Abstract: A method of increasing bone marrow stem cells in the blood stream, and targeting those stem cells toward specific damaged or diseased organs in the body so that the tissue in these organs might be repaired. The method comprises ingestion of a claimed formulation having effective amounts of Aphanizomenon flos-aquae and fucoidan being released into the blood stream over a measured period of time, and during that period, irradiating the ribs, skull, vertebrae, or pelvic bones, as well as the damaged or diseased area with low-level laser therapy. The combination of ingesting the formulation and the low-level laser therapy causes the release of bone marrow pluripotent stem cells, which then transform into the targeted tissue cells, thereby repairing the damaged or diseased tissue.

Abstract: A method of producing a holographic screen for reconstruction of uniformly magnified three-dimensional images from projected integral photographs. The screen is produced as an array of holographic imaging elements whose center distances and focal lengths have been scaled-up uniformly by the magnification factor. In the preferred embodiment, when illuminated with a white light reference beam, the screen reconstructs a linear array comprising an alternating series of red, green, and blue vertical lines. However, when an enlarged integral photograph representative of a three-dimensional scene is correctly projected onto the screen, a uniformly magnified three-dimensional image of that scene is reconstructed. The screen may be manufactured as rectangular tiles that are assembled to form the entire screen.

Abstract: A system and method that produces a uniformly magnified three-dimensional image of a three-dimensional scene. The system and method use integral photography along with a scaling-up process for magnification. In one embodiment, an integral photograph representative of a three-dimensional scene is created using an input imaging array. The integral photograph is enlarged by a magnification factor. A uniformly magnified three-dimensional image is reconstructed using an output imaging array that has been scaled-up from the first input array by the magnification factor according to the scaling-up process. In a second embodiment, no input array is used. Instead, a prepared integral frame representative of the three-dimensional scene is presented for magnification. In an embodiment, the integral frame is drawn, printed, or electronically prepared by geometric projection with the same properties as though a magnified three-dimensional scene were to be presented to a virtual imaging array (i.e., using ray tracing).

Abstract: The three-dimensional system discloses screens (12, 16) that produce magnified three-dimensional images (6) that can be projected before large audiences who can view said images without special glasses or viewing aids. The screens disclosed therein are active optical systems which, together with the projection optics, serve to reconstruct and present to the audience the same light waves as though the three-dimensional scene actually exists. The present invention discloses improved screens for this system as well as methods of manufacturing said improved screens.

Abstract: A system for the production of a second three-dimensional image magnified from a first three-dimensional image in substantially the same proportions, including a first active optical system for creating from the three-dimensional image, a first two-dimensional array. The array is comprised of two-dimensional elemental images. The first active optical system has a number of elements which is equal to the number of elemental images in the array. The configuration of the elements of the first active optical system corresponds to the configuration of the elemental images in the array. The first array is magnified equally in all directions to create a second two-dimensional array comprised also of two-dimensional elemental images. A second active optical system reconstructs a second three-dimensional image that is a magnification of the first three-dimensional image. The second active optical system has an F-number equal to the F-number of the first active optical system.

Abstract: A method of forming a three-dimensional orthoscopic image from a pseudoscopic image comprising preparing an integral photograph representing the pseudoscopic image, and reconstructing a three-dimensional image from that integral photograph. Since the reconstruction of a three-dimensional image from an integral photograph is pseudoscopic, and the original subject of the integral photograph is itself pseudoscopic, the reconstruction will be orthoscopic. The method uses optical and holographic fly's eye lens type arrays. The method also comprises manipulation of the elemental images of the integral photograph. An orthoscopic image will be produced if the horizontal order of the elemental images is reversed.

Abstract: A system and method for recording and reconstructing uniformly magnified three-dimensional images from digital representations of integral photographs. Several camera and projector embodiments are provided along with a means for direct transmission without projection to a special screen that reconstructs the three-dimensional images. This invention is particulary applicable to showing non-stereoscopic three-dimensional motion pictures that reconstruct from integral photographs or holograms that may be viewed without the need for special glasses.

Abstract: A Modular Integral Magnifier that produces a uniformly magnified orthoscopic three-dimensional image of an original three-dimensional scene. The optical elements to achieve this effect are always maintained in relative alignment and registration regardless of movement and temperature deformations. The modules may be used together to construct a large composite high resolution viewing aperture or screen for large audiences to observe the magnified three-dimensional image. It may be used with photography, videography, or optical imaging of live scenes. It may be used for both still-life and animated three-dimensional images.

Abstract: The three-dimensional system discloses screens (12, 16) that produce magnified three-dimensional images (6) that can be projected before large audiences who can view said images without special glasses or viewing aids. The screens disclosed therein are active optical systems which, together with the projection optics, serve to reconstruct and present to the audience the same light waves as though the three-dimensional scene actually exists. The present invention discloses improved screens for this system as well as methods of manufacturing said improved screens.

Abstract: A system for the production of a second three-dimensional image magnified from a first three-dimensional image in substantially the same proportions, including a first active optical system for creating from the three-dimensional image, a first two-dimensional array. The array is comprised of two-dimensional elemental images. The first active optical system has a number of elements which is equal to the number of elemental images in the array. The configuration of the elements of the first active optical system corresponds to the configuration of the elemental images in the array. The first array is magnified equally in all directions to create a second two-dimensional array comprised also of two-dimensional elemental images. A second active optical system reconstructs a second three-dimensional image that is a magnification of the first three-dimensional image. The second active optical system has an F-number equal to the F-number of the first active optical system.

Abstract: A system for the production of a second three-dimensional image magnified from a first three-dimensional image in substantially the same proportions, including a first active optical system for creating from the three-dimensional image, a first two-dimensional array. The array is comprised of two-dimensional elemental images. The first active optical system has a number of elements which is equal to the number of elemental images in the array. The configuration of the elements of the first active optical system corresponds to the configuration of the elemental images in the array. The first array is magnified equally in all directions to create a second two-dimensional array comprised also of two-dimensional elemental images. A second active optical system reconstructs a second three-dimensional image that is a magnification of the first three-dimensional image. The second active optical system has an F-number equal to the F-number of the first active optical system.

Abstract: A system for the production of a second three-dimensional image magnified from a first three-dimensional image in substantially the same proportions, including a first active optical system for creating from the threeimensional image, a first two-dimensional array. The array is comprised of two-dimensional elemental images. The first active optical system has a number of elements which is equal to the number of elemental images in the array. The configuration of the elements of the first active optical system corresponds to the configuration of the elemental images in the array. The first array is magnified equally in all directions to create a second two-dimensional array comprised also of two-dimensional elemental images. A second active optical system reconstructs a second three-dimensional image that is a magnification of the first three-dimensional image. The second active optical system has an F-number equal to the F-number of the first active optical s*stem.

Abstract: A system for the production of a second three-dimensional image magnified from a first three-dimensional image in substantially the same proportions, including a first active optical system for creating from the three-dimensional image, a first two-dimensional array. The array is comprised of two-dimensional elemental images. The first active optical system has a number of elements which is equal to the number of elemental images in the array. The configuration of the elements of the first active optical system corresponds to the configuration of the elemental images in the array. The first array is magnified equally in all directions to create a second two-dimensional array comprised also of two-dimensional elemental images. A second active optical system reconstructs a second three-dimensional image that is a magnification of the first three-dimensional image. The second active optical system has an F-number equal to the F-number of the first active optical system.