Abstract: The present disclosure relates to an 5G Massive MIMO Radio Unit (MRU) that is connected to a Combined Central and Distributed Unit (CCDU) on front haul interface using 25G optical interface and is compliant to 3GPP (Third Generation Partnership Project) based ORAN (Open Radio Access Network) specifications. The proposed 5G MRU can include a lower PHY (Physical) portion of L1 layer with network layer split of 7.2×, a baseband section, a RF (Radio Frequency) Front End module (RFEM), and an Antenna Filter Unit (AFU) as part of a single enclosure/unit for easy and efficient installation.

Abstract: The present invention provides an efficient and reliable systems and methods for facilitating standalone mode for an outdoor Small Cell (ODSC) for 5G. The system can be an all-in-one self-contained unit that houses an entire next generation Node B (gNB) functionality including but not limited to radio transceiver. an RF front end as well as antenna. The system may further include a network processor and an FPGA integrated on at least 18 but not limited to the like layers of an Integrated baseband and Transceiver board. The Integrated baseband and Transceiver board may further include a Clock synchronization architecture using system synchronizer IC and clock generators. The system can develop an LI layer and generate a bitstream in the FPGA while providing blind mating and a cable less design.

Abstract: The present disclosure relates to an antenna filter unit (AFU) (280) communicatively coupled to a Radio Frequency (RF) Front End Module (RFEM) (250). The AFU (280) comprises a plurality of cavity filters and a Multiple-Input-Multiple-Output (MIMO) antenna unit to enable beam forming to multiple users.

Abstract: The present disclosure relates to a radio unit comprising a Radio Frequency (RF) Front End Module (RFEM) board operatively coupled with a High Speed Transceiver Board (HSTB). The RFEM (250) board may include a plurality of transmit chains for signal transmission and a plurality of receive chains for signal reception. The RFEM (250) board may receive RF control signals from the HSTB (200) and process said received RF control signals through one or more gain blocks and power amplifiers to amplify the received RF control signals across one or more of the plurality of transmit and receive chains to generate power from each chain.

Abstract: The present disclosure relates to a 5G next generation integrated macro radio unit. The integrated radio unit includes an integrated baseband and transceiver board (IBTB) and a radio frequency front end board (RFEB), where the RFEB is operatively coupled with the IBTB. The IBTB includes at least a baseband processor, a transceiver, and a clock synchronization module. The RFEB includes one or more RF chains to receive RF signals from the IBTB. Further, the RFEB blind mates with the IBTB through one or more RF connectors.

Abstract: The present invention relates generally to network devices, and more particularly to design and architecture of a high speed transceiver board (HSTB) of a massive multiple-input multiple-output (MIMO) radio unit.

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: The present invention provides a robust and effective solution to an entity or an organization by enabling them to implement a system (110) and method (300) for facilitating monitoring of power usage at each rack level in a data centre (108) through a plurality of loT based wireless sensor devices. (116) By measuring power at each rack level and collating those for a data centre infrastructure will give a true picture of data centre power efficiency.

Abstract: The present invention provides a robust and effective solution to an entity (114) or an organization by enabling them to implement a system (110) for facilitating monitoring of space available at each rack level in a data centre (108) through a plurality of IoT based wireless sensor monitoring devices (116) and a wireless network gateway device (120). This disclosure provides measuring space at each rack level and collating the rack space available at each rack level for a data centre infrastructure that will give a true picture of rack space efficiency in a data centre (108).

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.