The present invention provides a method for the treatment of consciousness disorder comprising the steps of positioning at least two electrodes on a patient's head such that the first electrode is positioned on the right supraorbicular cortex and the second electrode is positioned on the left dorso-lateral prefrontal cortex; connecting said electrodes to at least one source of electrical current; delivering direct current to the electrodes, and removing the electrodes from the patient's head after a time T; wherein steps a) to d) represent a treatment session and wherein at least one treatment session is is applied on the patient's head at least 2 days per week.

The present invention provides a method for the treatment of consciousness disorder comprising the steps of positioning at least two electrodes on a patient's head such that the first electrode is positioned on the right supraorbicular cortex and the second electrode is positioned on the left dorso-lateral prefrontal cortex; connecting said electrodes to at least one source of electrical current; delivering direct current to the electrodes, and removing the electrodes from the patient's head after a time T; wherein steps a) to d) represent a treatment session and wherein at least one treatment session is is applied on the patient's head at least 2 days per week.

Methods and systems for treating spasticity, hypertonia or dystonia are disclosed.

Methods and systems for treating spasticity, hypertonia or dystonia are disclosed.

A wireless power transfer system in which the driver and control circuitry are located within the electromagnetic field of the power transmission antenna, e.g., a charging coil. The power transfer system may be contained in a flexible housing, which change shape using one or more hinges, be formed of a conformable material and so on. Changes in the relative location of the antenna and the circuitry may cause interference in the circuitry and loading of the antenna, which in turn may impact the electromagnetic field output by the antenna. The wireless power system may include sensors that provide an indication of an amount of deformation of the system. The driver circuitry of this disclosure may receive an indication of the relative location of the circuitry to the antenna and compensate for changes in the output electromagnetic field caused by changes in the relative location.

A wireless power transfer system in which the driver and control circuitry are located within the electromagnetic field of the power transmission antenna, e.g., a charging coil. The power transfer system may be contained in a flexible housing, which change shape using one or more hinges, be formed of a conformable material and so on. Changes in the relative location of the antenna and the circuitry may cause interference in the circuitry and loading of the antenna, which in turn may impact the electromagnetic field output by the antenna. The wireless power system may include sensors that provide an indication of an amount of deformation of the system. The driver circuitry of this disclosure may receive an indication of the relative location of the circuitry to the antenna and compensate for changes in the output electromagnetic field caused by changes in the relative location.

A reverse electrodialysis device using a precipitation reaction, according to one embodiment of the present invention, comprises a first cell stack alternately forming solid salt chambers and precipitation chambers through cation-exchange membranes and anion-exchange membranes which are alternately provided, and a first water-soluble solid salt and a second water-soluble solid salt which are filled in the solid salt chambers, wherein the first water-soluble solid salt and the second water-soluble solid salt are alternately filled in the solid salt chambers, and can react with each other so as to generate a precipitate in neighboring precipitation chambers when water is supplied.

A reverse electrodialysis device using a precipitation reaction, according to one embodiment of the present invention, comprises a first cell stack alternately forming solid salt chambers and precipitation chambers through cation-exchange membranes and anion-exchange membranes which are alternately provided, and a first water-soluble solid salt and a second water-soluble solid salt which are filled in the solid salt chambers, wherein the first water-soluble solid salt and the second water-soluble solid salt are alternately filled in the solid salt chambers, and can react with each other so as to generate a precipitate in neighboring precipitation chambers when water is supplied.

An energy stimulation device having at least one stimulation generator provided with at least one first metal body and at least one the second metal body in contact with the first metal body. The first metal body and the second metal body are different metals. The device also includes at least one stimulation transmitter, the stimulation transmitter having a rigid support separate from the stimulation generator, and the stimulation generator being fixed on the rigid support. The energy stimulation device is applicable to bio-stimulation for therapeutic and non-therapeutic purposes.

An energy stimulation device having at least one stimulation generator provided with at least one first metal body and at least one the second metal body in contact with the first metal body. The first metal body and the second metal body are different metals. The device also includes at least one stimulation transmitter, the stimulation transmitter having a rigid support separate from the stimulation generator, and the stimulation generator being fixed on the rigid support. The energy stimulation device is applicable to bio-stimulation for therapeutic and non-therapeutic purposes.