Low cost cableless ground station antenna for medium earth orbit satellite communication systems

1. A ground station antenna, comprising:

a torus shaped reflector having multiple feed points along a focal arc in front of the reflector;

a plurality of transceiver feeds having their electrical phase centers located on the focal arc and supported by a rotating feed platform, the plurality of transceiver feeds configured to simultaneously track rising and falling satellites when the platform rotates with respect to a fixed plate;

a wireless power receiver coupled to the plurality of transceiver feeds via the fixed plate to power the transceiver feeds; and

a wireless signal interface coupled to the plurality of transceiver feeds to communicate signals with a base unit to perform subsequent processing.

2. The ground station antenna of claim 1 , further comprising a converter coupled to the plurality of transceiver feeds to convert a received signal to a lower frequency signal prior to communicating with the base unit.

3. The ground station antenna of claim 2 , in which the lower frequency signal is an intermediate frequency signal.

4. The ground station antenna of claim 2 , in which the lower frequency signal is a baseband signal.

5. The ground station antenna of claim 1 , in which the plurality of transceiver feeds simultaneously track rising and falling satellites over approximately 80 degrees.

6. The ground station antenna of claim 1 , in which the wireless signal interface communicates using a wireless local area network (WLAN), a personal area network (PAN), a local area network, and/or a wide area network device.

7. The ground station antenna of claim 1 , wherein the fixed plate has a charging loop inductively coupled to another charging loop on the platform.

8. The ground station antenna of claim 1 , wherein:

the signals communicated by the wireless signal interface are first data signals; and

the wireless power receiver is configured to communicate second data signals by modulating a charging frequency associated with the power fed to the transceiver feeds.

9. The ground station antenna of claim 8 , wherein the wireless power receiver is configured to communicate low data-rate signals using a 6.78 MHZ carrier.

10. A ground station antenna, comprising:

means for reflecting a signal on multiple feed points along a focal arc;

means for simultaneously tracking rising and falling satellites;

means for rotating the tracking means along the focal arc, the rotating means coupled to the tracking means;

means for wirelessly powering the tracking means, wherein the means for wirelessly powering the tracking means comprise means for providing wireless power signals to the tracking means; and

means for wirelessly communicating signals from the tracking means to a base unit to perform subsequent processing, wherein the means for wirelessly communicating signals comprise means for wirelessly communicating data signals by modulating the wireless power signals.

11. The ground station antenna of claim 10 , further comprising means for converting a received signal to a lower frequency signal prior to communicating with the base unit.

12. The ground station antenna of claim 11 , in which the lower frequency signal is an intermediate frequency signal.

13. The ground station antenna of claim 11 , in which the lower frequency signal is a baseband signal.

14. The ground station antenna of claim 10 , in which the tracking means covers approximately 80 degrees.

15. The ground station antenna of claim 10 , in which the communicating means comprises a wireless local area network (WLAN), a personal area network (PAN), a local area network, and/or a wide area network device.

16. A method of wireless communication using a ground station antenna having

a torus shaped reflector with multiple feed points along a focal arc in front of the reflector, comprising:

simultaneously tracking rising and falling satellites by rotating a plurality of transceiver feeds along the focal arc with respect to a fixed plate, the plurality of transceiver feeds having their electrical phase centers located on the focal arc;

wirelessly powering the plurality of transceiver feeds via the fixed plate; and

wirelessly communicating signals between the plurality of transceiver feeds and a base unit to perform subsequent processing.

17. The method of claim 16 , wherein:

wirelessly powering comprises providing wireless power signals to the plurality of transceiver feeds; and

wirelessly communicating signals comprises wirelessly communicating data signals by modulating the wireless power signals.

18. A non-transitory computer-readable medium having processor readable instructions such that, when executed, causes a processor of a computer to provide wireless communication using a ground station antenna having a torus shaped reflector with multiple feed points along a focal arc in front of the reflector, comprising:

a simultaneously track rising and falling satellites by rotating a plurality of transceiver feeds along the focal arc with respect to a fixed plate, the plurality of transceiver feeds having their electrical phase centers located on the focal arc;

wirelessly powering the plurality of transceiver feeds via the fixed plate; and

wirelessly communicating signals between the plurality of transceiver feeds and a base unit to perform subsequent processing.

19. A ground station antenna, comprising:

a torus shaped reflector having multiple feed points along a focal arc in front of the reflector;

a plurality of transceiver feeds having their electrical phase centers located on the focal arc and supported by a rotating feed platform, the plurality of transceiver feeds configured to simultaneously track rising and falling satellites when the platform rotates;

a wireless power receiver coupled to the plurality of transceiver feeds to power the transceiver feeds; and

a wireless signal interface coupled to the plurality of transceiver feeds to communicate signals with a base unit to perform subsequent processing, wherein:

the wireless power receiver provides a first signal path;

the wireless signal interface provides a second signal path;

the first signal path and the second signal path are different signal paths.