Abstract:
The disclosure relates to a 5G or 6G communication system for supporting a higher data transmission rate. Disclosed are methods and systems for handling PUSH notification messages in a service enabler architecture layer notification management (SNM) service. The method can be used to for a high-level procedure using a hypertext transport protocol (HTTP) to enable an SNM server (SNM-S) to push the notification messages to an SNM client (SNM-C)
Abstract:
The disclosure relates to a 5G or 6G communication system for supporting a higher data transmission rate. Embodiments herein provide a method for location management in off-network. The method includes sending, by a first UE (100A), a request including a configuration to a second UE (100B), where the configuration allows the second UE (100B) to report location information of the second UE (100B) to the first UE (100A) in off-network. The method includes storing, by the second UE (100B), the configuration and sending a response to first UE (100A), where the first UE (100A) acknowledges to the second UE (100B) upon on receiving the response from the second UE (100B). The method includes detecting, by the second UE (100B), a trigger of a location reporting event based on the configuration, and reports the location information of the second UE (100B) to the first UE (100A) in the off-network, where the first UE (100A) acknowledges to the second UE (100B) upon receiving the location information.
Abstract:
The method includes determining that the remote ambient call is established between an MCPTT first electronic device (100) and an MCPTT second electronic device (200) and sending a floor grant message to the MCPTT second electronic device (200) wherein the floor grant message includes mandatory acknowledgment required indication set for the MCPTT second electronic device (200) to share the location information of the MCPTT second electronic device (200) with the MCPTT first electronic device (100) by an MCPTT server (300). Further, the method includes receiving a floor grant acknowledgement message with the location information of the MCPTT second electronic device (200) and sharing the location information of the MCPTT second electronic device (200) with the MCPTT first electronic device (100) in the remote ambient call of the MCPTT service using a floor taken message by the MCPTT server (300).
Abstract:
The disclosure relates to a pre-5th-Generation (5G) or 5G communication system to be provided for supporting higher data rates Beyond 4th-Generation (4G) communication system such as Long Term Evolution (LTE). A method for communication of a constrained user equipment (UE) with a Message in Fifth Generation (MSGin5G) server providing a MSGin5G service in an IoT network is provided. The method includes receiving, by an unconstrained UE, a registration request comprises a security credential of the constrained UE from the constrained UE, where the unconstrained UE have access to the MSGin5G server and the constrained UE do not have access to the MSGin5G server. The method includes determining, by the unconstrained UE, whether the constrained UE is authorized based on the security credential. The method includes performing, by the unconstrained UE, a registration of the constrained UE with the unconstrained UE for communication of the constrained UE with the MSGin5G server based on authorization of the constrained UE.
Abstract:
The present disclosure relates to a pre-5th generation (5G) or 5G communication system to be provided for supporting higher data rates beyond 4th generation (4G) communication system such as long term evolution (LTE). Embodiments herein provide a method, an MSGin5G server , and non-MSGin5G gateway for providing messaging service in 5th generation system. The provided method provides a TRF which can assist the MSGin5G server to determine a transport service(s), a GWSF which can assist the MSGin5G server to determine appropriate gateway for the determined transport service(s). Further, the provided method includes a TF to translate the MSGin5G message to a legacy 3GPP message format or a non-3GPP message format.
Abstract:
A pre-5th-Generation (5G) or 5G communication system to be provided for supporting higher data rates Beyond 4th-Generation (4G) communication system such as Long Term Evolution (LTE). Embodiments herein achieve a method and system for providing a network-based northbound application programming interface. The method includes receiving, by an API provider, a request for invoking one or more service APIs from one or more API invoker clients. The method includes utilizing, by the API provider, a CAPIF core function residing at a first domain to provide the one or more service APIs. The method includes providing, by the API provider, the one or more service APIs to the one or more API invoker clients through the CAPIF core function, wherein the API provider comprises one or more service APIs, an API exposing function, an API publishing function and an API management function.
Abstract:
Disclosures herein provide methods and servers for releasing mission critical data (MCData) communication in a wireless communication system. The release of MCData communication is initiated by MCData UE by using the hyper text transfer protocol (HTTP) or the release of MCData communication is initiated by a MCData server with or without prior notification to the MCData UE.
Abstract:
A method and system for establishing the ISC session among one or more communication devices for a content viewing and/or a communication to enable integration of the content viewing and the communication is provided. The integration or convergence of the content viewing and the communication provides an immersive user experience to one or more ISC users in the ISC environment participating in the ISC session including a self ISC session, a one to one ISC session or a group ISC session. The method allows an initiator ISC client to append one or more first parameters in a first SIP INVITE for the content viewing and one or more second parameters in a second SIP INVITE for the communication. The common appended parameters such as an ISCConvergenceID indicate the media function and the communication function to integrate the communication with respect to the content viewing.
Abstract:
The disclosure relates to a 5G or 6G communication system for supporting a higher data transmission rate. Embodiments herein disclose methods for location management in a wireless network by a MC client. The method includes receiving, by a MC client, at least one of a location reporting configuration request and a location information request from a location management server (LMS). Further, the method includes sending, by the MC client MC client, at least one of a MC gateway location reporting configuration request to a MC gateway UE based on the location reporting configuration request for an event triggered location reporting and a MC gateway location information request for an on-demand location to request a 3GPP access network related location information based on the location information request. Further, the method includes receiving a MC gateway location information report comprising location information requested by the MC client.
Abstract:
The disclosure relates to a 5G or 6G communication system for supporting a higher data transmission rate. Embodiments herein provide a method for location management in off-network. The method includes sending, by a first UE (100A), a request including a configuration to a second UE (100B), where the configuration allows the second UE (100B) to report location information of the second UE (100B) to the first UE (100A) in off-network. The method includes storing, by the second UE (100B), the configuration and sending a response to first UE (100A), where the first UE (100A) acknowledges to the second UE (100B) upon on receiving the response from the second UE (100B). The method includes detecting, by the second UE (100B), a trigger of a location reporting event based on the configuration, and reports the location information of the second UE (100B) to the first UE (100A) in the off-network, where the first UE (100A) acknowledges to the second UE (100B) upon receiving the location information.