Abstract: Methods and systems are disclosed for an antenna system capable of optimal broadside radiation. In certain embodiments, a system may include a flexible and thin polyethylene terephthalate (PET) substrate stack having a predetermined length. The system may include a printed circuit board (PCB) fabrication of one or more Leaky-Wave Antenna (LWA) structures on the PET substrate stack. The one or more LWA structures have a bent-stub folded LWA configuration have longitudinal asymmetry and transverse asymmetry for a broadside frequency. The bent-stub folded LWA configuration comprises a plurality of conductively unit cells having a unit cell period. Each unit cell of the plurality of conductively unit cells has a folded main feed-line and a bent stub pair with two angularly bent radiating stubs. Embodiments are structured to increase radiation per-unit length and suppress open stopband (OSB).

Abstract: Systems and methods for providing access to a wireless network include apparatus and manufacturing and configuration techniques. Embodiments include a head-end configured to receive electrical power and communicate with the wireless network. In an embodiment, a plurality of integrated access points each comprise components such as a radio, a power supply, a controller, a network transceiver, and an antenna. The components of each integrated access point, whether or not they are assembled on one or more rigid or flexible cards, may be embedded in a material expanse such as a flexible strip, upon which each set of components may be proximally integrated. In an embodiment, a system includes a unified backplane interconnect coupled to the head-end, the unified backplane interconnect comprising a plurality of interconnects. Each integrated access point may comprise a single radio, or more than one radio.

Abstract: In one embodiment, a wireless network system includes a set of one or more wireless radios, and a set of software for the wireless network system that comprises a data structure representing the set of one or more wireless radios and a virtualization module that registers one or more virtualized data structures representing a virtual proxy of the set of one or more wireless radios.

Abstract: A method for configuring a flexible wireless networking system is disclosed. The system may include multiple Wi-Fi transceivers coupled to each other in parallel and selectively couplable to one or more antennas by respective switches. The method may include obtaining topology information indicating whether and how each antenna is in reach of other antennas, determining, dependent on the topology information, a configuration change including a change in which and how many of the antennas are coupled to the Wi-Fi transceivers, and initiating an activation of a switch to couple one of the antennas to one of the Wi-Fi transceivers or a deactivation of a switch to decouple one of the antennas from one of the Wi-Fi transceivers. The configuration change may be determined using a machine learning model. The configuration change may include deactivating a currently active antenna and activating at least one alternate antenna having a different coverage area.

Abstract: A method and system for constructing and delivering wireless networking, according to some embodiments. Some embodiments embed wireless transceivers into light bulbs and small wall-pluggable devices. Some embodiments use a strip or plane of material embedded with wireless transceivers, power, and networking. Some embodiments use a strip or plane of material embedded with antennas, often switchable. In some embodiments, multiple Wi-Fi systems are surface mounted on a strip that includes networking and power. In some embodiments, a head end is used to interface the strip to the remainder of the network and the main power supply. An over deployment resource manager is disclosed.