Abstract: An electronic component heat dissipation apparatus and methods having a heat dissipation housing. The heat dissipation housing having an external wall and an internal wall defining outer chamber therebetween. The internal wall defines an internal chamber having an airflow inlet opening and an airflow outlet opening. The housing is aligned with at least one electronic component so as to define a thermal chimney through the internal chamber for the flow of heated air. The external wall has at least one external air opening configured to allow external air into the outer chamber. The internal wall has a plurality of heat dissipation nozzles. Each heat dissipation nozzle has an external air inlet opening located within the internal wall and an external air outlet opening located within the internal chamber. The diameter of the external air inlet opening is greater than the diameter of the external air outlet opening.

Abstract: A network node and a method for the network node determine a physical distancing metric (PDM) associated with at least one wireless device (WD). The network node includes processing circuitry configured to determine a location of each wireless device (WD) of a plurality of WDs and determine the PDM based at least in part on the location of each WD of a subset of WDs of the plurality of WDs and a predetermined threshold, the location of each of WD of the subset of WDs being within a predefined area. Also, a WD and a method for the WD is provided. The WD includes at least a radio interface configured at least to receive a first message including physical distancing information based at least on the transmitted wireless signal.

Abstract: A vehicle computer for use in a vehicle. The vehicle computer includes at least one processor; an interface to a radio communications network; and a memory including software instructions configured to control the at least one processor to implement a method including steps of: receiving, from a traffic information hub in the radio communications network, intersection condition information regarding a next intersection along a route of the vehicle; and calculating route and navigation information based at least in part on the received intersection condition information. Also disclosed is a traffic information hub including: at least one processor; an interface to a data network; and a memory including software instructions configured to control the at least one processor to implement a method including steps of: receiving intersection condition information for each one of a plurality of traffic intersections; and receiving a query from a vehicle.

Abstract: According to one aspect of the disclosure, a network node is configured to communicate with at least one core entity in a core network and at least one automated device. The network node includes at least one of an air interface and one of a wired interface and wireless interface, and processing circuitry configured to: bypass transmission, at open system interconnection, OSI, layer 2, of controller data packets to the at least one core entity, the controller packets configured to at least in part control an automated device; and cause transmission of the controller data packets to the automated device using one of the air interface and one of the wired interface and wireless interface.

Abstract: Embodiments of a system including at least one access node configured to wirelessly transmit and receive signals to and from industrial devices within at least two cells of a cellular communications network deployed within a manufacturing facility; and a computer system. The computer system includes an interface connected to transmit and receive signals to and from the access node; and processing circuitry configured to: define a manufacturing process instance, MPI, identifying manufacturing operations necessary to perform a predetermined manufacturing process; allocate one of more of the industrial devices to the MPI, each allocated industrial device configured to perform at least one of the identified manufacturing operations; and implement an Controller configured to control each of the industrial devices allocated to the MPI to cooperatively perform the predetermined manufacturing process.

Abstract: Methods and systems for thermal management of a telecommunications network having at least one wireless radio equipment system in communication with a plurality of radio heads. The wireless radio equipment system has a thermal management component. Each of the plurality of radio heads has a high operating temperature threshold. The methods and system configured to monitor the operating temperature of the plurality of radio heads by the thermal management component. If a determination by the thermal management component that at least one of the radio heads exceeds its high operating temperature threshold, a reconfiguring of the telecommunications network to reduce the operating temperature of the at least one of the plurality of radio heads.

Abstract: An electronic component heat dissipation apparatus and methods having a heat dissipation housing. The heat dissipation housing having an external wall and an internal wall defining outer chamber therebetween. The internal wall defines an internal chamber having an airflow inlet opening and an airflow outlet opening. The housing is aligned with at least one electronic component so as to define a thermal chimney through the internal chamber for the flow of heated air. The external wall has at least one external air opening configured to allow external air into the outer chamber. The internal wall has a plurality of heat dissipation nozzles. Each heat dissipation nozzle has an external air inlet opening located within the internal wall and an external air outlet opening located within the internal chamber. The diameter of the external air inlet opening is greater than the diameter of the external air outlet opening.

Abstract: A system is provided. The system includes a plurality of network nodes for operating in a Time Division Duplex, TDD, network. The plurality of network nodes includes at least a network node and a first neighbor network node. The network node includes a node processor and node memory. The node memory contains instructions executable by the node processor. The first network node is configured to detect interference caused by the first neighbor network node in at least one uplink, UL, subframe, and determine a potential reason for the interference caused by the first neighbor network node.

Abstract: A system is provided. The system includes a plurality of network nodes for operating in a Time Division Duplex, TDD, network. The plurality of network nodes includes at least a network node and a first neighbor network node. The network node includes a node processor and node memory. The node memory contains instructions executable by the node processor. The first network node is configured to detect interference caused by the first neighbor network node in at least one uplink, UL, subframe, and determine a potential reason for the interference caused by the first neighbor network node.

Abstract: A system and method of implementing an on-demand change of the RF power class of multi-carrier power amplifiers at a base station radio with minimal disruption of user service is disclosed. The power amplifiers providing signal diversity at said cell site and being able to operate at various RF power class levels. A first multi-carrier power amplifier with multiple RF Power Classes provides a main RF beam transmission at one sector of said cell site. A second multi-carrier power amplifier with multiple RF Power Classes provides RF beam transmission diversity to the main RF beam transmission. A switch operates to disable either the first or second multi-carrier power amplifier when an RF Power class change is required.

Abstract: A system and method of implementing an on-demand change of the RF power class of multi-carrier power amplifiers at a base station radio with minimal disruption of user service is disclosed. The power amplifiers providing signal diversity at said cell site and being able to operate at various RF power class levels. A first multi-carrier power amplifier with multiple RF Power Classes provides a main RF beam transmission at one sector of said cell site. A second multi-carrier power amplifier with multiple RF Power Classes provides RF beam transmission diversity to the main RF beam transmission. A switch operates to disable either the first or second multi-carrier power amplifier when an RF Power class change is required.

Abstract: A base station radio having a number of multi-carrier power amplifiers to provide signal diversity at a cell site is disclosed. The base station radio is operable to provide an on-demand sleep mode condition when certain conditions are met. The base station radio has a first multi-carrier power amplifier for providing a main RF beam transmission at one sector of the cell site and a second multi-carrier power amplifier for providing RF beam transmission diversity to the main RF beam transmission. A switch is operable to disable either the first or second multi-carrier power amplifier when a sleep mode condition is required at one or more sectors of the cell site.

Abstract: An application module, that is part of an electronic assembly including a controller module, is coupled to a backplane bus structure. The backplane comprises a differential bus(s) having a TX and RX data signal, a differential clock signal, and a single ended collision detection line. The application module comprises differential bus transceivers that are controlled by differential bus control logic on the application module. The control logic compares data bits received over a collision detection line with the data bits the application module originally transmitted. If the data is not the same, a collision has occurred and the control logic places the bus transceivers into a high impedance state. A data packet controller on the application module can only detect certain types of collisions that occur in the single ended environment. The control logic enables the data packet controller to recognize a collision that it normally would not.