Meteor burst communication system having the capability of simultaneous communication with multiple remote units

• US 6,714,761 B1
• Filed: 11/21/2000
• Issued: 03/30/2004
• Est. Priority Date: 11/21/2000
• Status: Expired due to Fees

• Current Assignee: Rosario Holdings, LLC
• Original Assignee: Starcom Wireless, Inc. (PetIQ, Inc.)
• Inventors: Anderson, Fred L. III
• Primary Examiner(s): Tran, Sinh
• Assistant Examiner(s): RAMOS FELICIANO, ELISEO
• Application Number:
  US09/718,433
• Time in Patent Office: 1,225 Days
• Field of Search: 455/67.4, 455/67.1, 455/69, 455/562, 455/561, 455/15, 455/16, 455/500, 455/517, 455/505, 455/64, 455/67-1-, 455/562.1, 455/7, 455/39, 455/40, 455/66.1, 455/9, 455/10, 455/11.1, 455/14
• US Class Current: 455/7
• CPC Class Codes: H04B 7/22 Scatter propagation systems , e.g. ionospheric, tropospheric or meteor scatter

Abstract

A meteor burst communication system (10) has the capability of simultaneously communicating with multiple remote units (14). The meteor burst system includes a base station (12) having a processing unit, or main processor (16), that generates a probe signal (76). A transmitter (54, 56, 58) transmits the probe signal to the remote units. The remote units receive the probe signal and respond to the probe signal by transmitting data signals (78, 80, 82) to the base station. The base station includes a plurality of receivers (38, 40, 42, 44) that receive the data signals from the remote units. A plurality of receiver processors (46, 48, 50, 52) process the data signals received from the remote units. When the data signals have been received from the remote units, the main processor formulates an acknowledgment signal (84), and the acknowledgment signal is transmitted to the remote units.

Claims

1. A method of simultaneous communication with at least first and second remote meteor burst units, the method comprising:

simultaneously transmitting first and second data signals from the first and second remote meteor burst units, respectively, to a meteor burst base station;

receiving and demodulating the first data signal from the first remote meteor burst unit with a first receiver in the meteor burst base station to produce a first demodulated data signal;

receiving and demodulating the second data signal from the second remote meteor burst unit with a second receiver in the meteor burst base station, simultaneously with the receiving and demodulating by the first receiver, to produce a second demodulated data signal;

receiving and processing the content of the first demodulated data signal from the first receiver with a first receiver processor dedicated to the first receiver;

receiving and processing the content of the second demodulated data signal from the second receiver with a second receiver processor dedicated to the second receiver, simultaneous with the receiving and processing by the first receiver processor;

formulating an acknowledgment signal after the first and second receiver processors have respectively processed the content of the first and second demodulated data signals; and

transmitting the acknowledgment signal simultaneously to the first and second remote meteor burst units.

2. The method of claim 1, further comprising:

formulating a probe signal;

simultaneously transmitting the probe signal from the meteor burst base station to the first and second remote meteor burst units; and

receiving the probe signal at the first and second remote meteor burst units.

3. The method of claim 2, wherein the first and second remote meteor burst units transmit the first and second data signals, respectively, in response to receipt of the probe signal.

4. The method of claim 3, further comprising generating another probe signal when the first and second data signals are not received within a predetermined time period after the probe signal is transmitted.

5. The method of claim 1, wherein processing the content of the first and second demodulated data signals with the first and second receiver processors, respectively, comprises validating data in the demodulated data signals.

6. The method of claim 5, further comprising generating a probe signal when the data received from the first and second remote meteor burst units is not valid.

7. The method of claim 1, further comprising using the first and second receiver processors to monitor the first and second receivers, respectively, to ensure correct operation of the first and second receivers.

8. The method of claim 1, further comprising simultaneously transmitting three or more data signals from three or more remote meteor burst units to the meteor burst base station, the meteor burst base station having three or more receivers that simultaneously receive and demodulate the three or more data signals to produce three or more demodulated data signals, the method further comprising simultaneously processing the content of the three or more demodulated data signals using three or more receiver processors dedicated to the three or more receivers, respectively, and formulating an acknowledgment signal after the demodulated data signals have been processed for simultaneous transmission to the three or more remote meteor burst units.

9. A meteor burst base station capable of simultaneous communication with multiple remote meteor burst units, each remote meteor burst unit including a transceiver that transmits a data signal, the base station comprising:

at least first and second receivers configured to receive and demodulate data signals, the first and second receivers being arranged to simultaneously receive first and second data signals transmitted from first and second remote meteor burst units, respectively, and demodulate the first and second data signals to produce first and second demodulated data signals;

at least first and second dedicated receiver processors arranged in communication with the first and second receivers, respectively, wherein the first and second receiver processors are configured to receive and simultaneously process the content of the first and second demodulated data signals from the first and second receivers;

a processing unit separate from the first and second receiver processors, in which the processing unit is arranged in communication with the first and second receiver processors for generating an acknowledgment signal after the first and second demodulated data signals have been processed; and

a transmitter in communication with the processing unit for transmitting the acknowledgment signal simultaneously to the first and second remote meteor burst units.

10. The meteor burst base station of claim 9, wherein the processing unit is further configured to generate a probe signal that is transmitted by the transmitter to the first and second remote meteor burst units.

11. The meteor burst base station of claim 10, wherein if the first and second data signals are not received within a predetermined time period after transmission of the probe signal, the processing unit is configured to generate another probe signal.

12. The meteor burst base station of claim 9, wherein the first and second receiver processors are configured to validate the data received in the first and second demodulated data signals.

13. The meteor burst base station of claim 9, wherein the acknowledgment signal is a data packet that is addressed to at least the first and second remote meteor burst units.

14. The meteor burst base station of claim 9, wherein the acknowledgment signal includes a first data packet addressed to the first remote meteor burst unit and a second data packet addressed to the second remote meteor burst unit.

15. The meteor burst base station of claim 9, wherein the first and second receiver processors are further configured to monitor the first and second receivers, respectively, to ensure correct operation of the first and second receivers.

16. The meteor burst base station of claim 9, further comprising three or more receivers each having a dedicated receiver processor for simultaneous receipt, demodulation, and processing of three or more data signals transmitted from three or more remote meteor burst units, wherein the processing unit is arranged to generate and simultaneously transmit, via the transmitter, an acknowledgement signal to the three or more remote meteor burst units after the three or more data signals have been processed.

17. A meteor burst communication system comprising:

first and second remote meteor burst units, each of which include a transceiver that transmits a data signal; and

a meteor burst base station, including;

(a) first and second receivers arranged to simultaneously receive first and second data signals from the first and second remote meteor burst units and demodulate the first and second data signals to produce first and second demodulated data signals;

(b) first and second dedicated receiver processors in communication with the first and second receivers, respectively, for receiving and processing the content of the first and second demodulated data signals from the first and second receivers;

(c) a processing unit separate from the first and second receiver processors, in which the processing unit is arranged in communication with the first and second receiver processors for generating an acknowledgment signal after the first and second demodulated data signals have been processed; and

(d) a transmitter in communication with the processing unit for transmitting the acknowledgment signal simultaneously to the first and second remote meteor burst units.

18. The meteor burst communication system of claim 17, wherein the processing unit in the meteor burst base station is further configured to generate a probe signal that is transmitted by the transmitter to the first and second remote meteor burst units;

and when the first and second remote meteor burst units receive the probe signal, the transceiver of the first and second remote meteor burst units respectively transmit the first and second data signals in response to receipt of the probe signal.

19. The meteor burst communication system of claim 18, wherein the processing unit is configured to determine whether the first and second data signals are received within a predetermined time period after the probe signal is transmitted.

20. The meteor burst communication system of claim 17, wherein the first and second receiver processors are configured to validate data received in the first and second demodulated data signals.

21. The meteor burst communication system of claim 17, wherein the processing unit is further configured to generate a summary message that summarizes data contained in the first and second demodulated data signals.

22. The meteor burst communication system of claim 21, wherein the processing unit is in data communication with a message center for sending the summary message to the message center.

23. The meteor burst communication system of claim 17, wherein the first and second receiver processors are further configured to monitor the first and second receivers, respectively, to ensure correct operation of the first and second receivers.

24. The meteor burst communication system of claim 17, further comprising three or more remote meteor burst units each having a transceiver that transmits a data signal, in which the meteor burst base station further comprises three or more receivers each having a dedicated receiver processor for simultaneous receipt, demodulation, and processing of data signals transmitted from the three or more remote meteor burst units, wherein the processing unit is arranged to generate and simultaneously transmit, via the transmitter, an acknowledgement signal to the three or more remote meteor burst units after the three or more data signals have been processed.