air cylinder respectively; the total air pipe is connected with the cut-off pipe of the relay valve after being communicated with the third passage, and the train pipe of the relay valve is also connected with an electric air release valve. The application can realize remote networking operation of the braking system, and the locomotive can implement braking and relieving functions without operating the automatic brake valve.

The invention provides a near-end connection and communication method and system of a mobile terminal and an inverter, and the method comprises the steps: the mobile terminal receives and responds to an instruction of a user, and requests to establish near-end WiFi connection with a gateway; the gateway responds to the mobile terminal and establishes near-end WiFi connection with the mobile terminal; the mobile terminal initiates a TCP connection request to the gateway; the gateway responds to the mobile terminal and establishes TCP connection with the mobile terminal; the mobile terminal communicates with the inverter through the gateway based on an instruction input by a user, and reads target data required by the user from the inverter; the gateway transparently transmits the data sent by the mobile terminal to the inverter, and transparently transmits the data sent by the inverter to the mobile terminal; and the inverter communicates with the mobile terminal through the gateway and sends the target data to the mobile terminal. According to the method provided by the invention, WiFi communication between the mobile terminal and the inverter is realized, and data recorded by the inverter can be flexibly and conveniently acquired without depending on wired connection or a remote network.

A network based hyperlocal authentication system and method that secures communications between a wireless client device and a remote network component is described. The system includes a gateway, a client device application, and a remote network component. The gateway includes a gateway short-range transceiver and a plurality of gateway authentication credentials. The client device application, corresponding to the wireless client device, has a client device short-range wireless transceiver. The client device application includes a plurality of client device authentication credentials. The client device application requests a file from the remote network component. The remote network component generates an encrypted file for the wireless client device and transmits the encrypted file to the wireless client device. The gateway transmits a gateway key to the client device application with the gateway short-range wireless transceiver. The client device application, having the gateway key, decrypts the encrypted file.

The application discloses a kind of unmanned vehicle charging control module and its charging access and safety isolation method, it is related to unmanned vehicle charging control technical field, the application includes local micro control unit (MCU), environment perception submodule, physical isolation execution submodule and remote communication interface.Hardware circuit composition and connection relationship include physical isolation execution submodule, multidimensional perception unit and self-checking feedback loop.Core control method process includes adhesion self-checking stage, environment access determination stage, physical conduction and charging strategy execution, charging completion and safe homing.Remote control and collaborative logic support remote web page end real-time monitoring.Excessive power relay is physically disconnected in non-charging stage Charging circuit, and combined with self-checking feedback loop Fault diagnosis before power-on, fundamentally eliminates the risk of electric leakage and short circuit caused by exposed charging interface, realizes fault-safety.

1. Name of the product of this design: Network Camera (TS2DR‑1). 2. Purpose of this design product: for local monitoring or remote network monitoring. 3. The key point of the design of this product lies in its shape. 4. The picture or photo that best illustrates the design points: three-dimensional picture.

An interface (400) couples a mobile network (110) of a mobile network operator to an access network (210) of a fixed network operator, to allow user equipment connected to the mobile network to access a private or public target network via the access network. The interface includes, on the mobile network side, a protocol stack (410) comprising: i) an Ethernet link layer (411, ETH), and ii) a mobile network protocol layer (413, GTP) incorporating UE identification data (10) produced by the mobile network (100). The interface includes, on the access network side, a protocol stack (420) comprising an Ethernet link layer (421) with a virtual MAC address (VETH).The virtual MAC address (VETH) is generated by incorporating a unique identifier specific to the UE, specifically the MSIN identifier of the UE user's IMSI obtained by the mobile network and incorporated into the mobile network protocol layer (413, GTP) of the protocol stack (410) on the mobile network side.

1. The name of the design product: vehicle event data recorder (BM1-VP07). 2. The use of the design product: the vehicle event data recorder is used for vehicle monitoring and remote network monitoring. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

Embodiments of this application disclose a tunnel keepalive method, a network device, a system, and a storage medium, and pertain to the field of communications technologies. In the embodiments of this application, before a failure occurs in communication between a UP device and a CP device, the UP device receives tunnel information synchronized by the CP device. After a failure occurs in communication between the UP device and the CP device, the UP device performs tunnel keepalive based on the tunnel information, that is, the UP device maintains a tunnel between the UP device and a remote network device. In this way, tunnel teardown is not triggered because of the failure in communication between the CP device and the UP device.