73 results about "Uniform resource identifier" patented technology

Various embodiments provide methods, apparatuses, and computer program products. An example apparatus includes at least one processor; and at least one memory storing instructions that, when executed by the at least one processor, cause the apparatus at least to perform: defining an information message for carrying text descriptions within a coded video, wherein the text descriptions comprise one or more purposes, wherein the one or more purposes comprise at least one of an encoder name, an encoder version, or a tag uniform resource identifier (URI) for identifying the coded video content; and signaling the information message to a decoder.

At least one aspect of the technical solutions described herein relate to a system. The system can include one or more processors coupled with memory. The system can receive a message can include an identifier of a browser extension executing on the client device and a user identifier of a software-as-a-service (SaaS) application. The system can bind a subdomain identifier with the identifier of the browser extension. The system can transmit a uniform resource identifier (URI) including the subdomain identifier to the client device. The domain name service (DNS) request can include a host identifier of the client device. The system can access a DNS log of the DNS system to identify the host identifier using the subdomain identifier. The system can bind the identifier of the browser extension and the user identifier with the host identifier of the client device.

The invention discloses a system call behavior modeling method based on a graph neural network, and the method comprises the following steps: S1, collecting system call event data, and carrying out the standardization processing of a resource identifier to generate a uniform resource identifier; s2, constructing a double-layer hypergraph model based on a uniform resource identifier, and jointly establishing a calling-resource layer and a constraint layer; s3, executing graph neural network modeling on the double-layer hypergraph model, and fusing two layers of embedding to generate a unified representation; s4, calculating joint loss and optimizing parameters of the double-layer hypergraph model by utilizing unified representation in a training stage; s5, adopting a reversible sliding window in a reasoning stage, outputting an abnormal score and generating a structure reconstruction plan; and S6, generating an anti-fact explanation based on the structure reconstruction plan, and outputting a calling set and a related identification sequence. According to the method, the double-layer hypergraph is constructed, and the graph neural network is combined for modeling, so that accurate detection and interpretable analysis of the system calling behavior are realized.

Embodiments of the present disclosure relate to supporting API prefix in callback URI. A first first device is provided comprising at least one processor and at least one memory storing instructions. The at least one memory and the instructions are configured to, with the at least one processor, cause the first device at least to: receive, from a second device, a service request message, wherein the service request message comprises a first callback Uniform Resource Identifier, URI, with a first Application Programming Interface, API, prefix; in response to determining that the second device is not reachable, send, to a third device, a discovery request for discovering a further second device instance; receive, from the third device, a discovery response; determine a second callback URI based on the discovery response; and send to the further second device instance a callback request message based on the second callback URI.

A wireless communication method includes: acquiring an electronic product code (EPC) uniform resource identifier (URI) from an environmental Internet of Things (IoT) device; and formulating a network access identifier (NAI) format subscribing to a permanent identifier (SUPI) based on the acquired EPC URI.

The invention relates to a 5G signaling plane traffic screening method based on a multi-core processing unit, and the method comprises the steps: receiving network mirror image traffic through a physical interface unit, and screening out transmission control protocol traffic; the switching chip unit identifies HTTP / 2 protocol traffic from transmission control protocol traffic according to a target port number or an application layer protocol handshake feature, and forwards the HTTP / 2 protocol traffic to the multi-core processing unit; the binary framing structure of the HTTP / 2 protocol is analyzed, a data frame and a control frame are distinguished, and an HTTP request head is restored; analyzing and decoding an HTTP request header, and extracting a pseudo header field of a uniform resource identifier path in the HTTP request header; generating a traffic filtering rule corresponding to the service signaling traffic bearing the specific network function; and issuing the generated flow filtering rule to a switching chip unit, and outputting specified 5G signaling plane flow. The method automatically adapts to the dynamic change of the 5G network element, and effectively solves the problem of traffic loss or inaccuracy caused by difficult maintenance and untimely updating of the static work parameter data.

The embodiment of the invention provides a resource acquisition and reinforcement learning method and device, a storage medium and a program product. In the method, a resource acquisition demand is acquired; aiming at the resource acquisition demand, generating a first task queue, the first task queue being used for storing a uniform resource identifier (URI) to be explored; a resource obtaining module obtains the first URI from the first task queue and initiates a resource access request based on the first URI to obtain a first network resource; acquiring a first reference URI (Uniform Resource Identifier) embedded in the first network resource; according to a resource acquisition state corresponding to the first URI, determining whether the first reference URI needs to be explored by using a decision model obtained based on reinforcement learning optimization; and when the first reference URI needs to be explored, the first reference URI is added to the first task queue for subsequent acquisition of corresponding network resources.

Techniques are described herein that are capable of providing time-of-scan protection for a scannable encoded image in an electronic message or an electronic form. An electronic message or electronic form is received. The electronic message or electronic form includes a scannable encoded image. A uniform resource identifier (URI) that is encoded in the scannable encoded image is identified by decoding the scannable encoded image. The URI identifies a target data source. A wrapped URI is generated by wrapping the URI in a wrapper. The wrapped URI identifies a substitute data source. A replacement scannable encoded image is generated by encoding the wrapped URI. A replacement electronic message or replacement electronic form is generated by replacing the scannable encoded image in the electronic message or electronic form with the replacement scannable encoded image. The replacement electronic message is provided, or the replacement electronic form is published.

The application discloses a method and device for previewing an open format document, electronic equipment and a storage medium, and belongs to the technical field of computer software, and the method comprises the following steps: registering a request interception handle through a browser kernel framework, capturing a document resource request initiated by a client business system; extracting a protocol header and a path of the uniform resource identifier, identifying and classifying the protocol type; executing a corresponding resource loading strategy according to the classification result of the protocol type, obtaining document binary data; constructing a dynamic HTML document containing a document rendering engine based on the obtained document binary data; and returning the dynamic HTML document as a response to the client for rendering and display. The application realizes unified preview support of OFD and PDF double-format documents, reduces system complexity and deployment cost, improves the compatibility and performance of document preview, and is particularly suitable for OFD and PDF double-format compatible preview scenes in the financial industry credit transformation.

A client device may connect to a remote browsing server, which may browse to a Uniform Resource Identifier, render a web service or other content, and stream the content back to the client device. The client device may have a web browser through which the server may stream rendered images and which may capture various inputs, such as mouse operations, keyboard inputs, and other input. The remote browsing server may receive the inputs from the browser, then transmit the inputs to the web service through a server browser, which may render the images transmitted to the client device. The remote browsing server may be a virtual machine that may be created for a limited use, such that the virtual machine and browser may be wiped clean with each use.

Various embodiments facilitate uncovering an Application Programming Interface (API) attack surface for an organization. In some examples, an apparatus comprises storage media, a processing system, and program instructions stored on the storage media. The apparatus processes Domain Name System (DNS) data to determine a set of possible API servers. The apparatus determines a set of possible Uniform Resource Identifier (URI) paths that may lead to one or more actual API endpoints. The apparatus joins the set of possible API servers with the set of possible URI paths to generate a set of possible API Uniform Resource Locators (URLs). The apparatus performs an API-specific crawl of the set of possible API URLs by submitting API requests to the set of possible API URLs and analyzing responses to determine the one or more actual API endpoints and one or more actual API servers of the set of possible API servers.

The application discloses a charging platform interconnection fine flow limiting method and system based on operation identification, comprising the following steps: receiving an interconnection request sent by a first charging platform to a second charging platform; analyzing the request to obtain the operation identification of the first charging platform initiating the request; checking whether the operation identification exists in a preset legal identification set, and if not, rejecting the request; if the operation identification is legal, generating a unique flow limiting key value according to at least the operation identification, the uniform resource identifier of the request and current time window information. Advantage: the same interface request of different platform operators is independently counted, the high-frequency request initiated by a malicious platform only triggers self-flow limiting and does not affect the normal business request of a legal cooperative platform, thereby avoiding the "misuse" problem caused by interface-level fusing, and significantly improving the business fairness and service availability in the charging platform interconnection scene.

The application relates to a job scheduling system, equipment and medium for strong and weak ability mixed nodes, the system comprising: a coordinator module configured to maintain a cluster topology structure and execute a consistency election protocol; a scheduler module configured to generate a task dispatch strategy according to a global resource pool state and a job dependency relationship; an executor module configured to receive and execute a job instruction issued by the scheduler module; a trigger module configured to listen to an external event source and convert an event meeting a preset condition into a job scheduling request and send the job scheduling request to the scheduler module; and a communication abstraction layer configured to shield transmission differences of a bottom layer from an upper layer application according to attributes of a target node and a uniform resource identifier prefix. In the above embodiment of the application, the election protocol integrated with the node capability mask field completely solves the problem that a weak node is mistakenly selected as a master node, leading to instability of a cluster. The application effectively adapts to a narrowband and high-delay network environment and improves communication reliability in a weak network.

Methods and systems for hiding secret messages or data in an NET are described. A system may access data specified by a user to embed within a digital asset. The system may determine a steganography scheme to use to embed the data and embed the data within the digital asset according to the steganography scheme. The system may store the digital asset embedded with the data on a decentralized storage network and receive an associated first Uniform Resource Identifier (URI). The system may create, using the first URI, a metadata of the digital asset embedded with the data. The system may store the metadata on the decentralized storage network and receive an associated second URI. The system may create a non-fungible token (NET) based on the second URI and store the NET on a blockchain. The user or other users may subsequently retrieve the digital asset from the decentralized storage network and extract the data embedded therein.

The present invention relates to a method of augmenting a telecommunications call, the method comprising detecting a telecommunications call event at a user telecommunications device 10; selecting an item of media content 101, the item of media content 101 being associated with a uniform resource identifier or URI; augmenting the call with the item of media content 101; detecting a user interaction with the item of media content 101; and on termination of the call, performing an action in dependence on the resource identified by the URI. The invention extends to a corresponding system and apparatus.

Session management for a Fifth Generation (5G) roaming solution using PRotocol for N32 INterconnect Security (PRINS) with roaming intermediaries is described herein. A first network node establishes a transport layer security (TLS) connection with a second network node, wherein the TLS connection is established using hypertext transfer protocol secure (HTTPS) as a uniform resource identifier (URI). The first network node creates a security negotiation request message, including a fully qualified domain name (FQDN) of the second network node. The first network node protects information elements (IEs) in the security negotiation request message with a Javascript Object Notation (JSON) Web Signature (JWS) token, wherein the JWS token uses a digital signature and includes a public key certificate of the first network node. The first network node sends over TLS, to the second network node, an HTTPS request, including the security negotiation request message and the JWS token.

The invention discloses a cross-domain computing power resource processing method and device based on biplane identification and a related product. Performing query processing on the target resource identifier and the domain name record data through an address discovery plane to obtain a computing power resource address and a computing power identity address about the target resource identifier in the domain name record data; performing verification processing on the target resource identifier and the computing power identity address through an identity verification plane to obtain a computing power identity verification result of the target computing power resource; and if the computing power identity verification result represents that the target computing power resource meets the identity verification condition, allowing the computing power user to call the target computing power resource based on the computing power resource address. Therefore, the discovery and credible processing of the cross-domain computing power resources are realized based on the uniform resource identifier, the credible processing of the cross-domain computing power resources from discovery, verification, calling to metering settlement is also realized, and the verifiability, consistency and traceability of the calling and settlement process are improved.

Presented are apparatus, systems and methods for more secure online interactions from computing devices, including protections of sensitive identity, personal, employer, membership, financial and payments information; from the increasing waves of hacking, and relentless bombardment of phishing attacks; with ever more sophisticated social-engineering, which are increasingly indistinguishable from interactions with a genuine online connection. In one example, the computing device can store a data structure in a first application, the data structure comprising a set of sensitive-attribute data, and an identification of a plurality of predefined or otherwise known hosts, from a list of known remote hosts. The computing-device / local-host can execute a second application to locally render a remote internet resource, such as a web page, which may additionally request the input of one or more sensitive-attribute data entry fields. Responsive to receiving a uniform resource identifier (URI) (from an eMail, Text, scanned QR code, Hyperlink, Browser App or other), the computing device executes a first application to identify and analyze the URI, generate a plurality of first features comprising an identity of a remote host of the web-site page, compare the identity of the remote host to the identification of the plurality of known remote hosts, execute a heuristic algorithm or machine learning model, on the local host, to generate a source and content risk-score, of the remote host and the web page it conveys. The execution therebefore described can thus aid the computing device to more intelligently decide to: permit, restrict, or modify data generation methods in an auto-population entry of the one or more sensitive-attribute data entry fields, including but not limited to: selecting a payment information generation method for such data fields, based on risk analysis of said uniform resource identifier. This embodiment of the present disclosure can improve the ability of said computing device and said device user to more-immediately and objectively: identify, avoid, or manage; phishing and hacking attacks, versus those from legitimate or reputationally-sound remote hosts.

A method, performed by a server, of managing a non-fungible token (NFT) for content, is provided. The method includes, in response to receiving a request to issue an NFT for target content from a first electronic device of a first user who has generated the target content, generating basic metadata on the target content, uploading the generated basic metadata to a target folder generated in an interplanetary file system (IPFS), generating first ownership metadata including a content identifier (CID) of the uploaded basic metadata, obtaining a first CID of the target folder with the first ownership metadata uploaded to the target folder, and linking the obtained first CID of the target folder to an NFT uniform resource identifier (URI) of the target content.

This invention provides a web service publishing plugin for the HEC-HMS model and its installation method, specifically including: a service listening module: accepting client HTTP protocol service requests and forwarding them to a scheduling module; a scheduling module: extracting the Uniform Resource Identifier (URI) of the client service request and, based on a preset URI and server-side resource submodule mapping dictionary, forwarding the client service request to the corresponding service processing module instance; an HEC-HMS model service module: filtering client service requests and responsible for HEC-HMS model time series editing, model input file editing, model invocation, and simulation result extraction; and a client connection request module: when the HEC-HMS model service module needs to call external resources, the client connection request module is responsible for obtaining the corresponding resources from the outside. Applying this technical solution can avoid the shortcomings of current Jython script integration solutions, building a high-performance, highly stable, and easily scalable decision-making system.

A merchant page in a browser may receive selection of a first financial institution. The merchant page may generate a uniform resource identifier (URI) directed to an application. At least a portion of the URI may be registered with the application and the first financial institution in a mobile operating system. Responsive to receiving selection of the URI, the mobile OS may launch the application, which may authenticate credentials for an account. The application may associate the user ID parameter and the session ID parameter with the account and receive a cryptogram from a contactless card. The application may receive, from a server, an indication specifying the server verified the cryptogram. The OS may launch the browser, which may refresh the page. The refreshed page may include a virtual card number (VCN) in a first form field. A transaction may be processed based on the VCN.

Various aspects of the present disclosure relate to service operations for Application Programming Interfaces (APIs). A first network equipment (NE) transmits, to a second NE, a request message for a service operation, the request message including a resource Uniform Resource Identifier (URI) for a Hypertext Transfer Protocol (HTTP) POST method, and the service operation includes one or more of an initial Application Programming Interface (API) configuration, an API configuration update, or an API invocation associated with an API provider. The first NE receives, from the second NE, a response message including a result of the service operation.

Aspects of the present disclosure relate to service continuity for applications in wireless communications. An apparatus, such as a first network device (NE) (e.g., a vertical application layer (VAL) server), sends a first request message for a service operation to a second NE (e.g., a network slice capability exposure (NSCE) server), the first request message includes a first resource Uniform Resource Identifier (URI) for a first Hypertext Transfer Protocol (HTTP) POST method, and one or more first data types with respect to a network slice. For example, the service operation includes an indication of service continuity for the application. The first NE receives a first response message including the updated network slice from the second NE.

In some implementations, a network onboarding system may receive, over a first connectivity protocol, a uniform resource identifier (URI) for an IoT device. The network onboarding system may authenticate, over the first connectivity protocol, the IoT device based on the URI. The network onboarding system may exchange, with the IoT device, over the first connectivity protocol, a set of IoT device credentials with a set of onboarding credentials for an IoT network. The network onboarding system may configure a notify message that includes the IoT device credentials for transmission over a second connectivity protocol. The network onboarding system may perform, by the network onboarding system, a filtered discovery of the IoT device over the second connectivity protocol. The network onboarding system may onboard, over the second connectivity protocol, the IoT device onto the IoT network.

This disclosure provides an NFC-based service execution method and electronic device. The NFC-based service execution method is applied to a terminal device, which acts as an NFC card reader. The operating system running on the terminal device includes Android or HarmonyOS. The method includes: the operating system reading an NFC tag device via near-field communication to obtain records stored in the NFC tag device. The NFC tag device stores a first record and a second record. The first record includes application package name information of a target function, and the second record includes a Uniform Resource Identifier (URI) for activating a quick app for the target function. When the terminal device does not have the target application corresponding to the application package name installed, the operating system activates the quick app corresponding to the target function. Embodiments of this disclosure can optimize the NFC interaction experience for users of the Android operating system.

A method includes receiving a bitstream including visual media data, a supplementary enhancement information (SEI) message, and a first identifier included in a payload of the SEI message; extracting, from the SEI message in accordance with the first identifier, metadata or information referencing the metadata; and decoding the visual media data in accordance with the metadata, in which the metadata comprises binary data, in which referencing the metadata by the SEI message is performed through use of a Uniform Resource Identifier (URI) in the payload of the SEI message, in which interpretation of the first identifier is defined externally to the payload of the SEI message.

A contactless identification tag capable of storing and wirelessly transmitting a variety of wearer data to a nearby reader. This technology not only represents a leap in wearable convenience, blending traditional clothing with digital data access and storage, but also supports a wide array of applications. Wearers can carry performance metrics from electronic games, access credentials for secure environments, or login details for various platforms, directly or via uniform resource identifiers. As a core component of a contactless identification system, this garment interacts with peripheral devices like USB housings or mousepads, enabling data transmission to computer systems for a range of interactive experiences, including real-time updates of gaming metrics. Moreover, it facilitates the selection of suitable digital or physical stations based on stored data, thus personalizing environments to the wearer's historical preferences and activities.

Methods and systems for managing data, resources, services, or the like in a distributed service system (e.g., a distributed service platform) are disclosed. Application programming interface (API) requests (e.g., API calls) containing short-form uniform resource identifiers (URI) having shared resource type names may be correctly and accurately routed to one or more resource providers (e.g., computing devices) making up the distributed service system that host instances of API(s). Such routing may be achieved even by users of the distributed service system that are not familiar with all of the instances and / or versions of APIs available on the distributed service system.

The present application provides a media streaming method. The method is applied to user equipment, and includes: obtaining a uniform resource identifier for accessing an RTMP server; determining whether the uniform resource identifier carries a QUIC identifier; establishing a QUIC connection with the RTMP server based on a QUIC transport protocol in response to determining that the uniform resource identifier carries the QUIC identifier, and establishing a target RTMP connection that is based on the QUIC connection. In the present application, the QUIC connection and the target RTMP connection that is based on the QUIC connection are established based on the uniform resource identifier carrying the QUIC identifier. In this way, an RTMP packet is encapsulated into a QUIC packet, and data is transmitted through the QUIC connection. Therefore, real-time performance of transmission is improved.

Presented are apparatus, systems and methods for more secure online interactions from computing devices, including protections of sensitive identity, personal, employer, membership, financial and payments information; from the increasing waves of hacking, and relentless bombardment of phishing attacks; with ever more sophisticated social-engineering, which are increasingly indistinguishable from interactions with a genuine online connection.In one example, the computing device can store a data structure in a first application, the data structure comprising a set of sensitive-attribute data, and an identification of a plurality of predefined or otherwise known hosts, from a list of known remote hosts. The computing-device / local-host can execute a second application to locally render a remote internet resource, such as a web page, which may additionally request the input of one or more sensitive-attribute data entry fields.Responsive to receiving a uniform resource identifier (URI) (from an eMail, Text, scanned QR code, Hyperlink, Browser App or other), the computing device executes a first application to identify and analyze the URI, generate a plurality of first features comprising an identity of a remote host of the web-site page, compare the identity of the remote host to the identification of the plurality of known remote hosts, execute a heuristic algorithm or machine learning model, on the local host, to generate a source and content risk-score, of the remote host and the web page it conveys. The execution therebefore described can thus aid the computing device to more intelligently decide to: permit, restrict, or modify data generation methods in an auto-population entry of the one or more sensitive-attribute data entry fields, including but not limited to: selecting a payment information generation method for such data fields, based on risk analysis of said uniform resource identifier. This embodiment of the present disclosure can improve the ability of said computing device and said device user to more-immediately and objectively: identify, avoid, or manage; phishing and hacking attacks, versus those from legitimate or reputationally-sound remote hosts.