IP Library Granted Patent US 10,470,132
Granted Patent B2
US 10,470,132 · App. 16/027,458 · Granted Nov 5, 2019

Power efficient communications

Inventors: Edgar H. Callaway, Jr. (Boca Raton, FL); Paul E. Gorday (West Palm Beach, FL)
Assignee: SUNRISE MICRO DEVICES, INC.
H04W52/0261G05F1/66H04B1/3883H04L27/2614H04L47/748H04W28/14Y02D70/00Y02D70/144
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Quick Facts
Patent No.
US 10,470,132
App. No.
16/027,458
Granted
Nov 5, 2019
Kind
B2
Abstract

A method, system, and device provide power-efficient communications within the context of available power. Transmission and receipt data rates are scalable in accordance with output power available from a power source. Data is transmitted at a data rate determined, at least in part, by the available output power.

Claims (46)

1. A communication system, comprising:

a receiver capable of receiving data at a data reception rate; and

an energy harvesting electrical power source, capable of producing an output power that is available to the receiver,

where the receiver is configured in operation to maximize a portion of the available output power of the energy harvesting power source useable to receive data while maintaining a peak power consumption below the available output power of the energy harvesting power source, and

where the receiver is configured in operation to:

increase the data reception rate when the available output power of the energy harvesting power source is predicted to increase, unless the data reception rate is at a maximum value; and

decrease the data reception rate when the available output power is predicted to decrease.

2. The communication system in accordance with claim 1 , further comprising:

a transmitter capable of transmitting data at a data transmission rate,

where the transmitter is configured in operation to maximize a portion of the available output power of the energy harvesting power source useable to transmit data while maintaining a peak power consumption below the available output power of the energy harvesting power source.

3. The communication system in accordance with claim 2 ,

where the transmitter is further configured in operation to:

increase the data transmission rate of the transmitter after a number of consecutive successful transmissions or when the available output power is predicted to increase, unless the data transmission rate is at a maximum value; and

decrease the data transmission rate of the transmitter after one or more unsuccessful transmissions or when the available output power is predicted to decrease.

4. The communication system in accordance with claim 2 , where decreasing the data transmission rate comprises lengthening the bit duration of the transmitted data.

5. The communication system in accordance with claim 2 , where decreasing the data transmission rate comprises transmitting data with increased redundancy through coding.

6. The communication system in accordance with claim 1 , where the system is a wireless transceiver system.

7. A communication system, comprising:

a transmitter capable of transmitting data at a data transmission rate; and

an energy harvesting electrical power source, capable of producing an output power that is available to the transmitter,

wherein the transmitter is configured in operation to maximize a portion of the available output power of the energy harvesting power source usable to transmit data while maintaining a peak power consumption below the available output power of the energy harvesting power source, and

wherein the transmitter is further configured in operation to:

increase the data transmission rate of the transmitter after a number of consecutive successful transmissions or when the available output power is predicted to increase, unless the data transmission rate is at a maximum value; and

decrease the data transmission rate of the transmitter after one or more unsuccessful transmissions or when the available output power is predicted to decrease.

8. The communication system in accordance with claim 7 , where decreasing the data transmission rate comprises lengthening the bit duration of the transmitted data.

9. The communication system in accordance with claim 7 , where decreasing the data transmission rate comprises transmitting data with increased redundancy through coding.

10. The communication system in accordance with claim 7 , further comprising:

a receiver capable of receiving data at a data reception rate,

wherein the receiver is configured in operation to maximize a portion of the available output power of the energy harvesting power source usable to receive data while maintaining a peak power consumption below the available output power of the energy harvesting power source.

11. The communication system in accordance with claim 10 , where the receiver is configured to:

increase the data reception rate when the available output power of the energy harvesting power source is predicted to increase, unless the data reception rate is at a maximum value; and

decrease the data reception rate when the available output power is predicted to decrease.

12. A method of communication, comprising:

determining an available output power of an energy harvesting power source that is currently available for operation;

maximizing a portion of the available output power used to receive data while maintaining a peak power consumption below the available output power of the energy harvesting power source;

receiving data at a data reception rate;

increasing the data reception rate when the available output power of the energy harvesting power source is predicted to increase, unless the data reception rate is at a maximum value; and

decreasing the data reception rate when the available output power is predicted to decrease.

13. The method of claim 12 , where decreasing the data reception rate comprises lengthening the bit duration of the received data.

14. The method of claim 12 , where decreasing the data reception rate comprises receiving data with increased redundancy through coding.

15. The method of claim 12 , further comprising:

transmitting data at a data transmission rate;

increasing the data transmission rate after a number of consecutive successful transmissions or when the available output power is predicted to increase, unless the data transmission rate is at a maximum value; and

decreasing the data transmission rate after one or more unsuccessful transmissions or when the available output power is predicted to decrease.

16. The method of claim 15 , where decreasing the data transmission rate comprises lengthening the bit duration of the transmitted data.

17. The method of claim 15 , where decreasing the data transmission rate comprises transmitting data with increased redundancy through coding.

Continuity (6)
Continuation 15418063 · Jan 27, 2017
Continuation 14945580 · Nov 19, 2015
Continuation 13649816 · Oct 11, 2012
Continuation 13045932 · Mar 11, 2011
Provisional Application 61313319 · Mar 12, 2010
Related Publication 20180317176A1 · Nov 1, 2018