Abstract: Embodiments of the present disclosure relate to systems and methods for automatically provisioning at least one new IoT device to at least one IoT gateway via a wireless network, comprising: dynamically receiving at least one new device model of at least one new IoT device at an onboarding server. Upon successfully connecting with the at least one IoT gateway, the onboarding server dynamically pushes the at least one new device model to the IoT gateway. Subsequently, when a new first IoT device tries to connect with the at least one IoT gateway, the IoT gateway processes the received registration request to identify a device model associated with the first IoT device, and thereafter provisions a connection with the first IoT device.

Abstract: Embodiments of the present invention relate to a system [100] and method [300] for categorizing and routing network traffic associated with at least one user equipment [102]. More particularly, the embodiments may disclose a method for providing at least two wireless networks [1A/1B/2A/2B]; establishing a connection between the at least one user equipment [102] and one of the at least two wireless networks [1A/1B/2A/2B]; receiving the network traffic from the at least one user equipment [102] through one of the at least two wireless networks [1A/1B/2A/2B]; categorizing the network traffic received from the at least one user equipment [102] based on a unique service set identifier of one of the at least two wireless networks [1A/1B/2A/2B]; and routing the network traffic from the routing device [104] to a corresponding gateway [108] based on the categorization.

Abstract: Embodiments of the present disclosure relate to mitigating at least one coverage hole [108] from a coverage area served by at least one serving cell [102A to 102L]. In a preferred embodiment, a method is disclosed comprising: identifying at least one of at least one first optimum cell and at least one second optimum cell from the at least one serving cell [102A to 102L] based on the coverage hole information based on least one first cell parameter and at least one second cell parameter respectively; determining a final set of target cells comprising at least one final cell and mitigating the at least one coverage hole [108] by modifying the transmission parameter of the at least one final cell based on at least one of the coverage hole information, the at least one first cell parameter and the at least one second cell parameter.

Abstract: A system and method of customizing/updating an information displayed at a user equipment [402]. The method encompasses transmitting, via a SIM OTA update to a SIM card configured at a user equipment [402], a display bit condition, wherein the display bit condition comprises a condition to display at the user equipment [402] the information comprising at least one of a service provider name and a network operator name, present in at least one of a SIM information and a network information message. The method thereafter encompasses updating, via a network entity [404], the information provided in at least one of the SIM information and the network information message. Further, the method comprises transmitting, from the network entity [404] to the user equipment [402], the updated information, to display in real-time the updated information at the user equipment [402] based on the display bit condition.

Abstract: A system and method to reduce misuse of radio resources, by modifying radio access network (RAN) features of user devices. The UE segregation server unit [302] as disclosed in the present disclosure identifies one or more UE required to be modified due to which network KPI's are getting degraded, based on an analysis performed by a Network Performance Unit [304]. Further, the UE segregation server unit [302] updates/modifies a UE Capability Indication message to disable certain radio capabilities causing some malfunction in the network based on identification of one or more UEs as erroneous UE based on a successful comparison of the at least one TAC information present in the UE Capability Indication message with at least one TAC information of the identified one or more UE that are required to be modified. This disclosure provides improved throughput for network subscriptions in user devices by saving network resources.

Abstract: The present invention relates to a system and a method for automatic fault diagnosis, troubleshooting and resolution recommendations in a data center comprising one or more resources. The method comprises at least one collector unit [102] collecting a first data from one or more resources of the data center. A mapping unit [104] identifies a failure impact on the one or more resources based on the first data collected by the at least one collector unit. The central module unit [110] creates a detailed relationship map for the one or more virtual and physical resources based on the identified failure impact. A fault processor [106] automatically diagnoses the data center on occurrence of a fault based on the relationship map, and troubleshoots at least one of the one or more resources based on the diagnosis.

Abstract: Systems [100A/100B] and methods [700/800] for allocating wireless channel/s to wireless access point/s [102] are disclosed. More particularly, the embodiments of the present invention comprise steps of: determining at least one candidate wireless channel, providing an initial score to each of the at least one candidate wireless channel, determining a channel overlapping parameter and a signal strength factor, determining a channel score based on the initial score, the channel overlapping parameter, the signal strength factor and a reduction weight, applying a positive offset to update the channel score of each of the at least one candidate wireless channel, selecting the at least one wireless channel for the at least one wireless access point [102A] based on the updated channel score, and allocating the at least one wireless channel to the at least one wireless access point [102A].

Abstract: A system and method for automatic offload in multi SIM devices. The system comprises a learning module [108] to learn the SIM slot ID of the inserted desired operator, the structure alignment and field information, wherein feedback of the learnt information is provided to the network server [114]. A method selection module [110] analyzes the structure alignment and field information for mapping unique connection methods to different devices. A WiFi configuration and connection module [112] uses appropriate WiFi configuration and attempts connection to desired Service Providers enterprise Wi-Fi AP using the determined connection method.

Abstract: A system and method for remote profile provisioning. The method comprises activating, via an eUICC [202], a machine-to-machine (M2M) polling unit [204] based on a limited connectivity for HTTP service enabled via a mobile network operator (MNO) [104], wherein the limited connectivity for HTTP service is enabled based on an activation of a bootstrap profile. Thereafter the method encompasses establishing, via the M2M polling unit [204], an HTTP channel between the eUICC [202] and a subscription manager-secure routing (SM-SR) [106]. The method further comprises receiving, at the eUICC [202] via a transceiver unit [206] from the SM-SR [106], an operational profile over the established HTTP channel. Thereafter the method encompasses retrieving, at the eUICC [202], the operational profile with at least a new MSISDN. Further, the method comprises enabling, at the eUICC [202], the retrieved operational profile for remote SIM profile provisioning management.

Abstract: The present disclosure relates to systems and methods for a wearables-based Internet-of-Things service in an edge-computed blockchain network. In one embodiment, a system is disclosed for an Internet-of-Things wearables-based emergency healthcare service, comprising at least one hardware processor; and at least one memory device storing instructions executable by the at least one hardware processor to perform operations. The operations comprise receiving, at a node of a virtual distributed ledger technology network, a call from a wearable device associated with a patient; executing a first microservice to request an emergency service for the patient; executing a second microservice to obtain consent for data transfer of patient data related to the patient across the virtual distributed ledger technology network; requesting the patient data from a memory external to the virtual distributed ledger technology network; and transmitting the patient data through the virtual distributed ledger technology network.

Abstract: A system and method to identify different access names for discovering and learning service provider's Wi-Fi access networks in user's premises where user may have defined a customized SSID on said Wi-Fi Access Points, for increasing the likelihood for automatic Wi-Fi offload on service provider network thus enhancing user experience to dynamically offload a user equipment [202] and prevent revenue loss for the service provider by keeping the user always on its Network (either cellular or Wi-Fi). Furthermore, the method encompasses identifying of a parent service provider's user-defined Wi-Fi Access Network SSID(s), learning one or more information of connection between said SSID(s) and the UE [202], categorizing said SSID(s) and allowing automated offload to a selected SSID whenever the UE [202] is within its coverage.

Abstract: The present disclosure encompasses a system and a method for availing a data service by a user equipment [110] in an international location. In an embodiment, the user equipment [110], in the international roaming, transmits an attach request to a second network, wherein the user equipment [110] configured with a SIM [120]. The user equipment [110] then receives a rejection message or an acceptance message from the second network based on the attach request. On receiving the acceptance message, the user equipment [110] establishes a connection with the second network to extract an IMPI from the SIM, an IMSI from the IMPI; and a network parameter from the IMSI. The user equipment [110] then identifies a configuration parameter of the home network, corresponding to the network parameter. Finally, the user equipment [110] avails the data service using the configuration parameter.

Abstract: A system and method to provide identification of the Tune Away in DSDS device, wherein identification of such Tune Away in DSDS device and mitigation of such Tune Away is done by Aperiodic CQI, Hybrid Automatic Repeat Request (HARQ) and Pro-Active scheduling based on periodicity and duration of Tune Away to minimize HSI degradation in DSDS devices. This disclosure provides improved throughput for network subscriptions in multi-SIM, multi-RATs wireless devices by preventing downlink scheduling in Tune Away periods and minimize radio resource wastage occurring due to DSDS UEs as well as improving HSI performance in such UEs by preventing lower layer retransmissions and conserve radio resources that are wasted in carrying those retransmissions earlier. The disclosure increases throughput performance for the data session in a DSDS device ecosystem and prevent substantial decline in average throughput experienced at DSDS UE.

Abstract: The present disclosure relates to automatically optimizing cell parameter(s) of serving base station(s) to effectively serve a coverage hole. In an embodiment, the system receives parameters such as at least one first parameter, at least one second parameter, at least one network performance parameter and the at least one cell parameter of the at least one serving base station. Further, based on the at least one network performance parameter, at least one coverage hole is identified from a coverage area (containing a plurality of sectors), wherein the coverage area is served by the at least one serving base station. Thereafter, a first optimization of the at least one cell parameter is performed and subsequently a first value of the at least one second parameter is determined. Further, a second optimization is performed if the first optimization is un-successful.

Abstract: System and method for synchronizing at least one small cell with at least one macro cell in a heterogeneous network. The method comprises the at least one small cell triggering an NB-IoT modem for a clock reference signal. The NB-IoT modem detects a first synchronization signal and a second synchronization signal, the first synchronization signal and the second synchronization signal being transmitted by at least one NB-IoT cell connected to the at least one macro cell. The NB-IoT modem synchronizes the at least one small cell with the at least one macro cell based on at least one of the first synchronization signal and the second synchronization signal.

Abstract: A system and method for mitigating at least one aggressor cell. The method comprises categorizing at least one user equipment connected to the at least one aggressor cell [102A, 102B, 102C, 102D] based on a position of the at least one user equipment within a coverage area of the at least one aggressor cell [102A, 102B, 102C, 102D]. The at least one user equipment positioned at the center of the coverage area of the at least one aggressor cell [102A, 102B, 102C, 102D] is scheduled for downlink transmission in at least one special subframe. The at least one aggressor cell [102A, 102B, 102C, 102D] reduces transmission power of the at least one special subframe by a pre-determined value and transmits the at least one special subframe to a first set of base stations [102E, 102F].

Abstract: System and method for identifying nodes with packet loss in a wireless communication network. The method comprises a central probe server—establishing a TWAMP session with a plurality of nodes. The central probe server probes the plurality of nodes for packet loss for a time duration ?T and categorizes each of the plurality of nodes as one of violator node and non-violator node. A sectionalisation module retrieves a topology of the at least one violator node. The central probe server probes at least one neighboring node of the at least one violator node for packet loss for the time duration ?T. The sectionalisation module identifies the at least one violator node as one of a silo node and a daisy chain node based on the probe of the at least one neighboring node.

Abstract: The present disclosure provides a method [400], a system [200], an edge device [204] and a computer program for routing user data traffic from an edge device [204] to a network entity [206]. The method encompasses receiving, at least one data packet of user data traffic relating to a request for availing a service, via an authenticated user device. The method thereafter comprises identifying, one or more parameters from the at least one data packet of user data traffic. Further the method comprises generating, one of a positive and a negative response based on the identified one or more parameters and a corresponding policy associated with each parameter. Thereafter, the method routes the user data traffic to an EoGRE tunnel to transmit said user data traffic to a network entity [206], based on the positive response.

Abstract: A system and method identifying at least one aggressor cell. The method comprises transmitting at least one subframe from at least one base station of a first set of base stations [102A, 102B, 102C, 102D] to a second set of base stations [102E, 102F], wherein the at least one subframe further comprises of at least one downlink subframe, at least uplink subframe and at least one special subframe. The second set of base stations [102E, 102F] decodes the at least one received subframe, and maps each of the at least one received downlink subframe, at least one received uplink subframe and at least one received special subframe of the at least one received subframe to at least one expected subframe. Lastly, at least one aggressor cell is determined based on a mismatch of the at least one received subframe and the at least one expected subframe.

Abstract: The disclosed embodiments relate to virtual distributed ledger networks provisioning using distributed ledger technology. In one embodiment, a system is disclosed, comprising a hardware processor and a memory device storing instructions executable by the hardware processor to perform operations. The operations comprise creating one or more virtual machines, and executing a plurality of microservices via the one or more virtual machines. At least two of the plurality of microservices are associated with different distributed ledger technology networks.