COMBINED RADIATIONLESS AUTOMATED THREE DIMENSIONAL PATIENT HABITUS IMAGING WITH SCINTIGRAPHY
An apparatus and method to map the body habitus, without the use of ionizing radiation, and to simultaneously track the position of an ionizing radiation imaging detector with respect to the body habitus map so that the radiotracer distribution of the patient can be fused with the body habitus map and thus provide an anatomical reference for the radiotracer distribution within the patient. A depth camera, capable of imaging a 3-dimensional surface, is attached to an ionizing radiation imaging detector where the relative position between the two is known.
1 . An apparatus, comprising:
a moveable gamma detector configured to collect an image of a distribution of gamma radiation being emitted from a three dimensional structure;
a depth camera configured to render a surface of said three dimensional structure;
a means for determining the position and angulations of the detector in relation to the depth camera;
a computational device that uses said surface rendering of said three dimensional structure as a fiducial to co-register the image of the distribution of gamma radiation being emitted from the three dimensional structure collected by the gamma detector to said surface; and
a display configured to display the co-registered image.
2 . The apparatus of claim 1 , wherein the moveable gamma-ray detector and the depth camera are fixed relative to one another, such that a universal translation can be applied to correlate the location of the gamma radiation being emitted to the body habitus map generated by the depth camera.
3 . The apparatus of claim 1 , wherein the moveable gamma-ray detector and the depth camera are movable relative to one another, wherein the apparatus includes a tracking arrangement configured to determine the relationship between the moveable gamma-ray detector and the depth camera, the computational device being in communication with the tracking arrangement and being configured to co-register the gamma-ray detector image with the body habitus map produced by the depth camera.
4 . The apparatus of claim 3 , wherein the tracking arrangement is based on optical, mechanical, or electromagnetic sensors.
5 . An apparatus, comprising:
a moveable detector configured to collect an image of a distribution of optical signals received from a three dimensional structure;
a depth camera configured to render a surface of said three dimensional structure;
a means for determining the position and angulations of the detector in relation to the depth camera;
a computational device that uses said surface rendering of said three dimensional structure as a fiducial to co-register the image of the distribution of optical signals received from a three dimensional structure collected by the detector to said surface; and
a display configured to display the co-registered image.
6 . The apparatus of claim 5 , wherein the detector is configured to collect an image of the distribution of optical fluorescence emitted from the three dimensional structure.
7 . The apparatus of claim 6 , wherein the computational device co-registers the image of the distribution of optical fluorescence emitted from the three dimensional surface collected by detector to said surface.
8 . The apparatus of claim 5 , wherein the detector is configured to collect an image of the distribution of visible light reflecting off the three dimensional structure.
9 . The apparatus of claim 8 , wherein the computational device co-registers the image of the distribution of visible light reflecting off the three dimensional surface collected by detector to said surface.
10 . The apparatus of claim 5 , wherein the moveable detector and the depth camera are fixed relative to one another, such that a universal translation can be applied to correlate the location of the optical signals being received to the body habitus map generated by the depth camera.
11 . The apparatus of claim 5 , wherein the moveable detector and the depth camera are movable relative to one another, wherein the apparatus includes a tracking arrangement configured to determine the relationship between the moveable detector and the depth camera, the computational device being in communication with the tracking arrangement and being configured to co-register the detector image with the body habitus map produced by the depth camera.
12 . The apparatus of claim 11 where the tracking arrangement is based on optical, mechanical, or electromagnetic sensors.
13 . An imaging method, comprising:
collecting, via a moveable gamma detector, an image of the distribution of gamma radiation being emitted from a three dimensional structure;
rendering, via a depth camera, the surface of said three dimensional structure;
determining the position and angulations of the detector in relation to the depth camera;
co-registering, via a computational device, the image of the distribution of gamma radiation being emitted from a three dimensional structure collected by the gamma detector to said surface by using said rendering of the surface of said three dimensional structure as a fiducial; and
displaying the co-registered image.
14 . The method of claim 13 , wherein the moveable detector and the depth camera are fixed relative to one another, such that a universal translation can be applied to correlate the location of the gamma radiation being emitted to the body habitus map generated by the depth camera.
15 . The method of claim 13 , wherein the moveable gamma-ray detector and the depth camera are movable relative to one another, wherein the apparatus includes a tracking arrangement configured to determine the relationship between the moveable gamma-ray detector and the depth camera, the computational device being in communication with the tracking arrangement and being configured to co-register the gamma-ray detector image with the body habitus map produced by the depth camera.
16 . The method of claim 15 , wherein the tracking arrangement is based on optical, mechanical, or electromagnetic sensors.