Abstract: The present disclosure relates wireless communication, more particularly to systems and methods for enabling self-organizing networks in an Open Radio Access Network (O-RAN). A system via Near-RT RIC assigns at least one of one or more time-sensitive SON functional elements and one or more time-sensitive RRM functional elements in at least one of the Near-RT RIC and the EMS entity associated with the SMO module. The system via a Near-RT RIC may assign at least one of one or more time-sensitive SON functional elements and one or more time-sensitive RRM functional elements in at least one of the Near-RT RIC and the EMS entity associated with the SMO module. The Near-RT RIC may access via at least one of the xAPPs associated with the O-RAN and the EMN entity or the NMS entity, one or more Performance Monitoring (PM) counters, by requesting respective E2 Nodes via the E2 interface or via the O1 interface, respectively.

Abstract: A network entity and an operating method thereof in a communication system are provided. The method includes establishing a first connection with a user equipment (UE) using a first access technology; receiving, from the UE, via the first connection, capability information on communication with a second cell using a second access technology different from the first access technology; transmitting a first signal to the UE via the first connection; and transmitting, to the UE, via the first connection, configuration information related to the second cell for establishing a second connection between the UE and the second cell. The first cell and the second cell are simultaneously active for the UE.

Abstract: The present invention provides a method and system for enabling machine type communication in a long term evolution (LTE) network environment. In one embodiment, a Physical (PHY) layer of an LTE protocol stack maps data bits in resource elements of a logical channel to resource elements of a physical channel. The PHY layer identifies the data bits intended for legacy devices but mapped to a first set of resource elements of machine type communication (MTC) devices and the data bits intended for the MTC device but mapped to the second set of resource elements of the legacy devices. Accordingly, the PHY layer remaps the data bits intended for the legacy devices to the second set of resource elements and the data bits intended for the MTC devices to the first set of resource elements prior to transmission.

Abstract: The present invention provides a method and system for enabling machine type communication in a long term evolution (LTE) network environment. In one embodiment, a Physical (PHY) layer of a LTE protocol stack maps data bits in resource elements of a logical channel to resource elements of a physical channel. The PHY layer identifies the data bits intended for legacy devices but mapped to a first set of resource elements of machine type communication (MTC) devices and the data bits intended for the MTC device but mapped to the second set of resource elements of the legacy devices. Accordingly, the PHY layer remaps the data bits intended for the legacy devices to the second set of resource elements and the data bits intended for the MTC devices to the first set of resource elements prior to transmission.

Abstract: The present invention relates to a system and a method for providing 5G services to at least one user device [302], The at least one user device [302] transmits a first connection request to the gNodeB [304], The gNodeB [304] attaches a first protocol message to the first connection request received from the at least one user device [302] and transmits the attached first connection request to an interworking unit [306], The interworking unit [306] generates a third request from the attached first connection request based on an application protocol and transmits the generated third request to an EPC [308], The EPC [308] establishes a connection with the at least one user device [302] and 5G services to the at least one user device [302] via the gNodeB [304].

Abstract: Embodiments of the present disclosure may relate to mechanism for tuning to an available channel in a narrow band wireless network. In an embodiment, a base station [104] may transmit a channel list (comprising available channel/s) to a NB-IoT device [102] that may transmit a channel request (comprising operational mode of the NB-IoT device [102]) back to the base station [104]. The base station [102] may define a first parameter and a second parameter based on said operational mode and accordingly determine an allocation scheme. Subsequently, the base station [104] may transmit the allocation scheme indicative of the allocation of the available channels to the NB-IoT device [102] such that the NB-IoT device [102] tunes to the available channel/s. In another embodiment, the NB-IoT device [102] may itself tune to the available channel/s and may transmit a notification message to each of the available channel/s based on said tuning.

Abstract: A method and system for minimizing the battery power consumption of user equipment (UE) during inter-frequency cell detection in a heterogeneous network is disclosed. A serving cell in the heterogeneous network provides a relaxed cell detection indication to the UE on a specified frequency for cell detection. The UE applies the relaxed cell detection for detecting the cells on the specified frequency. During inter-frequency cell detection on specified frequency, the UE discards some normal measurement gaps. The inter-frequency cell detection is delayed as compared to normal cell detection time requirement using the normal measurement gaps. The UE deactivates the relaxed detection indication, upon detecting the inter-frequency cell and performs the continuous RSRP and RSRQ measurements for detected inter-frequency cell using all the normal measurement gaps to meet normal measurement accuracy and measurement reporting requirement.

Abstract: Embodiments of the present disclosure relate to systems [100, 200, 300] and methods for providing targeted content in an eMBMS stream to a user device [130], wherein the systems [100, 200, 300] and the methods [400, 500] may be implemented through one a server [110] and a user device [130]. The method, in an embodiment, may comprise: receiving a request from the user device for availing the eMBMS stream; receiving a profile information from the user device; generating at least one context tag based on the profile information; screening the at least one portion of the eMBMS stream to identify at least one object; identifying and transmitting at least one content based on at least one of the profile information and the at least one context tag; and enabling the at the user device to exhibit the at least one content.

Abstract: The present invention provides a method and system for enabling machine type communication in a long term evolution (LTE) network environment. In one embodiment, a Physical (PHY) layer of a LTE protocol stack maps data bits in resource elements of a logical channel to resource elements of a physical channel. The PHY layer identifies the data bits intended for legacy devices but mapped to a first set of resource elements of machine type communication (MTC) devices and the data bits intended for the MTC device but mapped to the second set of resource elements of the legacy devices. Accordingly, the PHY layer remaps the data bits intended for the legacy devices to the second set of resource elements and the data bits intended for the MTC devices to the first set of resource elements prior to transmission.

Abstract: A network entity and an operating method thereof in a communication system are provided. The method includes establishing a first connection with a user equipment (UE) using a first access technology; receiving, from the UE, via the first connection, capability information on communication with a second cell using a second access technology different from the first access technology; transmitting a first signal to the UE via the first connection; and transmitting, to the UE, via the first connection, configuration information related to the second cell for establishing a second connection between the UE and the second cell. The first cell and the second cell are simultaneously active for the UE.

Abstract: The present invention provides a method and system for enabling machine type communication in a long term evolution (LTE) network environment. In one embodiment, a Physical (PHY) layer of a LTE protocol stack maps data bits in resource elements of a logical channel to resource elements of a physical channel. The PHY layer identifies the data bits intended for legacy devices but mapped to a first set of resource elements of machine type communication (MTC) devices and the data bits intended for the MTC device but mapped to the second set of resource elements of the legacy devices. Accordingly, the PHY layer remaps the data bits intended for the legacy devices to the second set of resource elements and the data bits intended for the MTC devices to the first set of resource elements prior to transmission.

Abstract: A user equipment (UE) and an operating method of the UE in a communication system are provided. The method includes establishing a first connection with a first cell using a first access technology; transmitting, through the first cell via the first connection, capability information on data communication with a second cell using a second access technology, which is different from the first access technology; receiving first data through the first cell via the first connection; receiving configuration information related to the second cell through the first cell via the first connection; establishing a second connection with the second cell using the second access technology; and receiving second data through the second cell via the second connection, while the first data is received through the first cell.

Abstract: Embodiments of the present disclosure may relate to mechanism for tuning to an available channel in a narrow band wireless network. In an embodiment, a base station [104] may transmit a channel list (comprising available channel/s) to a NB-IoT device [102] that may transmit a channel request (comprising operational mode of the NB-IoT device [102]) back to the base station [104]. The base station [102] may define a first parameter and a second parameter based on said operational mode and accordingly determine an allocation scheme. Subsequently, the base station [104] may transmit the allocation scheme indicative of the allocation of the available channels to the NB-IoT device [102] such that the NB-IoT device [102] tunes to the available channel/s. In another embodiment, the NB-IoT device [102] may itself tune to the available channel/s and may transmit a notification message to each of the available channel/s based on said tuning.

Abstract: A system and method to provide multimedia services to consumption end devices like set-top boxes and legacy phone and tablet devices that are incompatible to receive the multimedia service directly. These consumption devices interact with devices that provide multimedia service. Further, the present disclosure discloses mechanisms where an end consumption device can connect to a device like LTE connectivity device and obtain eMBMS multimedia services.

Abstract: Systems and methods may provide transmitting and switching transmission of an evolved multimedia broadcast multicast service (eMBMS) from a first radio access technology [120] to a second radio access technology [130]. Embodiments may provide a method encompassed by receiving the eMBMS service and at least one control channel parameter through the first radio access technology [120]; detecting availability of the second radio access technology [130]; transmitting the at least one configuration parameter relating to the second radio access technology [130]; checking authentication of the second radio access technology [130] to receive the eMBMS service; and switching the evolved multimedia broadcast multicast service from the first radio access technology [120] to the second radio access technology [130].

Abstract: A user equipment (UE) and an operating method of the UE in a communication system are provided. The method includes establishing a first connection with a first cell using a first access technology; transmitting, through the first cell via the first connection, capability information on data communication with a second cell using a second access technology, which is different from the first access technology; receiving first data through the first cell via the first connection; receiving configuration information related to the second cell through the first cell via the first connection; establishing a second connection with the second cell using the second access technology; and receiving second data through the second cell via the second connection, while the first data is received through the first cell.

Abstract: A method and system for minimizing the battery power consumption of user equipment (UE) during inter-frequency cell detection in a heterogeneous network is disclosed. A serving cell in the heterogeneous network provides a relaxed cell detection indication to the UE on a specified frequency for cell detection. The UE applies the relaxed cell detection for detecting the cells on the specified frequency. During inter-frequency cell detection on specified frequency, the UE discards some normal measurement gaps. The inter-frequency cell detection is delayed as compared to normal cell detection time requirement using the normal measurement gaps. The UE deactivates the relaxed detection indication, upon detecting the inter-frequency cell and performs the continuous RSRP and RSRQ measurements for detected inter-frequency cell using all the normal measurement gaps to meet normal measurement accuracy and measurement reporting requirement.

Abstract: A method for authenticating a client application by an authorization server is provided. In the method, the authorization server transmits a first redirect identifier assigned to a client application to a web runtime engine, in response to receiving a registering request to register with the authorization server of the client application; receives an access request to access a protected resource stored on a resource server by the client application: and transmits the access request to the resource server through the web runtime engine using a second redirect identifier corresponding to a redirect endpoint of the client application. The second redirect identifier is intercepted by the web runtime engine, and the protected resource is accessed by the client application based on a comparing result between the first redirect identifier and the second redirect identifier in the web runtime engine.

Abstract: A user equipment (UE) and an operating method of the UE in a communication system are provided. The method includes registering the UE through a first cell using a first access technology; detecting a second cell using a second access technology; receiving a first data through the first cell using the first access technology; and receiving a second data through a second cell using the second access technology, wherein the first cell and the second cell are simultaneously active for the UE, and at least one of the first data and the second data is selectively received through at least one of the first cell and the second cell.

Abstract: A method and system for minimizing the battery power consumption of user equipment (UE) during inter-frequency cell detection in a heterogeneous network is disclosed. A serving cell in the heterogeneous network provides a relaxed cell detection indication to the UE on a specified frequency for cell detection. The UE applies the relaxed cell detection for detecting the cells on the specified frequency. During inter-frequency cell detection on specified frequency, the UE discards some normal measurement gaps. The inter-frequency cell detection is delayed as compared to normal cell detection time requirement using the normal measurement gaps. The UE deactivates the relaxed detection indication, upon detecting the inter-frequency cell and performs the continuous RSRP and RSRQ measurements for detected inter-frequency cell using all the normal measurement gaps to meet normal measurement accuracy and measurement reporting requirement.