Abstract: An automated adaptive muscle stimulation system and method are disclosed. The stimulation system includes at least one electrode assembly adapted to deliver a muscle stimulation signal to the tissue of a user, a sensor system adapted to detect a muscle response, and an electrical stimulation device operably coupled to the at least on electrode assembly and the sensor system, the electrical stimulation device including a control system operable to automatically diagnose at least one characteristic of a muscle from the detected muscle response and adjust at least one parameter of the muscle stimulation signal in response thereto to deliver an adjusted muscle stimulation signal. A dual mode muscle stimulation system adapted to accept first and second data sets and provide first and second levels of treatment data is also disclosed.

Abstract: An electrode system for transcutaneous nerve and/or muscle stimulation that includes a pair of stimulating electrodes and a stimulation current generator for generating a nerve and/or muscle stimulation current between the stimulating electrodes. The system also includes a current-injecting electrode arranged in proximity to one of the stimulating electrodes, and an injection-current generator located in the area of the current-injecting electrode. The current-injecting electrode and the corresponding injection-current generator reduce, or even eliminate, undesirable sensations resulting from an excitation of subcutaneous receptors by the stimulation current.

Abstract: An automated adaptive muscle stimulation system and method are disclosed. The stimulation system includes at least one electrode assembly adapted to deliver a muscle stimulation signal to the tissue of a user, a sensor system adapted to detect a muscle response, and an electrical stimulation device operably coupled to the at least on electrode assembly and the sensor system, the electrical stimulation device including a control system operable to automatically diagnose at least one characteristic of a muscle from the detected muscle response and adjust at least one parameter of the muscle stimulation signal in response thereto to deliver an adjusted muscle stimulation signal. A dual mode muscle stimulation system adapted to accept first and second data sets and provide first and second levels of treatment data is also disclosed.

Abstract: Electrotherapy systems and methods for delivering an electrostimulation treatment program to a user while reducing the risk of inducing cardiac fibrillation. The systems and methods detect electrostimulation treatment program delivery characteristics, including a pulse intensity above a preset limit; a pulse duration above a preset limit; an inappropriately compensated pulse; a charge per pulse above a predetermined limit; a current improperly exiting from a stimulation channel; a current present outside of a pulse; an excitation pulse and a compensation pulse generated on different channels; an inter-pulse time less than a predetermined limit; and a time between an excitation and a compensation pulse greater than a predetermined limit. The limits are selected in relation to an objective of reducing the risk of inducing cardiac fibrillation.

Abstract: An automated adaptive muscle stimulation system and method are disclosed. The stimulation system includes at least one electrode assembly adapted to deliver a muscle stimulation signal to the tissue of a user, a sensor system adapted to detect a muscle response, and an electrical stimulation device operably coupled to the at least on electrode assembly and the sensor system, the electrical stimulation device including a control system operable to automatically diagnose at least one characteristic of a muscle from the detected muscle response and adjust at least one parameter of the muscle stimulation signal in response thereto to deliver an adjusted muscle stimulation signal. A dual mode muscle stimulation system adapted to accept first and second data sets and provide first and second levels of treatment data is also disclosed.

Abstract: The ultrasound therapeutic system of the present invention generally includes a generator unit, at least one transducer treatment head, and a programmable controller. The generator is in operable communication with the at least one transducer treatment head such that electric power outputted from the generator to the head is converted into acoustic power by the head. Re-programmable software at the controller generally controls all features and functions for the system. In particular, the controller calculates an initial optimal treatment dose, maintains effective acoustic power transmitted to the patient through the at least one treatment head, performs calibration procedures for the at least one treatment head, controls outputting for each supported treatment mode, and provides for various other features and functions.

Abstract: The ultrasound therapeutic system of the present invention generally includes a generator unit, at least one transducer treatment head, and a programmable controller. The generator is in operable communication with the at least one transducer treatment head such that electric power outputted from the generator to the head is converted into acoustic power by the head. Re-programmable software at the controller generally controls all features and functions for the system. In particular, the controller calculates an initial optimal treatment dose, maintains effective acoustic power transmitted to the patient through the at least one treatment head, performs calibration procedures for the at least one treatment head, controls outputting for each supported treatment mode, and provides for various other features and functions.

Abstract: The ultrasound therapeutic system of the present invention generally includes a generator unit, at least one transducer treatment head, and a programmable controller. The generator is in operable communication with the at least one transducer treatment head such that electric power outputted from the generator to the head is converted into acoustic power by the head. Re-programmable software at the controller generally controls all features and functions for the system. In particular, the controller calculates an initial optimal treatment dose, maintains effective acoustic power transmitted to the patient through the at least one treatment head, performs calibration procedures for the at least one treatment head, controls outputting for each supported treatment mode, and provides for various other features and functions.

Abstract: The electrical stimulator includes an electrical pulse generator arranged in a case, stimulation electrodes (7) to be placed on a user's skin on the motor points of the muscles to be stimulated, each electrode (7) being connected to an electric cable (5) connector, the other end of the cable being connected in a removable manner to a signal input and/or output socket of the case for receiving the electric pulses, at least one sensor (11) for measuring the muscle reactions caused by the electric pulses, and electronic means in the case for receiving the measurements from the sensor. The sensor (11) is intrinsically linked to one of the electrodes (7) or to the connector (6). At least one conductor wire (15) of the cable connects the electrode (7) independently of the sensor (11).

Abstract: The electrical stimulator includes an electrical pulse generator arranged in a case, stimulation electrodes (7) to be placed on a user's skin on the motor points of the muscles to be stimulated, each electrode (7) being connected to an electric cable (5) connector, the other end of the cable being connected in a removable manner to a signal input and/or output socket of the case for receiving the electric pulses, at least one sensor (11) for measuring the muscle reactions caused by the electric pulses, and electronic means in the case for receiving the measurements from the sensor. The sensor (11) is intrinsically linked to one of the electrodes (7) or to the connector (6). At least one conductor wire (15) of the cable connects the electrode (7) independently of the sensor (11).

Abstract: The electrical stimulator includes an electrical pulse generator arranged in a case, stimulation electrodes (7) to be placed on a user's skin on the motor points of the muscles to be stimulated, each electrode (7) being connected to an electric cable (5) connector, the other end of the cable being connected in a removable manner to a signal input and/or output socket of the case for receiving the electric pulses, at least one sensor (11) for measuring the muscle reactions caused by the electric pulses, and electronic means in the case for receiving the measurements from the sensor. The sensor (11) is intrinsically linked to one of the electrodes (7) or to the connector (6). At least one conductor wire (15) of the cable connects the electrode (7) independently of the sensor (11).

Abstract: The electrical stimulator includes an electrical pulse generator arranged in a case, stimulation electrodes (7) to be placed on a user's skin on the motor points of the muscles to be stimulated, each electrode (7) being connected to an electric cable (5) connector, the other end of the cable being connected in a removable manner to a signal input and/or output socket of the case for receiving the electric pulses, at least one sensor (11) for measuring the muscle reactions caused by the electric pulses, and electronic means in the case for receiving the measurements from the sensor. The sensor (11) is intrinsically linked to one of the electrodes (7) or to the connector (6). At least one conductor wire (15) of the cable connects the electrode (7) independently of the sensor (11).

Abstract: The electrical stimulator includes an electrical pulse generator arranged in a case, stimulation electrodes (7) to be placed on a user's skin on the motor points of the muscles to be stimulated, each electrode (7) being connected to an electric cable (5) connector, the other end of the cable being connected in a removable manner to a signal input and/or output socket of the case for receiving the electric pulses, at least one sensor (11) for measuring the muscle reactions caused by the electric pulses, and electronic means in the case for receiving the measurements from the sensor. The sensor (11) is intrinsically linked to one of the electrodes (7) or to the connector (6). At least one conductor wire (15) of the cable connects the electrode (7) independently of the sensor (11). The stimulator finds application in particular in the field of sports for the passive exercising of muscles stimulated by electric pulses, or in the re-education of atrophied muscles.