Abstract: A dynamically corrected parallax system includes a head borne video source for imaging an object and providing video data. A controller electronically offsets the video data provided from the head borne video source to form offset video data. A display device receives the offset video data and displays the offset video data to a user's eye. The display device is configured for placement directly in front of the user's eye as a vision aid, and the head borne video source is configured for displacement to a side of the user's eye. The offset video data corrects parallax due to horizontal and/or vertical displacement between the display device and the head borne video source.

Abstract: A dynamically corrected parallax system includes a head borne video source for imaging an object and providing video data. A controller electronically offsets the video data provided from the head borne video source to form offset video data. A display device receives the offset video data and displays the offset video data to a user's eye. The display device is configured for placement directly in front of the user's eye as a vision aid, and the head borne video source is configured for displacement to a side of the user's eye. The offset video data corrects parallax due to horizontal and/or vertical displacement between the display device and the head borne video source. The display device includes an X,Y array of respective columns and rows of pixels, and the offset video data includes an offset of a number of columns of pixels in the X direction of the X,Y array, and/or another offset of a number of rows of pixels in the Y direction of the X,Y array.

Abstract: A mounting assembly for a vision enhancement device and associated vision enhancement display, the assembly comprising a display mounted to an arm positionable in front of the user's eye, a base member for receiving a cradle for the vision enhancement device and for attaching to a head-mounting platform, and one or more intermediate members for connecting the arm to the cradle. In one embodiment, the mounting system comprises one or more mechanisms for aligning the display optical axis with the vision enhancement device optical axis and with the user's line of sight, one or more mechanisms for orienting the vision enhancement device within multiple degrees of freedom without changing the alignment of the display optical axis with the device optical axis, and one or more mechanisms for toggling the display between an in-use position to at least one storage position, and, optionally, between right eye and left eye positions.

Abstract: An optical device for viewing an image is provided. The optical device comprises a plurality of optical channels positioned adjacent one another, each optical channel having an image detector and a complimentary objective lens spaced by a respective distance. A focusing mechanism is coupled to the optical device and configured to simultaneously adjust the respective distance between the image detector and the objective lens of each optical channel.

Abstract: A headmount apparatus for mounting vision enhancement equipment thereon which is comprised of a mounting shell having at least one pad and having at least one mounting surface to which the vision enhancing equipment is mounted, where at least one pad is configured to contact the user's head. The headmount apparatus is also comprised of at least one elastic strap which is attached to the mounting shell for securing the mounting shell to the user's head. The headmount apparatus for mounting vision enhancement equipment thereon could alternatively be comprised of at least one mounting frame for attaching vision enhancement equipment, at least one hardware mounting surface for accepting the mounting frame, and a hood configured to fit over a user's head where the hood is made at least in part from an elastic material and which contains the hardware mounting surface.

Abstract: A method of mounting a fiber optic unit to a photosensor. The photosensor is mounted to a first carrier. A first end of the fiber optic unit is bonded to the photosensor to create a joint between the fiber optic unit and the photosensor. A second end of the fiber optic unit is mounted to a second carrier. The joint between the fiber optic unit and the photosensor is compressed. This compressing step strengthens the bond between the fiber optic unit and the photosensor.

Abstract: A headmount apparatus for mounting vision enhancement equipment thereon which is comprised of a mounting shell having at least one pad and having at least one mounting surface to which the vision enhancing equipment is mounted, where at least one pad is configured to contact the user's head. The headmount apparatus is also comprised of at least one elastic strap which is attached to the mounting shell for securing the mounting shell to the user's head. The headmount apparatus for mounting vision enhancement equipment thereon could alternatively be comprised of at least one mounting frame for attaching vision enhancement equipment, at least one hardware mounting surface for accepting the mounting frame, and a hood configured to fit over a user's head where the hood is made at least in part from an elastic material and which contains the hardware mounting surface.

Abstract: A headmount apparatus for mounting vision enhancement equipment thereon which is comprised of a mounting shell having at least one pad, and having at least one mounting surface to which the vision enhancing equipment is mounted, where the pad is configured to contact the subject's head. The headmount apparatus also contains at least one strap attached to the mounting shell for securing the mounting shell to the subject's head, and contains an occipital assembly which is positioned at the occiput of the subject's head, where the occipital assembly is attached by the strap to the mounting shell and is used to adjust the tension in the strap.

Abstract: A headmount apparatus for mounting vision enhancement equipment thereon which is comprised of a mounting shell having at least one pad, and having at least one mounting surface to which the vision enhancing equipment is mounted, where the pad is configured to contact the subject's head. The headmount apparatus also contains at least one strap attached to the mounting shell for securing the mounting shell to the subject's head, and contains an occipital assembly which is positioned at the occiput of the subject's head, where the occipital assembly is attached by the strap to the mounting shell and is used to adjust the tension in the strap.

Abstract: A headmount apparatus for mounting vision enhancement equipment thereon which is comprised of a mounting shell having at least one pad and having at least one mounting surface to which the vision enhancing equipment is mounted, where at least one pad is configured to contact the user's head. The headmount apparatus is also comprised of at least one elastic strap which is attached to the mounting shell for securing the mounting shell to the user's head. The headmount apparatus for mounting vision enhancement equipment thereon could alternatively be comprised of at least one mounting frame for attaching vision enhancement equipment, at least one hardware mounting surface for accepting the mounting frame, and a hood configured to fit over a user's head where the hood is made at least in part from an elastic material and which contains the hardware mounting surface.

Abstract: A man portable video enhanced night vision goggle comprised of a head mount assembly, an image intensified video camera, and a display. A thermal camera may also be provided and the images from the video camera and the thermal camera may be electronically fused on the display.