Abstract: The present invention is directed to an electronic device with an ionic wind generator assembly that provides flow of air stream inside the housing of the device. The ionic wind generator assembly with a cover assembly and a catalyst provide a mechanism for cooling heated components embedded on a PCB of the electronic device. The cover assembly is configured depending on the orientation of the ionic wind generators to increase cooling when there is a narrow gap between the PCB and the ionic wind generator assembly through which the airstream flows for cooling of the internal components.

Abstract: Heat transfer devices are based on using one or more ionic pumps to circulate a dielectric working fluid around a closed circulation path, which may be contained in a conduit. The working fluid may be a liquid or a gas. The ionic pumps are disposed along the closed circulation path. The pumps include an emitter and collector. When a voltage is applied to the emitter, the working fluid is ionized at the emitter. The ionized fluid is drawn electrostatically to the lower-voltage collector, which, through collision with molecules that in turn impart their momentum, creates a flow of the working fluid. This approach may be used with either positive or negative corona devices.

Abstract: A sanitizing device includes an enclosed chamber, an ionic air mover and a closed recirculation path. The chamber is designed to contain the object to be sanitized. For example, if the object is a mobile phone (or other portable electronics or small objects), the chamber may have the same approximate shape as the mobile phone. The chamber may contain a lid that is opened to allow insertion of the mobile phone into the chamber and then closed with a good seal to create an enclosed chamber with low leakage. The ionic air mover performs two functions. It creates an air flow through the use of corona discharge. It also ionizes oxygen to create ozone that will be used to sanitize the object of interest.

Abstract: The present invention is a directed to an integrated ionic air mover that provides air flow rates through an opening within the a printed circuit board (PCB), or other similar insulating surface, to create the structure of the air mover, so that high heat generating components mounted on the PCB can be cooled. The ionic air mover has sharp and blunt electrodes with a corona discharge taking place in the air gap in between the electrodes. A directional emission of the ions creates an ionic wind the moves air through the PCB. The invention provides a low-cost structure, while achieving high electro-air flow power conversion efficiency and air-flow performance integrated into the PCB that the heat generating components are mounted on. The ionic air mover may also be surface mounted to a PCB and include a transmittal coil for wireless charging.

Abstract: A charging device includes a charging assembly for imparting a charge on a mobile device, a housing for receiving the mobile device to be charged, and for defining a cavity therein for housing the charging assembly. There is at least one air intake port in the housing for allowing air to be drawn into the cavity and at least one air exhaust port in the housing for allowing air to be exhausted from the cavity. There is an ionic wind generator, for generating an airstream to draw air into the housing through the at least one air intake port, through the cavity, and push air out of the housing through the at least one air exhaust port. The ionic wind generator comprises an emitter and a collector, such that when a voltage is applied to the emitter, air ionizes around the emitter and is drawn toward the collector, thereby creating the airstream.

Abstract: A charging device includes a charging assembly for imparting a charge on a mobile device, a housing for receiving the mobile device to be charged, and for defining a cavity therein for housing the charging assembly. There is at least one air intake port in the housing for allowing air to be drawn into the cavity and at least one air exhaust port in the housing for allowing air to be exhausted from the cavity. There is an ionic wind generator, for generating an airstream to draw air into the housing through the at least one air intake port, through the cavity, and push air out of the housing through the at least one air exhaust port. The ionic wind generator comprises an emitter and a collector, such that when a voltage is applied to the emitter, air ionizes around the emitter and is drawn toward the collector, thereby creating the airstream.

Abstract: A charging device includes a charging assembly for imparting a charge on a mobile device, a housing for receiving the mobile device to be charged, and for defining a cavity therein for housing the charging assembly. There is at least one air intake port in the housing for allowing air to be drawn into the cavity and at least one air exhaust port in the housing for allowing air to be exhausted from the cavity. There is an ionic wind generator, for generating an airstream to draw air into the housing through the at least one air intake port, through the cavity, and push air out of the housing through the at least one air exhaust port. The ionic wind generator comprises an emitter and a collector, such that when a voltage is applied to the emitter, air ionizes around the emitter and is drawn toward the collector, thereby creating the airstream.

Abstract: An apparatus for cooling a portable electronic device during use includes a first cavity having an intake port for drawing air into the first cavity and a second cavity proximate the first cavity having an output port, wherein upon installation of a portable electronic device, a surface of the portable electronic device defines a portion the second cavity. An ionic wind generator separates the first cavity and the second cavity, and generates an airstream to draw air into the intake port, wherein the airstream passes between the first cavity and the second cavity to be directed upon the surface of the electronic device, and exhausted through the output port thereby dissipating heat generated by the portable electronic device.

Abstract: A head suspension assembly including a load beam having predefined gluing regions for gluing a bundle of wires thereto. For each gluing region, the load beam is partially-etched with the pattern that includes a plurality of grooves. Preferably, the pattern within the gluing region includes a set of parallel grooves. The gluing regions can be formed at very little cost because partial etching can be performed simultaneously etching other features on the load beam. Advantageously, the gluing regions provide enhanced adhesion between the wires and the load beam which reduces the possibility of failure during manufacture, thereby reducing costs.

Abstract: A head suspension assembly includes a load beam having predefined gluing regions for gluing a bundle of wires thereto. For each gluing region, the load beam is partially-etched with the pattern that includes a plurality of grooves. Preferably, the pattern within the gluing region includes a set of parallel grooves. The gluing regions can be formed at very little cost because partial etching can be performed while simultaneously etching other features on the load beam. Advantageously, the gluing regions provide enhanced adhesion between the wires and the load beam which reduces the possibility of failure during manufacture, thereby reducing costs.