FLEXIBLE WIRELESS INTERCONNECTION AND BOARD DIVERSITY
Systems and methods for providing access to a wireless network include apparatus, 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 comprises 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.
1 . A system for providing access to a wireless network, comprising:
a plurality of integrated access points, each of the access points comprising components including at least a radio, a controller, and a flexible printed circuit board (PCB) printed antenna,
at least the radio and controller of each respective integrated access point being assembled on a corresponding rigid assembly board,
a means for transmitting radiofrequency signals being configured to distribute radiofrequency signals from each rigid assembly board to a respective flexible PCB printed antenna, and
each integrated access point being embedded into a material expanse that integrates the components of the integrated access points; and
a unified backplane interconnect, the unified backplane interconnect comprising a plurality of interconnects communicatively coupled in series, each interconnect connecting adjacent integrated access points.
2 . The system of claim 1 , the material expanse comprising a strip, and the unified backplane interconnect comprising discrete interconnect cables that couple the integrated access points.
3 . The system of claim 2 , each assembly board being embedded into a respective built-up strip enclosure comprising a potting, and each strip enclosure further comprising at least one of a foil, a foam, or a plastic tape in direct contact with each respective assembly board.
4 . The system of claim 1 , the unified backplane interconnect further comprising a head-end configured to receive electrical power and communicate with the wireless network, the head-end comprising an External Network to Backplane Converter, the head-end being coupled to a first integrated access point by a first interconnect.
5 . The system of claim 2 , each assembly board comprising a rigid card and one or more subassembly boards, each rigid card comprising a power supply, a network transceiver, and the respective controller of one of the integrated access points, and each subassembly board comprising a Wi-Fi transceiver, the respective rigid card and one or more subassembly boards of each integrated access point being coupled in series.
6 . The system of claim 5 , each Wi-Fi transceiver comprising a radio module that emits complex analog baseband signals and one or more additional modules that upconvert, switch, and amplify the signals.
7 . The system of claim 1 , each controller comprising a CPU with two USB PHYs, a DMA engine, one or more cores, and memory, the DMA engine connecting the USB PHYs to the memory, and each interconnect connecting adjacent integrated access points comprising a USB cable.
8 . The system of claim 1 , each controller comprising a CPU and a plurality of integrated access points each comprising a USB Hub, each integrated access point not comprising a USB Hub comprising a midspan card that terminates a leftmost USB tree and generates a new USB tree, and each interconnect connecting adjacent integrated access points comprising a USB cable, wherein for any series of up to the maximum number of adjacent integrated access points supported by the underlying USB standard at least one integrated access point comprises a CPU that comprises a midspan card.
9 . The system of claim 1 , each controller comprising a CPU with one or more Wi-Fi transceivers, each CPU configured to use Wi-Fi as a captive backhaul, and each interconnect connecting adjacent integrated access points comprising a coaxial cable.
10 . The system of claim 2 , the radio of each integrated access point comprising one of a vector baseband radio or digital baseband radio, and each integrated access point comprising at least one other radio.
11 . The system of claim 2 , at least one assembly board comprising a Wi-Fi transceiver, and at least one other assembly board comprising a transceiver that is not a Wi-Fi transceiver.
12 . The system of claim 1 , the components of each integrated access point further comprising a power supply and a network transceiver.
13 . A system for providing access to a wireless network, comprising:
a plurality of integrated access points each comprising components including at least a radio, a controller, an antenna, and a USB Hub, each integrated access point being embedded into a material expanse that integrates the components of the integrated access points; and
a unified backplane interconnect, the unified backplane interconnect comprising a plurality of interwoven USB interconnect lines, each USB interconnect line comprising a plurality of USB cables communicatively coupled in series through one or more USB Hubs, each USB cable of each USB interconnect line connecting a pair of integrated access points that are not adjacent.
14 . The system of claim 13 , the material expanse comprising a strip, and the distance from the radio of a first integrated access point to the radio of at least one other integrated access point being at least ten feet.
15 . The system of claim 13 , wherein:
at least the radio, controller, and USB Hub of each respective integrated access point being assembled on one or more corresponding rigid assembly boards;
the antenna of each integrated access point being a flexible PCB printed antenna; and
a means for transmitting radiofrequency signals being configured to distribute radiofrequency signals from each rigid assembly board to a respective antenna.
16 . The system of claim 15 ,
the material expanse comprising a strip,
each assembly board being embedded into a respective built-up strip enclosure comprising a fill, and
each strip enclosure further comprising at least one of a foil, a foam, or a plastic tape in direct contact with each respective assembly board.
17 . The system of claim 15 , each assembly board further comprising a USB signal conditioner.
18 . The system of claim 15 , each assembly board coupled to at least one separate signal conditioner card comprising a USB signal conditioner.
19 . A system for providing access to a wireless network, comprising:
a plurality of integrated access points each comprising components including at least a radio, a CPU, an antenna, and an off-CPU Ethernet switch, each integrated access point being embedded into a material expanse that integrates the components of the integrated access points;
at least the radio, CPU, and Ethernet switch of each respective integrated access point being assembled on one or more corresponding rigid assembly boards; and
a unified backplane interconnect, the unified backplane interconnect comprising one or more Ethernet interconnect lines, each Ethernet interconnect line comprising a plurality of Ethernet cables communicatively coupled in series through one or more off-CPU Ethernet switches, each Ethernet cable of each Ethernet interconnect line connecting a pair of integrated access points.
20 . The system of claim 19 , further comprising at least two Ethernet interconnect lines, each of the at least two Ethernet interconnect lines being interwoven and only connecting integrated access points that are not adjacent.