A method for targeted drug delivery. The method includes preparing a drug composition with a surface electric charge, injecting the drug composition into a cancer patient's body, placing an electrically conductive element in a region next to a tumor location inside the cancer patient's body, and delivering the drug composition to the tumor location. Delivering the drug composition to the tumor location includes electrostatically trapping the drug composition within the tumor location by applying an electrostatic field with an opposite sign of electric charge to a sign of the surface electric charge of the drug composition to the electrically conductive element.

A mechanical circulatory assist system includes a continuous-flow pump and a controller. The pump is implantable to assist blood flow from the left ventricle to the aorta The controller is operable to control a rotation speed of the pump over an operational cycle. The operational cycle includes a first segment over which the ventricular assist device is operated at first rotation speed, a second segment over which the rotation speed of the ventricular assist device is decreased from the first rotation speed to a second rotation speed, a third segment over which the ventricular assist device is operated at the second rotation speed, and a fourth segment over which the rotation speed of the ventricular assist device is increased from the second rotation speed. A contraction of the left ventricle that opens and closes the native aortic valve occurs during the third segment.

A method for tumor suppression is disclosed. The method includes preparing a chip by forming a layer of electrically conductive nanostructures on a substrate, placing the chip adjacent to a cancerous tumor, positively charging the layer of electrically conductive nanostructures by applying a positive electrostatic voltage on the chip, and reducing size of the cancerous tumor by electrostatically stimulating cancer cells of the cancerous tumor responsive to accumulating positive charges on the layer of electrically conductive nanostructures.

Placing a mini hot water bottle or other suitable container of an energized form of water referred to as KELEA activated water can be used to support the alternative cellular energy (ACE) pathway in a human or animal subject. KELEA is an abbreviation of kinetic energy limiting electrostatic attraction. The ACE pathway is a form of cellular energy different from that provided by the calories in food or, in the case of plants and certain bacteria, by photosynthesis. The long-term wearing of a flexible container of KELEA activated water, also referred to as waterceutical, provides many advantages over the transient uses of waterceuticals as drinking water, injection, spray or inhalant. Adding to the reliance and utility of the wearable waterceuticals is a method based on KELEA mediated weight gain of paper and the reversal of the weight gain by electromagnetic radiation. A practical wearable waterceutical using any of several suggested waterceutical products is described.

Placing a mini hot water bottle or other suitable container of an energized form of water referred to as KELEA activated water can be used to support the alternative cellular energy (ACE) pathway in a human or animal subject. KELEA is an abbreviation of kinetic energy limiting electrostatic attraction. The ACE pathway is a form of cellular energy different from that provided by the calories in food or, in the case of plants and certain bacteria, by photosynthesis. The long-term wearing of a flexible container of KELEA activated water, also referred to as waterceutical, provides many advantages over the transient uses of waterceuticals as drinking water, injection, spray or inhalant. Adding to the reliance and utility of the wearable waterceuticals is a method based on KELEA mediated weight gain of paper and the reversal of the weight gain by electromagnetic radiation. A practical wearable waterceutical using any of several suggested waterceutical products is described.

An electroporation system may include a well plate, a dispenser and a dispenser-well positioning system. The well plate may include wells, each of the wells including an interior, a first electrode adjacent the interior and a second electrode adjacent the interior and spaced from the first electrode. The first electrode and the second electrode are to apply an electrostatic field across the well. The dispenser is to dispense a cell having a diameter into each of the wells. The dispenser-well positioning system is to align each well and the dispenser such that the dispenser dispenses the cell into each well at a location spaced from the first electrode and the second electrode by a distance of at least 5 times the diameter of the cell.

The present invention provides a portable handheld static-electricity generator and a method thereof for alleviating pain in at least one portion of patient's body, comprising: a movable brush, a polymer assembly comprising a rubbing-surface portion upon which the brush rubs and an automatically-operated mechanical unit. The polymer assembly having affinity to a defined charge such that when the movable brush rubs the rubbing-surface of the polymer assembly for a predefined time a static electricity is generated.

The present invention provides a portable handheld static-electricity generator and a method thereof for alleviating pain in at least one portion of patient's body, comprising: a movable brush, a polymer assembly comprising a rubbing-surface portion upon which the brush rubs and an automatically-operated mechanical unit. The polymer assembly having affinity to a defined charge such that when the movable brush rubs the rubbing-surface of the polymer assembly for a predefined time a static electricity is generated.

A hair restoration apparatus (100) restores hair loss and prevents further loss. The apparatus (100) includes a restoration insert (102). The restoration insert (102) includes a magnet substructure (104). A magnet array (106) is formed within the magnet substructure (104). The array (106) includes individual therapy magnets (108). The substructure (104) provides a base for the therapy magnets (108) to be positioned in close proximity to the scalp of a user (112).

A hair restoration apparatus (100) restores hair loss and prevents further loss. The apparatus (100) includes a restoration insert (102). The restoration insert (102) includes a magnet substructure (104). A magnet array (106) is formed within the magnet substructure (104). The array (106) includes individual therapy magnets (108). The substructure (104) provides a base for the therapy magnets (108) to be positioned in close proximity to the scalp of a user (112).