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 generally relates to a base station comprising an integrated baseband and transceiver board (IBTB) includes one or more network processors, and one or more transceiver, wherein the IBTB, at the one or more network processors, receives, from a backhaul, external input Direct Current (DC) voltage and down converts said received input DC voltage using an isolated power supply to generate one or more control signals. The base station includes a Radio Frequency (RF) front end board (RFEB) that receives and processes the one or more control signals using RF transmit chains for signal transmission, RF receive chains for signal reception, and RF observation chains that act as feedback paths from power amplifier(s) of the RF transmit and receive chains to the transceiver for linearization. The base station includes a cavity filter to provide steeper roll-off outside operating band.

Abstract: The present disclosure provides a fifth generation (5G) new radio (NR) low band high power next generation Node B or a radio unit (100) operating in macro class. The radio unit (100) may include a fronthaul interface (102), an integrated baseband and transceiver board (IBTB) (104), a radio frequency front end board (RFEB) (106), and a duplexer filter and antenna interface unit (108).

Abstract: The present invention provides an efficient hardware architecture for an ORAN compliant thermal management module for a combined centralized unit and a distributed unit (CCDU) for a 5G basement application required for processing L1, L2 and L3 scheduling of the network. The CCDU design may provide the functionality of a CU and a DU with single unit and can operate over wide temperature range. A single board approach of the CCDU make the CCDU more reliable and less costly. The CCDU can support different kinds of synchronization and can provide site alarms over dry contacts to equip with external alarm device.

Abstract: The present invention provides an efficient hardware architecture of an Ethernet controller to provide for connectivity interfaces to a combined centralized unit and a distributed unit (CCDU) for processing Level 1, 2 and 3 scheduling in a network. The CCDU design may provide the functionality of a CU and a DU as a single unit and the design of the Ethernet controller along with an eASIC comprising an accelerator unit is very important. A single board approach of the CCDU make the CCDU more reliable and less costly.

Abstract: The disclosed system and method enable providing device integration in a combined centralized and distributed unit (CCDU). Updated CCDU design provides 3× Maximum Receive Unit (MRU (700)) support with a network card (e.g.: Channel Card).

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: Disclosed is a Mobile Edge Computing (MEC) server device (100) and use of method thereof. Proposed design of the MEC server device (100) works with a 5G network for edge computing and analysis. The proposed server device (100) has multiple elements integrated on a single board and uses a passive thermal cooling approach. The proposed MEC server device (100) enables equal heat dissipation. Further, the device has a high processing speed and computing functionality.

Abstract: The present disclosure provides a system and a method for network optimization. In particular, the present disclosure provides a fifth generation (5G) indoor small cell (IDSC) (604) with daisy chain to support backhaul connectivity of 4G combo IDSC (606), consisting of 4G radio access network (RAN) and Wireless-Fidelity (Wi-Fi) access point. The 5G IDSC (604) has one dedicated Ethernet/Optical port to connect the 4G combo IDSC (606). The 5G IDSC (604) bridges the data, control, and precision time protocol (PTP) signals from backhaul router (602), connected to 5G IDSC (604) Ethernet/Optical port, and re-route it to 4G combo IDSC (606) through dedicated Ethernet/Optical port.

Abstract: Present disclosure generally relates to computing and wireless communications, particularly, to mobile edge computing (MEC) server and method for MEC. The MEC server includes casing. The casing includes scalable processor comprising external Platform controller Hub (PCH) is configured to perform edge computing of network data associated with telecommunication network. Further, MEC server in casing includes Board Management Controller (BMC) communicatively coupled to PCH is configured to manage functions of motherboard and manage access to remote monitoring function of MEC server. Furthermore, MEC server in casing includes ethernet controllers configured to perform fronthaul connectivity with radio unit associated with telecommunication network, or Backhaul connectivity for optical ethernet associated with telecommunication network.

Abstract: The present disclosure relates to an open radio access network (ORAN) compliant 5G massive integrated multiple-input multiple-output (MIMO) radio unit (IMRU) where a High-Speed Transceiver Board (HSTB) and Radio Frequency (RF) Front End Module (RFEM) are integrated into a single board to reduce the weight and optimize the cost by eliminating the need of blind mating connectors. The IMRU is connected to a Combined Central and Distributed Unit (CCDU) on a fronthaul interface using 25G optical interface. Further, the IMRU is integrated with an Antenna Filter Unit (AFU) and covered in single enclosure for easy and efficient installation that ensures advanced beam forming while ensuring low weight and compact form factor to enable easy installation.

Abstract: The present invention provides an efficient hardware architecture for an ORAN compliant internal structure of a gnodeB (gNodeB) comprising of a combined centralized unit and a distributed unit (CCDU) for a 5G basement application required for processing Level 1, 2 and 3 scheduling in a network. The CCDU design may provide the functionality of a CU and a DU with single unit and can operate over wide temperature range. A single board approach of the CCDU make the CCDU more reliable and less costly. The CCDU can support different kinds of synchronization and can provide site alarms over dry contacts to equip with external alarm device.

Abstract: The present disclosure provides a system and a method for generating a path loss propagation model through machine learning. The system generates a path loss propagation model for fifth generation (5G) networks for network planning. The path loss model predicts a reference signal received power/signal to noise interference ratio (RSRP/SINR) by leveraging a fourth generation (4G) user data.

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: Disclosed are methods and systems for a synchronizer system including a global positioning system (GPS) and a boundary clock. The method includes: generating, by the GPS of the synchronizer system, a first clock signal having a first predefined frequency; locking the first clock signal generated by the GPS at the first predefined frequency; and generating, by the boundary clock of the synchronizer system, a second clock signal having a second predefined frequency, to provide the second clock signal to a combined centralized and distributed unit (CCDU) system.

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 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 hardware architecture for an ORAN compliant thermal management module for a combined centralized unit and a distributed unit (CCDU) for a 5G basement application required for processing L1, L2 and L3 scheduling of the network. The CCDU design may provide the functionality of a CU and a DU with single unit and can operate over wide temperature range. A single board approach of the CCDU make the CCDU more reliable and less costly. The CCDU can support different kinds of synchronization and can provide site alarms over dry contacts to equip with external alarm device.

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 invention provides an efficient hardware architecture for an ORAN compliant internal structure of a gnodeB (gNodeB) comprising of a combined centralized unit and a distributed unit (CCDU) for a 5G basement application required for processing Level 1, 2 and 3 scheduling in a network. The CCDU design may provide the functionality of a CU and a DU with single unit and can operate over wide temperature range. A single board approach of the CCDU make the CCDU more reliable and less costly. The CCDU can support different kinds of synchronization and can provide site alarms over dry contacts to equip with external alarm device.