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John Harold
John Harold Hanlin, Louisville, CO US
| Patent application number | Description | Published |
|---|---|---|
| 20100198081 | Scanning light imager - This invention describes the detection of atherosclerotic plaque or cancer cells by a light probe inside a blood vessel or internal to an elongate organ. In one embodiment, vessel wall is imaged by employing a scanning mechanism using one emitting and one receiving fiber, whereby light is directed at a spinning mirror, approximately normal to the vessel or elongate organ surface. The light is reflected circumferentially around the vessel or elongate organ surface as the mirror rotates and received by a low-numerical aperture (NA) fiber, which transmits it to a light detector, thereby generating a set of light amplitudes circumferentially around the vessel/elongate organ surface. Multiple rings are acquired by translating the probe within the vessel/elongate organ. In another embodiment, adding a piezoelectric transducer in proximity to the distal ends of the fibers permits simultaneous ultrasound and light images to be created. | 08-05-2010 |
John Harold Hipwell, Lewissham GB
| Patent application number | Description | Published |
|---|---|---|
| 20090129650 | SYSTEM FOR PRESENTING PROJECTION IMAGE INFORMATION - A system and method are disclosed for presenting projection image information, including a first image generating module or step, for generating a first image representing a first projection of a three-dimensional object; a second image generating module or step, for generating a second image representing a second projection of the three-dimensional object; an image display module or step, for displaying the first and second images; a region selection module or step, for selecting a first region in the first image; a correspondence module or step, for determining a second region in the second image that corresponds to the first region; and a marking module or step, for displaying a first mark on the first image to identify the first region, and a second mark on the second image to identify the corresponding second region. | 05-21-2009 |
John Harold Nardine, Glen Head, NY US
| Patent application number | Description | Published |
|---|---|---|
| 20080236503 | Precision Watering Method and Apparatus - A method and apparatus for accurately dispensing, monitoring, quantifying, and controlling liquids provided to one or more animals. In some embodiments, a standalone apparatus having a local user interface is coupled to a liquid source and drinking assembly to monitor, quantify, and control the liquid consumption of one or more specific animals. In other embodiments, multiple standalone apparatuses are each coupled to a liquid source and a respective drinking assembly to monitor, quantify, and control the liquid consumed through the respective drinking assembly. In this scenario, each of the standalone apparatuses shares one or more common remote user interface panels. In yet another embodiment, standalone apparatuses are networked to other standalone apparatuses. User workstations and central control panels resident on the watering apparatus network, or a third-party network interfaced to the network, allow liquid consumption to be monitored, controlled, and quantified both locally and remotely. | 10-02-2008 |
John Harold Nardine, Iii, Glen Head, NY US
| Patent application number | Description | Published |
|---|---|---|
| 20090235869 | Precision Watering Method and Apparatus - A method and apparatus for accurately dispensing, monitoring, quantifying, and controlling liquids provided to one or more animals. In some embodiments, a standalone apparatus having a local user interface is coupled to a liquid source and drinking assembly to monitor, quantify, and control the liquid consumption of one or more specific animals. In other embodiments, multiple standalone apparatuses are each coupled to a liquid source and a respective drinking assembly to monitor, quantify, and control the liquid consumed through the respective drinking assembly. In this scenario, each of the standalone apparatuses shares one or more common remote user interface panels. In yet another embodiment, standalone apparatuses are networked to other standalone apparatuses. User workstations and central control panels resident on the watering apparatus network, or a third-party network interfaced to the network, allow liquid consumption to be monitored, controlled, and quantified both locally and remotely. | 09-24-2009 |