Abstract: A device and method for forming NO-containing gas flow to treat a biological object is disclosed. The device may include an anode, a cathode, an interelectrode area between the cathode and the anode, an NO-containing gas flow outlet channel leading from the interelectrode area to a nozzle for directing and releasing the NO-containing gas flow from the device and a mechanism to adjust a relative position between the anode and the cathode to produce varying concentrations of NO. In addition, the device may include one or more features for interconnecting the various components to ensure proper and consistent assembly of the device.

Abstract: A system for providing a NO-containing gas flow to treat a biological object. The system includes a nozzle receptacle for receiving NO-rich air from a plasma-generated NO source, tubing coupled to the nozzle for directing the NO-rich air to a scrubber, the scrubber configured to receive a solvent for absorbing NO2, tubing coupled between the scrubber and a gas mixer for directing scrubbed NO-rich air to the gas mixer, where the gas mixer is coupled to a source of atmospheric air for selectively mixing the scrubbed NO-rich air with the atmospheric air to create diluted NO-containing air; and a manifold for distributing the diluted NO-containing air to a plurality of patient locations.

Abstract: A device and method for forming NO-containing gas flow to treat a biological object is disclosed. The device may include an anode, a cathode, an interelectrode area between the cathode and the anode, an NO-containing gas flow outlet channel leading from the interelectrode area to a nozzle for directing and releasing the NO-containing gas flow from the device and a mechanism to adjust a relative position between the anode and the cathode to produce varying concentrations of NO. In addition, the device may include one or more features for interconnecting the various components to ensure proper and consistent assembly of the device.

Abstract: A device and method for forming NO-containing gas flow to treat a biological object is disclosed. The device may include an anode, a cathode, an interelectrode area between the cathode and the anode, an NO-containing gas flow outlet channel leading from the interelectrode area to a nozzle for directing and releasing the NO-containing gas flow from the device and a mechanism to adjust a relative position between the anode and the cathode to produce varying concentrations of NO. In addition, the device may include one or more features for interconnecting the various components to ensure proper and consistent assembly of the device.

Abstract: A cryogen refilling system includes a reservoir assembly for holding cryogen and a delivery channel in fluid communication with the reservoir assembly for delivering cryogen from the reservoir assembly to a microscope cryogen holder. The delivery channel includes at least one control valve. The system also includes a sensor-lid assembly and a controller. The sensor-lid assembly includes a sensor assembly configured to detect a level of cryogen in the microscope cryogen holder. The controller is configured to receive sensor data from the sensor assembly, analyze the sensor data to determine whether the microscope cryogen holder requires refilling, and in response to determining that the microscope cryogen holder requires refilling, cause a valve control mechanism to open the at least one control valve of the delivery channel.

Abstract: A device for generating and delivering Nitric Oxide (NO) to a treatment site includes a main unit, an applicator, a connector hose, and a mobile stand. The main unit provides power and a gas to the applicator via the connector hose. The applicator includes a plasma generator for generating NO in a plasma state. The main unit including a user interface to enable a user to control at least one operational aspect of the device. The applicator includes a pistol grip handle, a trigger for actuating the plasma generator, a hose connection for coupling to the connector hose, and a cowl portion for spacing a tip of the plasma generator at a predetermined distance from a treatment site. Sensors are provided with the applicator for sending feedback and monitoring application site temperature, proximity to the application, applicator motion and the like.

Abstract: Veterinary methods for administering nitric oxide (NO) in a plasma state to a treatment site associated with an animal are disclosed. A discrete stream of matter is placed in a plasma state, in which the stream has, as part of its content, a desired concentration of NO. The discrete stream of matter is directed at a site of action associated with an animal to achieve a therapeutic result. A method for decontamination of veterinary equipment with NO in a plasma state is also disclosed.

Abstract: A device and method for forming NO-containing gas flow to treat a biological object is disclosed. The device may include an anode, a cathode, an interelectrode area between the cathode and the anode, an NO-containing gas flow outlet channel leading from the interelectrode area to a nozzle for directing and releasing the NO-containing gas flow from the device and a mechanism to adjust a relative position between the anode and the cathode to produce varying concentrations of NO. In addition, the device may include one or more features for interconnecting the various components to ensure proper and consistent assembly of the device.

Abstract: An apparatus for treating a biologic object includes a device for forming NO-containing gas flow to treat the biologic object and a plasma cooling mechanism coupled to a distal end of the device. The plasma cooling mechanism may include a cooling member and/or a cooling apparatus. The cooling member is coupled to a distal end of the device and includes a fluid conduit and a cooling chamber surrounding the fluid conduit. The cooling apparatus is coupled to a distal end of the cooling member so that the NO-containing gas flow travels from a discharge aperture formed in the device through the fluid conduit and passed the cooling apparatus before reaching the biologic object.

Abstract: A device for generating and delivering Nitric Oxide (NO) to a treatment site includes a main unit, an applicator, a connector hose, and a mobile stand. The main unit provides power and a gas to the applicator via the connector hose. The applicator includes a plasma generator for generating NO in a plasma state. The main unit including a user interface to enable a user to control at least one operational aspect of the device. The applicator includes a pistol grip handle, a trigger for actuating the plasma generator, a hose connection for coupling to the connector hose, and a cowl portion for spacing a tip of the plasma generator at a predetermined distance from a treatment site. Sensors are provided with the applicator for sending feedback and monitoring application site temperature, proximity to the application, applicator motion and the like.

Abstract: Veterinary methods for administering nitric oxide (NO) in a plasma state to a treatment site associated with an animal are disclosed. A discrete stream of matter is placed in a plasma state, in which the stream has, as part of its content, a desired concentration of NO. The discrete stream of matter is directed at a site of action associated with an animal to achieve a therapeutic result. A method for decontamination of veterinary equipment with NO in a plasma state is also disclosed.

Abstract: A suspension system for a differential-pressure touch sensitive panel suspended over force sensors, for use in either fixed or mobile devices such as point of sales terminals, kiosks, laptops, monitors, PDAs, cell phones, UMPCs and more. In one embodiment, a number of leaf springs are attached directly to the touch lens at both ends and attached directly to the underlying housing at the center, effectively pulling the leaf spring down at the center into a concave arc. The spring bias preloads the touch lens downward against the force sensors. The leaf springs bring the touch lens into a fixed state in the xy-plane and resist translation; however, the touch lens remains free to float against the bias of the leaf spring(s) without any frictional physical contact along the z-axis.

Abstract: A paper clip is formed with a base length of wire and integral legs at opposite ends of the base length. The legs are bent so they cross at a location spaced from the base length and are resiliently contiguous where they cross. At least one of the outer end portions of the legs is bent in a direction so the outer tips of the legs will engage the opposite surfaces of a stack of sheets held between the legs.

Abstract: A touch screen assembly for an electronic device such as a cell phone or PDA. The touch screen assembly generally comprises a floating lens suspended over the display and, optionally, the keypad to allow a degree of freedom. An underlying thin connecting layer such as a flex film is attached beneath the floating lens, and a plurality (for example, four) differentially-mounted pressure sensors are mounted beneath the floating lens and are electrically connected to the electronic device via the flex film. The pressure sensors are differentially positioned along an x- and y-axis for registering a pressure z from a touch to the lens at each of the four positions, to provide four data sets (x1-4, y1-4, z1-4). Control software then interprets the exact touch-coordinate from the four data sets and generates a control signal. An optional haptic response generator and/or motion sensor are also contemplated.

Abstract: A suspension system for a differential-pressure touch sensitive panel suspended over force sensors, for use in either fixed or mobile devices such as point of sales terminals, kiosks, laptops, monitors, PDAs, cell phones, UMPCs and more. In one embodiment, each side of the lens is encircled and supported by a looped string, monofilament or flexible wire, which is then looped around the back cover or base plate, forming a figure-8. The figure 8-loops bring the lens into a fixed state in the xy-plane without the addition of any friction causing physical contact. Other alternative implementations include continuous suspensions, bender suspensions and 3-dimensional force suspensions. Moreover, the present invention proposes the use of a flexible padding under the force sensors to allow the sensors to be slightly preloaded, which reduces the dependency on extremely tight mechanical tolerances.

Abstract: A software compensation method that allows a touch sensitive display to be built using low-cost FSR force sensors The compensation method comprises an array of functional compensation modules including filtering, voltage conversion, temperature compensation, humidity compensation, sensor calibration, sensor reading linearization, auto calibration, positioning determination and finally end-user and mechanical calibration. The array of compensation modules can bring system accuracy from a non-compensated average positioning error in the 25% to 50% range, down to aN end-user acceptable range of 0% to 5%. The increased positioning accuracy makes it possible to use FSRs as opposed to traditional piezoresistive based touch screen sensors.

Abstract: A golf club head is provided with a center of gravity positioned within a partial ellipsoid defined in an impact reference frame that has its origin at the hit center of the face of the golf club head. The majority of the partial ellipsoid is located toward the golfer from the hit center and all of the partial ellipsoid is below the hit center in the impact reference frame.

Abstract: A golf club head is provided with a center of gravity positioned within a partial ellipsoid defined in an impact reference frame that has its origin at the hit center of the face of the golf club head. The majority of the partial ellipsoid is located toward the golfer from the hit center and all of the partial ellipsoid is below the hit center in the impact reference frame.