1. A pulsed electrical remote control interface for an equipment item including a plurality of functions to be controlled, said electrical interface comprising at least a first command input associated with a first command line for selecting at least one function to be performed from the plurality of functions and at least a second command input associated with a second command line for executing the selected function, each command input being associated with an outbound pulsed command line and a return line, the return line possibly being shared with a number of outbound lines.
2. The electrical interface according to claim 1, wherein each function to be controlled is defined by a predetermined number of consecutive command pulses.
3. The electrical interface according to claim 2, wherein the number of command pulses is different for different functions and wherein the electrical interface has only two command inputs respectively dedicated to selecting at least one function and executing the selected function.
4. The electrical interface according to claim 2, wherein the number of command pulses is identical for functions of the same type corresponding to a first direction or to a second direction of execution that are different and wherein the electrical interface includes at least one selection command input and two execution command inputs respectively dedicated to the execution of the selected function in the first direction and in the second direction.
5. The electrical interface according to claim 4, including two selection command inputs and two execution command inputs, the two selection command inputs being respectively dedicated to increasing and reducing a number of pulses counted, the number of pulses counted corresponding to the selection of the function.
6. The electrical interface according to claim 1, wherein, on the execution command inputs, each command for executing a function comprises a single pulse.
7. The electrical interface according to claim 6, wherein the performance of the same function several times in succession corresponds to the emission of a number of consecutive pulses on the same command input.
8. The electrical interface according to claim 6, wherein the execution command pulse for a function selected by the selection command inputs is emitted on an execution command input after the emission of the pulses for selecting the function on a selection command input.
9. An equipment item including an electrical remote control interface according to claim 1.
10. A satellite including at least one equipment item according to claim 9.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. An electrical stimulation apparatus for delivering an electrical field over a predetermined period of time to a targeted body tissue in order to stimulate a cell-initiated activation of nitric oxide, enhanced protein clearance and angiogenic response in living cells within the targeted body tissue, the electrical stimulation apparatus comprising:
a) a plurality of electrodes adapted to deliver an electrical field to the targeted body tissue;
b) a control mechanism controlling an amplitude and a duration of a period of delivery of electrical pulses from the power supply to the plurality of electrodes such that when the plurality of electrodes are disposed in proximity with the targeted body tissue at a plurality of locations, the electrical field is generated between the electrodes, wherein an intensity of the electrical field delivered to the targeted body tissue through the electrodes and the duration of the period of delivery is sufficient to stimulate nitric oxide (NO) activation, enhanced protein clearance and an angiogenic response in the targeted body tissue.
2. The electrical stimulation apparatus of claim 1, wherein the electrode placement includes any area of the body in which muscle or electrically active tissue is present.
3. The electrical stimulation apparatus of claim 1, wherein the electrical field has the following characteristics:
a) a bi-polar exponentially decaying pulse;
b) a frequency between 1 Hz and 5 Hz;
c) a voltage between 1V and 200V;
d) a current between 1 mA and 200 mA; and
e) a pulse duration between 3 milliseconds and 15 milliseconds.
4. An electrical stimulation apparatus for delivering an electrical field over a predetermined period of time to a targeted healthy body tissue in order to stimulate a cell-initiated activation of nitric oxide, enhanced protein clearance and an angiogenic response in living cells within the targeted healthy body tissue, the electrical stimulation apparatus comprising:
a) a plurality of electrodes adapted to deliver an electrical field to the targeted body tissue;
b) a control mechanism controlling an amplitude and a duration of a period of delivery of electrical pulses from the power supply to the plurality of electrodes such that when the plurality of electrodes are disposed in proximity with the targeted healthy body tissue at a plurality of locations, the electrical field is generated between the electrodes, wherein an intensity of the electrical field delivered to the healthy targeted body tissue and the duration of the period of delivery is sufficient to stimulate nitric oxide (NO) activation, enhanced protein clearance and an angiogenic response in the healthy targeted body tissue to improve muscle performance by inducing a recovery of the tissue following exercise or activity and to enhance endurance.
5. The electrical stimulation apparatus of claim 4, wherein the electrode placement includes any area of the body in which muscle or electrically active tissue is present.
6. The electrical stimulation apparatus of claim 4, wherein the electrical field has the following characteristics:
a) a bi-polar exponentially decaying pulse;
b) a frequency between 1 Hz and 5 Hz;
c) a voltage between 1V and 200V;
d) a current between 1 mA and 200 mA; and
e) a pulse duration between 3 milliseconds and 15 milliseconds.
7. A method for regenerating damaged living tissue resulting from an injury by stimulating a cell-initiated activation of nitric oxide, enhanced protein clearance and angiogenic response in living cells within the damaged living tissue, said method comprising:
(a) determining a path in the region of the damaged living tissue;
(b) placing and orienting at least one pair of electrodes with respect to the region of damaged living tissue based on the determined path; and
(c) applying to the at least one electrode pair electrical pulses which generate an electric field which flows through the damaged living tissue region, said electric field having an intensity and period of delivery sufficient to stimulate nitric oxide (NO) activation, enhanced protein clearance and an angiogenic response in the region of the damaged living tissue.
8. The method of claim 7 wherein said period of delivery is a minimum of 30 minutes per session and there is at least one session per day.
9. The method defined by claim 7 wherein the electrical field has the following characteristics:
a) a bi-polar exponentially decaying pulse;
b) a frequency between 1 Hz and 5 Hz;
c) a voltage between 1V and 200V;
d) a current between 1 mA and 200 mA; and
e) a pulse duration between 3 milliseconds and 15 milliseconds.
10. A method for stimulating a cell-initiated activation of nitric oxide, enhanced protein clearance and an angiogenic response in living cells within a targeted healthy tissue region, said method comprising:
(a) determining a path in the region of the targeted healthy body tissue;
(b) placing and orienting at least one pair of electrodes with respect to the targeted healthy tissue region based on the determined path; and
(c) applying to the at least one pair of electrodes electrical pulses which generate an electric field which flows through the targeted healthy living tissue region, said electric field having an intensity and period of delivery sufficient to stimulate nitric oxide (NO) activation, enhanced protein clearance and an angiogenic response in the healthy targeted body tissue to induce improved muscle performance by a recovery of the tissue following exercise or activity and to enhance endurance during exercise or activity.
11. The method defined by claim 10 wherein said method is used for muscle recovery after athletic or strenuous activity, said period of delivery is one 60 minute session given directly after activity and during the first day after activity at least one 60 minute session is performed or two 30 minute sessions are performed.
12. The method defined by claim 10 wherein said method is used for improved endurance, and said period of delivery is one 60 minute session before activity on the day of activity.
13. The method defined by claim 10 wherein the electrical field has the following characteristics:
a) a bi-polar exponentially decaying pulse;
b) a frequency between 1 Hz and 5 Hz;
c) a voltage between 1V and 200V; and
d) a current between 1 mA and 200 mA.
14. A method for fracture healing and the healing of non-union fractures in a patient by stimulating a cell-initiated activation of nitric oxide, enhanced protein clearance and an angiogenic response in living bone tissue cells, said method comprising:
a) placing one pair of electrodes directly across a fracture;
b) placing at least a second pair of electrodes on at least one muscle group surrounding the fracture site;
c) applying to each pair of electrodes electrical pulses which generate an electric field which flows through said electrodes, said electric field having an intensity and period of delivery sufficient to stimulate nitric oxide (NO) activation, enhanced protein clearance and an angiogenic response in said living bone tissue.
15. The method defined by claim 14 wherein said electrical pulses have a frequency of 1-5 Hz and said intensity is at a level in which the muscle contractions can be felt by the patient, but not high enough to cause pain or movement of the fractured bone.
16. The method defined by claim 14 wherein said applying is performed in sessions of 1 to 4 hours, such that in a 24 hour period of time there is a minimum of 2 hours of said applying.
17. The method defined by claim 14 wherein the electrical field has the following characteristics:
a) a bi-polar exponentially decaying pulse;
b) a frequency between 1 Hz and 5 Hz;
c) a voltage between 1V and 200V;
d) a current between 1 mA and 200 mA; and
e) a pulse duration between 3 milliseconds and 15 milliseconds.
18. A method for stimulating a natural process to stimulate a cell-initiated activation of nitric oxide, enhanced protein clearance and angiogenic response in living body tissue, said method comprising:
(a) determining a path in the living body tissue;
(b) placing and orienting said electrodes with respect to living body tissue based on the determined path; and
(c) impressing across the electrodes electrical pulses which generate an electric field which flows through the living body tissue region, said electric field having an intensity and period of delivery sufficient to stimulate nitric oxide (NO) activation, enhanced protein clearance and an angiogenic response in the living body tissue.
19. The method defined by claim 18 wherein the electrical field has the following characteristics:
a) a bi-polar exponentially decaying pulse;
b) a frequency between 1 Hz and 5 Hz;
c) a voltage between 1V and 200V;
d) a current between 1 mA and 200 mA; and
e) a pulse duration between 3 milliseconds and 15 milliseconds.