IP Library Granted Patent US 7,805,112
Granted Patent B2
US 7,805,112 · App. 12/322,076 · Granted Sep 28, 2010

Power regulation feedback to optimize robustness of wireless transmissions

Assignee: Codman Neuro Sciences Sárl
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Quick Facts
Patent No.
US 7,805,112
App. No.
12/322,076
Granted
Sep 28, 2010
Kind
B2
Abstract

A wireless communication system with power regulation feedback for improving the robustness of wireless communication transmissions between a receiver and an active emitter irrespective of the distance separation therebetween. The receiver receives wireless communications and detects a voltage induced therein. A feedback loop provides wireless transmission of power regulation feedback based on the detected voltage. The active emitter generates a power regulated data signal in which at least one of maximum and minimum bit voltage levels of respective logical high and low bits is adjusted based on the induced voltage received via the feedback loop. The RF power level, modulation index, and/or slew rate of a data signal emitted from the active emitter is regulated by adjusting at least one of maximum and minimum bit voltage levels of respective logical high and low bits based on voltage induced in the receiver during a previous communication from the active emitter.

Claims (28)

1. A wireless communication system with power regulation feedback to improve robustness of wireless communication transmissions between a receiver and active emitter irrespective of distance separation therebetween, comprising:

the receiver being adapted to receive wireless communications and detect a voltage signal induced therein;

a feedback loop for wireless transmission of power regulation feedback based on an RF responsive data signal including the induced voltage signal detected in the receiver; and

the active emitter being adapted for generating a power regulated data signal in which at least one of maximum and minimum bit voltage levels of respective logical high and low bits is adjusted based on the RF responsive data signal including the induced voltage signal received via the feedback loop.

2. The wireless communication system in accordance with claim 1 , wherein the active emitter further comprises a processor for adjusting the at least one of maximum and minimum bit voltage levels of respective logical high and low bits in order to regulate at least one of RF power level, modulation index, and slew rate of the data signal emitted by the active emitter based on the induced voltage received via the feedback loop.

3. The wireless communication system in accordance with claim 1 , wherein in the active emitter the at least one bit voltage level is adjusted based on the induced voltage signal of the demodulated RF responsive data signal in order to vary at least two parameters selected from the group consisting of RF power level, modulation index and slew rate of the of the data signal emitted by the active emitter.

4. The wireless communication system in accordance with claim 1 , wherein in the active emitter the at least one bit voltage level is adjusted based on the induced voltage signal of the demodulated RF responsive data signal in order to vary RF power level, modulation index, and slew rate of the of the data signal emitted by the active emitter.

5. A method for using a wireless communication system with power regulation feedback to improve robustness of wireless communication transmissions between a receiver and active emitter irrespective of distance separation therebetween, comprising the steps of:

receiving an RF modulated data signal at the receiver:

converting RF energy from the received RF modulated data signal to an induced voltage signal;

demodulating the received RF modulated data signal;

generating an RF responsive data signal including the induced voltage signal using a first processor receiving as input the demodulated RF data signal and the induced voltage signal;

modulating the RF responsive data signal and producing an RF modulated responsive data signal;

transmitting wirelessly the RF modulated responsive data signal from the receiver to the active emitter;

demodulating the received RF modulated responsive data signal to produce a demodulated RF responsive data signal;

generating new data and at least one of adjusted maximum and minimum bit voltage levels of respective logical high and low bits in response to receiving as input to a second processor the demodulated RF responsive data signal; the bit voltage levels being adjusted based on the induced voltage signal of the demodulated RF responsive data signal; and

shifting the new data to an adjusted voltage level based on the average of the at least one adjusted maximum and minimum bit voltage levels to produce a converted data signal.

6. The method in accordance with claim 5 , further comprising the steps of:

generating a carrier wave; and

modulating the carrier wave by the converted data signal to produced a new RF modulated data signal.

7. The method in accordance with claim 6 , further comprising transmitting the new RF modulated data signal from the active emitter to the receiver.

8. The method in accordance with claim 5 , wherein the shifting step comprises adjusting the at least one maximum and minimum bit voltage levels based on the induced voltage signal of the demodulated RF responsive data signal in order to vary at least one parameter selected from the group consisting of RF power level, modulation index and slew rate of the of the data signal emitted by the active emitter.

9. The method in accordance with claim 8 , wherein the shifting step comprises adjusting the at least one maximum and minimum bit voltage levels based on the induced voltage signal of the demodulated RF responsive data signal in order to vary at least two parameters selected from the group consisting of RF power level, modulation index and slew rate of the of the data signal emitted by the active emitter.

10. The method in accordance with claim 8 , wherein the shifting step comprises adjusting the at least one maximum and minimum bit voltage levels based on the induced voltage signal of the demodulated RF responsive data signal in order to vary RF power level, modulation index, and slew rate of the of the data signal emitted by the active emitter.

11. A method for using a wireless communication system with power regulation feedback to improve robustness of wireless communication transmissions between a receiver and active emitter irrespective of distance separation therebetween, comprising the steps of:

regulating based on an RF responsive data signal including a detected voltage signal induced in the receiver, at least one of RF power level, modulation index, and slew rate of a data signal emitted from the active emitter by adjusting at least one of maximum and minimum bit voltage levels of respective logical high and low bits based on the detected voltage signal induced in the receiver during a previous wireless communication from the active emitter.

12. The method in accordance with claim 11 , wherein the regulating step further comprises adjusting the at least one maximum and minimum bit voltage levels based on the induced voltage signal induced in the receiver during a previous communication from the active emitter in order to vary at least two parameters selected from the group consisting of RF power level, modulation index, and slew rate of the of the data signal emitted by the active emitter.

13. The method in accordance with claim 11 , wherein the regulating step further comprises adjusting the at least one maximum and minimum bit voltage levels based on the induced voltage signal induced in the receiver during a previous communication from the active emitter in order to vary RF power level, modulation index and slew rate of the of the data signal emitted by the active emitter.

Assignments (2)
MERGER Recorded Dec 11, 2019
From: CODMAN NEURO SCIENCES SARL
To: MEDOS INTERNATIONAL SARL
Reel/Frame 051246/0375 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jan 28, 2009
From: GINGGEN, ALEC; CRIVELLI, ROCCO
To: CODMAN NEURO SCIENCES SARL
Reel/Frame 022243/0802 →
Continuity (2)
Continuation 1111680600 · Apr 27, 2005
Related Publication 20090239478A1 · Sep 24, 2009