Abstract: The present disclosure relates to systems and methods for control-data plane partitioning in virtual distributed ledger networks. In one embodiment, a processor-implemented method is disclosed, comprising receiving a request for a microservice at a virtual distributed ledger technology node associated with a virtual distributed ledger technology network; identifying operations on user data to be performed related to the request for the microservice; retrieving the user data from a data storage memory external to the virtual distributed ledger technology network; performing the identified operations on the user data; executing the microservice based on performing the identified operations on the user data, to generate user data and control information; storing the generated user data in the data storage memory external to the virtual distributed ledger technology network; and committing the generated control information to a distributed ledger associated with the virtual distributed ledger technology network.

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: The present disclosure relates to systems and methods for microservice execution load balancing in virtual distributed ledger networks. In one embodiment, a system comprises a plurality of hardware processors; and at least one memory device storing processor-executable instructions to perform operations comprising: creating one or more virtual machines or containers; and executing a plurality of microservices via the one or more virtual machines or containers, wherein the plurality of microservices includes: a smart contract execution microservice configured to execute a smart contract after receiving a smart contract microservice request; and a load balancer microservice configured to distribute hardware processing load associated with the smart contract execution microservice across the plurality of hardware processors.

Abstract: A method and a system for routing an emergency call to a PSAP [322]. Upon receiving an emergency call request from at least one user device [302] at an eNodeB [304], an ESMLC [310] computes a current location information of the at least one user device [302]. Further, a GMLC [312] identifies a serving cell identifier for the at least one user device [302] based on the current location. Furthermore, an emergency location platform [314] identifies at least one PSAP [322] in a cell site master database [316] based on the serving cell identifier and extracts one or more parameters for the at least one user device [302] from a subscriber information database [318]. Lastly, the emergency location platform [314] provides at least one of the current location information and the one or more parameters to the identified at least one PSAP [322] on an access network channel.

Abstract: A system and method for hierarchical computation of KPI(s). The method encompasses receiving for at least one time slice, counter(s) associated with each node from one or more nodes. The method further encompasses defining at each time slice, metrics for said each node based on associated counter(s). The method thereafter comprises computing a locally aggregated value and a time aggregated value of the metrics. The method further encompasses mapping, the time aggregated value of each metric to a control center hierarchy (CCH). Further the method calculates a hierarchically aggregated value for each metric present in a target list of metrics associated with KPI expression(s) corresponding to said CCH, based on an aggregation of all time aggregated values of said each metric. The method thereafter encompasses computing, by a KPI scheduler unit, the KPI(s) for said CCH based at least on said hierarchically aggregated value and said KPI expression(s).

Abstract: A method and a system for providing one or more services to one or more user devices [202] in an IoT network in a scalable M2M (Machine to Machine) framework. The method comprises receiving a connection request from the one or more user devices [202] at a load balance of the IoT network, the connection request comprises at least a username comprising a cluster identifier. The load balancer [204] determines a cluster identifier based on the connection request and identifies at least one target cluster from the one or more clusters [206], said target cluster being associated with the identifier cluster identifier. The load balancer [204] routes the connection request to the at least one target cluster to provide the one or more services to the one or more user devices [202].

Abstract: A system and method for 3D propagation modelling for planning of a radio network, is disclosed. In the present invention, automatic tuning of propagation path loss parameters of a Continuous Wave (CW) based 3D propagation model for LOS (line of sight) and NLOS (non-line of sight) radio transmissions in a first geographical area, is performed. Further, in the present invention, 3D propagation models for remaining geographies having similar geographical area and clutter types as the first geographical area, are generated without performing any drive test while compensating the propagation path loss parameters of the generated model using periodically measured user equipment (UE) data. The generated 3D models may be updated dynamically as the 3D models are developed based on UE data updated from time to time.

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: The present disclosure relates to identifying azimuth error and determining an azimuth of an antenna installed in a cell of a cellular network. In a preferred embodiment, the network entity receives a plurality of transmission parameters basis to which the network entity identifies a target cell. The network entity further divides angular region of the cell serving the target cell into a plurality of cones out of which a target cone is identified by the network entity. The network entity then performs first iteration yielding a first azimuth, and in an event of an azimuth error in the first azimuth, the network entity performs second iteration yielding a second azimuth. The present disclosure also encompasses predicting an optimum azimuth of said antenna in an event of azimuth error/s in the first azimuth and the second azimuth.

Abstract: The present invention provides a method and system which facilitates easy and smooth detection of available one or more Point-of-sale (POS) terminals automatically at a merchant's site when a user desires to use a user device in order to pay for services/goods availed by the user device. The present invention provides a scalable, easy to use, seamless, and an efficient method to detect the POS terminals over a Wi-Fi network available to the user equipment. Information corresponding to the detected and available POS terminals are presented on the user device so that the user may easily select an appropriate POS terminal and may initiate the further payment process. The one or more available POS terminals are detected by the user device with the help of a first server device and a second server device.

Abstract: A system and method for dynamically switching from a first internet protocol to a second internet protocol for providing service to a user equipment, is disclosed. More particularly, the embodiments may disclose a method for dynamically switching from the first internet protocol to the second internet protocol, comprises steps of: generating a first positive response in an event the service is capable of being provided using the second internet protocol; generating a second positive response in an event the user equipment is capable of receiving the service using the second internet protocol; generating a third positive response in an event a real-time location of the user equipment is within a coverage area; and dynamically switching from the first internet protocol to the second internet protocol based on at least one of the first positive response, the second positive response and the third positive response.

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: A system and method, for performing proactive handover in a wireless network. A connection may be established between at least one user equipment and the wireless network via a serving cell. Further, at least one of a public transportation data, an end-user population handover performance data, a navigation data, and an end user handover performance data is received and analyzed to predicting at least one wireless handover route. A handover target probability is calculated for the at least one predicted wireless handover route, and analyzed to determine a next serving cell for the user equipment. Upon detecting a condition for handover, the user equipment is proactively handed over from the serving cell to the next serving cell.

Abstract: A method and a system for routing an emergency call to a PSAP [322]. Upon receiving an emergency call request from at least one user device [302] at an eNodeB [304], an ESMLC [310] computes a current location information of the at least one user device [302]. Further, a GMLC [312] identifies a serving cell identifier for the at least one user device [302] based on the current location. Furthermore, an emergency location platform [314] identifies at least one PSAP [322] in a cell site master database [316] based on the serving cell identifier and extracts one or more parameters for the at least one user device [302] from a subscriber information database [318]. Lastly, the emergency location platform [314] provides at least one of the current location information and the one or more parameters to the identified at least one PSAP [322] on an access network channel.

Abstract: The present invention relates to systems and methods for real-time multi-party recommendation in a peer to peer communication. The system (200) comprises a transceiver (202) that receives a selection for selecting a first electronic media from a first set of electronic media stored in the first user equipment (102), and transmit the same to the second user equipment (104). The system (200) further comprises a metadata generator unit (204) to generate first electronic media metadata; and a recommendation unit (206) to determine first recommendation metadata based on an analysis of first electronic media metadata and a first set of electronic media metadata. The transceiver (202) of the system (200) transmits the first electronic media metadata and the first recommendation metadata to the second user equipment (104), and receives, a second recommendation metadata based on an analysis of the first electronic media metadata and a second set of electronic media metadata.

Abstract: A system and method for automatic deployment of at least one outdoor small cell. The method comprises dynamically collecting traffic data corresponding to a geographic location associated with a cellular network by a data collection module [202]. Next, a data collection module [204] automatically identifies a group of spatial grids from the one or more cells within the geographic location based on the traffic data and automatically determines one or more locations within the geographic locations for deploying the at least one outdoor small cell based on the identified group of spatial grids. A backhaul link clearance module [206] automatically determines a backhaul connection between the one or more determined locations with the cellular network. An azimuth planning module [208] automatically determines an azimuth for the at least one outdoor small cell based on the determined connection. A deployment unit [210] deploy the at least one outdoor small cell.

Abstract: Embodiments of the present disclosure relate to automated troubleshooting of at least one user device and accordingly perform at least one action on the at least one user device, wherein the at least one action is performed for troubleshooting of the at least one user device. In an embodiment, the automated troubleshooting system receives at least one query from the user of the at least one user device and identifies at least one intent from said at least one query. Thereafter, said system determines at least one tag corresponding to the at least one intent and processes the at least one tag to determine at least one event corresponding to the at least one action to be performed. Finally, said system performs the at least one action on the at least one user device based on the at least one event.

Abstract: Embodiments of the present disclosure relate to providing at least one response to a user of a user device using a visual assistant, wherein the at least one response is based on at least one user query. In an embodiment, the virtual assistant system receives the at least one user query through a virtual multimedia contact, wherein the virtual multimedia contact is invoked by receiving a user command from the user through an interface. Thereafter, the virtual assistant system determines the at least one response based on the at least one user query. Further, the virtual assistant system selects a visual assistant (virtual character) for representing the at least one response and subsequently provides the at least one response to the user device using the visual assistant by transmitting the at least one response to the user device using the visual assistant.

Abstract: Embodiments of the present disclosure relate to performing a handover on a user equipment [140] from a serving base station [110] to a target base station. In one embodiment, a method is disclosed, comprising: receiving a handover report from the user equipment [140]; identifying at least one access point [130A, 130B]; transmitting a request message to at least one of the at least one access point [130A, 130B] and a network entity; receiving the response messages from at least one of the at least one access point [130A, 130B] and the network entity; and processing at least one of the first response message and the second response message for performing the handover from the serving base station [110] to one of the neighbouring target base stations [120A, 120B].

Abstract: The technology relates to a system and a method for assessing and negotiating compensation of a human resource (candidate). Upon selection of a candidate(s), the method comprises of receiving compensation information of the candidate(s). The compensation assessment and negotiation system generates a salary proposal based on at least one of the compensation data, an assessment score of the candidate, a location, a minimum wage, a threshold salary and a recruitment policy. The compensation assessment and negotiation system also allows the candidate to negotiate the salary proposal by submitting a second salary proposal to the system. The compensation assessment and negotiation system thereafter generates a revised salary proposal in response to the second salary proposal. The compensation assessment and negotiation system rolls an offer to the candidate upon receiving a positive response on the salary proposal.