IP Library › Granted Patent US 12,458,794
Granted Patent B2
US 12,458,794 · App. 18/503,130 · Granted Nov 4, 2025

Electrostimulation apparatus

Inventor: Viktor Terekhov (Milan, IT)
Assignee: VIKTOR S.R.L.
A61N1/0452A61N1/0456A61N1/36003A61N1/36034
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Quick Facts
Patent No.
US 12,458,794
App. No.
18/503,130
Granted
Nov 4, 2025
Kind
B2
Abstract

An electrostimulation method of at least one muscle group responsible for performing a complex movement includes associating to each of the muscles of the at least one muscle group an electrostimulation channel provided with at least one respective electrode. Each electrostimulation channel is suitable to transmit to the respective muscle bipolar electrical pulses in sequence. For all the electrostimulation channels, a same cycle time defining a repeatable period of stimulation is determined, in which, within the stimulation period, each channel performs its own stimulation sequence. Each stimulation period is sub-divided into two half-periods of equal duration. Each half-period is sub-divided into sub-intervals of the same duration. At least one of the sub-intervals is a stimulation sub-interval wherein a basic sequence of pulses including one or more pulse packets is performed, each pulse packet having a predetermined sequence of individual bipolar electric pulses.

Claims (52)

1 . An electrostimulation method of at least one muscle group responsible for performing a complex movement, comprising the steps of:

creating an electrostimulation program based on an electromyographic recording of the complex cyclic movement, wherein the electrostimulation program is adapted to provide synchronized electrostimulation of the muscles of the at least one muscle group to allow reproduction of the complex cyclic movement;

applying to each of the muscles of the at least one muscle group an electrostimulation channel provided with at least one respective electrode, each electrostimulation channel being adapted to transmit to the respective muscle bipolar electrical pulses in sequence;

determining, for all the electrostimulation channels, a same cycle time defining a repeatable period of stimulation, wherein within said stimulation period each channel performs an associated stimulation sequence;

sub-dividing each stimulation period into two half-periods of equal duration;

sub-dividing each half-period into a plurality of sub-intervals of a same duration;

wherein at least one of said sub-intervals is a stimulation sub-interval in which a basic sequence of pulses comprising one or more pulse packets is performed, each pulse packet comprising a predetermined sequence of individual bipolar electric pulses; and

wherein each stimulation period of each channel has a first half-period free of basic pulse sequences and has a second half-period with at least one stimulation sub-interval;

detecting, through a sensor-based monitoring system applied to at least one limb or limb portion, an effective duration of the cycle of movement performed by a patient or athlete;

comparing the predetermined cycle time of the electrostimulation program with the actual cycle time provided by the monitoring system and, if a mismatch is found,

adjusting the cycle time of the electrostimulation program to adapt the cycle time of the electrostimulation program to the measured cycle time.

2 . The method according to claim 1 , wherein the number of pulse packets and the number of pulses of each pulse packet in each stimulation sub-interval are the same for all channels.

3 . The method according to claim 1 , wherein a number and/or a temporal distribution of the stimulation sub-intervals of the stimulation period of one channel are different from a number and/or from a temporal distribution of the stimulation sub-intervals of at least one other channel.

4 . The method according to claim 1 , wherein, if a stimulation period has more than one stimulation sub-interval, the stimulation intervals are consecutive.

5 . The method according to claim 1 , wherein an amplitude of the pulses of one channel is different from an amplitude of the pulses of at least one other channel.

6 . The method according to claim 1 , wherein an amplitude of the first pulse or last pulse of a stimulation sequence of a channel is significantly greater than an amplitude of the remaining pulses.

7 . The method according to claim 1 , further comprising a step of associating with activation of a predetermined electrostimulation channel emission of an acoustic and/or visual signal perceptible to a person subjected to the electrostimulation method.

8 . The method according to claim 7 , wherein said predetermined electrostimulation channel is the electrostimulation channel which is activated to initiate each stimulation period.

9 . The method according to claim 1 , wherein regulation of the cycle time of the electrostimulation program is performed by recalculating and resetting the duration of each sub-interval.

10 . An electrostimulation apparatus to stimulate at least one muscle group responsible for performing a complex movement, comprising:

a plurality of electrostimulation channels provided with at least one respective electrode, each electrostimulation channel being adapted to transmit to a respective muscle bipolar electrical pulses in sequence;

at least one power board to generate sequences of electric pulses;

storage in which at least one electrostimulation program is stored;

an electronic control unit to control the power boards according to an electrostimulation program stored in the storage, wherein:

said electrostimulation program is based on an electromyographic recording of the complex cyclic movement and is adapted to provide synchronized electrostimulation of the muscles of the at least one muscle group so as to allow reproducing the complex cyclic movement;

said electrostimulation program comprises repetition, on each electrostimulation channel, of electrostimulation periods or intervals having a same cycle time, wherein an associated stimulation sequence is defined for each electrostimulation channel within each stimulation period;

each stimulation period is divided into two half-periods of equal duration;

each half-period is divided into a plurality of sub-intervals of equal duration;

at least one of the sub-intervals is a stimulation sub-interval wherein a base sequence of pulses comprising one or more of pulse packets is executed;

each pulse packet comprises a predetermined sequence of individual bipolar electric pulses;

at least one sensor-based monitoring system applicable to at least one limb or limb portion and configured to generate a signal indicative of an effective duration of a cycle of movement performed by a patient or athlete,

the electronic control unit being configured to receive the signal generated by the at least one sensor-based monitoring system and to:

compare a predetermined cycle time of the electrostimulation program with an actual cycle time provided by the monitoring system and, in the event of a mismatch,

adjust the cycle time of the electrostimulation program to adapt the cycle time of the electrostimulation program to the measured cycle time.

11 . The apparatus according to claim 10 , wherein each power board is configured to generate symmetrical and squared sequences of bipolar electric pulses, each bipolar pulse consisting of a square wave having a pulse period divided into two half-periods of equal duration, a first half-period of positive amplitude and a second half-period of negative amplitude.

12 . The apparatus according to claim 10 , wherein a number and/or a temporal distribution of the stimulation sub-intervals of the stimulation period of a channel is different from a number and/or a temporal distribution of the stimulation sub-intervals of at least one other channel.

13 . The apparatus according to claim 10 , comprising means for generating an acoustic and/or visual signal operatively connectable, selectively, to one of the electrostimulation channels so that, upon activation of said electrostimulation channel, an audible signal and/or a visual signal perceptible to a subject undergoing the electrostimulation treatment is generated by the means for generating an acoustic and/or visual signal.

14 . An electrostimulation apparatus to stimulate at least one muscle group responsible for performing a complex movement, comprising:

a plurality of electrostimulation channels provided with at least one respective electrode, each electrostimulation channel being adapted to transmit to a respective muscle bipolar electrical pulses in sequence;

at least one power board to generate sequences of electric pulses;

storage in which at least one electrostimulation program is stored;

an electronic control unit to control the power boards according to an electrostimulation program stored in the storage, wherein:

said electrostimulation program comprises repetition, on each electrostimulation channel, of electrostimulation periods or intervals having a same cycle time, wherein an associated stimulation sequence is defined for each electrostimulation channel within each stimulation period;

each stimulation period is divided into two half-periods of equal duration;

each half-period is divided into a plurality of sub-intervals of equal duration;

at least one of the sub-intervals is a stimulation sub-interval wherein a base sequence of pulses comprising one or more of pulse packets is executed;

each pulse packet comprises a predetermined sequence of individual bipolar electric pulses;

at least one sensor-based monitoring system applicable to at least one limb or limb portion and configured to generate a signal indicative of an effective duration of a cycle of movement performed by a patient or athlete,

the electronic control unit being configured to receive the signal generated by the at least one sensor-based monitoring system and to:

compare a predetermined cycle time of the electrostimulation program with an actual cycle time provided by the monitoring system and, in the event of a mismatch,

adjust the cycle time of the electrostimulation program to adapt the cycle time of the electrostimulation program to the measured cycle time,

wherein a number of pulse packets and a number of pulses of each pulse packet in each stimulation sub-interval are the same for all the channels.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Nov 7, 2023
From: TEREKHOV, VIKTOR
To: VIKTOR S.R.L.
Reel/Frame 065481/0444 →
Priority Claims (1)
IT 102017000005161 · Jan 18, 2017 · national
Continuity (2)
Division 16478428
Related Publication 20240066283A1 · Feb 29, 2024
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