Abstract: A compact electronic device for wireless communication is disclosed. The compact electronic device includes a main printed circuit board, one or more antennas, at least one conductor, and a shell. The one or more antennas are configured for wireless communication. The at least one conductor being configured to provide at least one of control signals and power to a fan. The shell mounts the fan relative to the main printed circuit board. The shell includes walls forming a cavity. The walls encapsulate the conductor in the cavity.

Abstract: Systems and methods include obtaining data associated with operation of a Wi-Fi network, via a network interface connected to the one or more processors; analyzing the obtained data to determine one or more of forecasts, predictions, trends, and interference associated with the Wi-Fi network based on the obtained data and correlations determined therein; and causing configuration of the Wi-Fi network based on the determined one or more forecasts, predictions, trends, and interference, wherein the configuration includes at least one of channel selection, bandwidth selection, topology selection of access points in the Wi-Fi network, and client associations with the access points.

Abstract: Systems and methods of detecting a parallel Wi-Fi network or a parallel Wi-Fi access point include, subsequent to installing a new Wi-Fi network at a location, detecting whether there is a parallel Wi-Fi network or a parallel Wi-Fi access point operating at the location with the new network; and responsive to detecting the parallel Wi-Fi network or the parallel Wi-Fi access point operating, performing one or more of causing resolution of the parallel Wi-Fi network or the parallel Wi-Fi access point and providing a notification to a user associated with the location based on the detecting.

Abstract: The present disclosure relates to thermal management of wireless access points including local thermal management, cloud-based thermal management, and thermal management based on optimization and operation such as in a distributed Wi-Fi network. The objective of the present disclosure is for thermal management in access points allowing small form-factors and aesthetic designs, preventing overheating and without requiring reduced performance or reduced hardware. Generally, the systems and methods detect when access points are nearing overheating and alter their operation so as to minimize the reduction of performance in the network while reducing power consumption.

Abstract: Systems and methods for Orthogonal Frequency-Division Multiple Access (OFDMA) optimized steering in Wi-Fi networks. The present disclosure contemplates operation in a multiple access point network utilizing OFDMA technology, e.g., IEEE 802.11ax, where clients are connected to the access points considering the effect on OFDMA operation depending on where the clients are connected. That is, the present disclosure considers OFDMA operation in the context of optimization in a distributed or multiple access point network. The optimization decision is based on capabilities of client devices and/or the access points, including OFDMA capability, MIMO capability, channel capability, etc. The optimization decision is used to select where client devices should connect, and optimization factors may include individual device throughput, joint load throughput (system capacity), fairness, etc.

Abstract: Systems and methods include obtaining measurements from a Wi-Fi network that includes one or more access points; determining a configuration of the Wi-Fi network based on the measurements, wherein the configuration includes one or more of i) steering a client device to associate with a specific access point of the one or more access points and ii) steering the client device to connect to a specific frequency band of the one or more access points; and providing the configuration to the Wi-Fi network for implementation thereof.

Abstract: A Wi-Fi system includes a plurality of access points each configured to operate on a plurality of channels including Dynamic Frequency Selection (DFS) frequency channels and non-DFS frequency channels; and at least one access point of the plurality of access points is connected to a controller, wherein the controller is configured to coordinate usage of the plurality of channels between the plurality of access points including usage of the DFS frequency channels pursuant to predetermined DFS rules. One or more access points of the plurality of access points are configured to perform DFS measurements for a Channel Availability Check (CAC) and the DFS measurements are provided to the controller.

Abstract: A dual-band antenna or coupled resonators, related wireless device applications, and methods of manufacturing the same are provided. Embodiments of the antenna have resonant frequencies in a lower 2-3 GHz frequency band and a higher 5-6 GHz frequency band range. The antenna has a high frequency portion that may be configured to operate as an inverted F antenna. The high frequency element is also positioned adjacent to a nearby parasitic element. In operation, the high frequency element and the parasitic element couple together and form a current loop, or loop antenna which is configured to resonate at a low frequency band.

Abstract: Systems and methods include obtaining operational data for a Wi-Fi network including one or more access points providing wireless connectivity to one another and to one or more Wi-Fi client devices; determining a Quality of Experience (QoE) measurement from the operational data for each of the one or more access points and the one or more Wi-Fi client devices; and providing a display of associated QoE measurements for the one or more access points and the one or more Wi-Fi client devices. The systems and methods can include providing the display in real-time or near real-time to troubleshoot or debug operations of the Wi-Fi network.

Abstract: Systems and methods implemented through a user device, for claiming network devices for a home network in a distributed Wi-Fi network includes discovering a newly powered on access point; claiming the newly powered on access point for the home network; and relaying the claimed newly powered on access point to a cloud controller via a disjoint network from the home network, wherein the home network is restricted by the cloud controller to only operate with claimed access points. The discovering, the claiming, and the relaying can be performed by a mobile application executed on the user device.

Abstract: A distributed Wi-Fi system includes a first Wi-Fi access point communicatively coupled to a modem/router for connectivity to the Internet and to a cloud controller via the Internet; and at least one additional Wi-Fi access point with wireless backhaul connections to the modem/router via the first Wi-Fi access point, wherein the first Wi-Fi access point and the at least one additional access point cooperatively form a single Wi-Fi network; wherein the cloud controller is configured to receive inputs related to operation of the single Wi-Fi network, perform an optimization based on the inputs with an objective function, and provide operational parameters for the single Wi-Fi network based on the optimization.

Abstract: A wireless device with an antenna plate includes one or more components; and at least one antenna integrally formed with the antenna plate. The at least one antenna has a low frequency section and a high frequency section, wherein the high frequency section has a slot, the dimensions of the slot being formed in part by a parasitic arm formed within the high frequency section. A method for manufacturing a wireless device having an antenna plate includes stamping a metallic sheet to form the antenna plate having at least one antenna element; and folding the at least one dual-band antenna element about a portion of a perimeter of the stamped sheet forming an upper surface, a side wall and a lower surface of the at least one antenna element.

Abstract: A multi-antenna structure includes a monopole-like or loop-like antenna structure with an antenna feed configured to connect to electrical circuitry; and a slot-like antenna structure adjacent to the monopole-like or loop-like antenna structure and capacitively fed by the monopole-like or loop-like antenna structure, wherein the monopole-like or loop-like antenna structure and the slot-like antenna structure operate as a combined antenna with extended bandwidth relative to operation individually. The monopole-like or loop-like antenna structure can include a horizontal member and a plurality of vertical members connected to the horizontal member. The slot-like antenna structure can include two parallel horizontal members separated by a slot and a vertical member at one end of the slot connected to each of the two parallel horizontal members separated and another end of the slot is open.

Abstract: A Wi-Fi network configured for Wi-Fi client bridging using Layer 2 (L2) tunnels includes a plurality of access points each being one or more of a parent node, a child node, and a gateway node in the Wi-Fi network; wherein the plurality of access points are interconnected in a tree via a plurality of backhaul links and wherein each of the plurality of access points are configured to communicate with Wi-Fi client devices via a plurality of client links; and wherein each of the plurality of backhaul links is formed via a Layer 2 (L2) tunnel over a backhaul Wi-Fi interface between each parent node and each child node.

Abstract: A radio system supporting 2.4 GHz operation, 5 GHz operation, and dual simultaneous 2.4 GHz/5 GHz operation includes one or more radios; and a plurality of antenna systems connected to the one or more radios via a plurality of switches, wherein each of the plurality of antenna systems includes an antenna element including a first end and a second end; a terminating network connecting the first end to ground; and a matching network connecting the second end to an antenna port which is communicatively coupled to one or more radios, wherein the antenna element operates as one of a quarter wave, a half wave, based on first settings in the terminating network and the matching network, and wherein the one or more radios are selectively connected to the plurality of antenna systems based on second settings of the plurality of switches.

Abstract: Disclosed embodiments include electrical plug assemblies for reducing drop damage to prongs, electrical devices with an electrical plug assembly for reducing drop damage to prongs, and methods of fabricating an electrical plug assembly for reducing drop damage to prongs. In a non-limiting, illustrative embodiment, an electrical plug assembly includes a rigid housing. A pair of flexible inserts is fixedly disposed in the rigid housing. Each of a pair of rigid sleeves is fixedly disposed in an associated one of the pair of flexible inserts. Each of a pair of electrically-conductive prongs is fixedly disposed in an associated one of the pair of rigid sleeves. Each of a pair of flexible electrical conductor assemblies is movably attached to an associated one of the pair of electrically-conductive prongs.

Abstract: A wireless access point includes a physical form factor including a plurality of sides each adjacent to a bottom portion, wherein the physical form factor houses a plurality of components including i) at least one Printed Circuit Board (PCB) having one or more Wi-Fi radios and a Bluetooth radio and ii) a power supply; and an electrical plug connected to the power supply and extending from the bottom portion for insertion into an electrical outlet for power and for physical support of the wireless access point adjacent to the electrical plug.

Abstract: A method of managing Wi-Fi access points using a Wi-Fi network manager is disclosed. Measurement data is received from a plurality of Wi-Fi access points via a control interface. Optimized adjustments to one or more Wi-Fi parameters associated with one or more of the plurality of access points are searched based at least in part on a set of network optimization goals and the measurement data received from the plurality of access points. At least some of the optimized adjustments to the one or more Wi-Fi parameters are transmitted to the one or more of the plurality of access points using the control interface.

Abstract: Systems and methods implemented by a cloud-based controller to control a Wi-Fi network with a plurality of access points include obtaining measurements from the Wi-Fi network; determining a configuration of the Wi-Fi network based on the measurements, wherein the configuration comprises a topology of the Wi-Fi network and the topology comprises the plurality of access points selectively interconnected to one another via backhaul links; and providing the configuration to the Wi-Fi network for implementation thereof.