Abstract: Disclosed are near-eye displaying methods and systems capable of multiple depths of field imaging. The method comprises two steps. At a first step, one or more pixels of a self-emissive display emit a light to a collimator such that the light passing through the collimator is collimated to form a collimated light. At a second step, the self-emissive display provides at least one collimated light direction altering unit on a path of the light from the collimator to change direction of the collimated light to enable the collimated light from at least two pixels to intersect and focus at a different location so as to vary a depth of field.

Abstract: A system and method for displaying a 3D image with depths, which utilize at least one light signal generator to sequentially generate multiple light signals(S100) and at least one optical assembly to receive the multiple light signals from the at least one light signal generator, and project and scan the multiple light signals within a predetermined time period to display the 3D image in space(S200). Each pixel of the 3D image is displayed at a position by at least two of the multiple light signals to a viewer's eye, paths or extensions of the paths of the at least two light signals intersects at the position and at an angle associated with a depth of the pixel, and the predetermined time period is one eighteenth of a second. Accordingly, the advantages of simplified structure, a miniatured size, and a less costly building cost can be ensured.

Abstract: A system and method for displaying a 3D image with depths, which utilize at least one light signal generator to sequentially generate multiple light signals(S100) and at least one optical assembly to receive the multiple light signals from the at least one light signal generator, and project and scan the multiple light signals within a predetermined time period to display the 3D image in space(S200). Each pixel of the 3D image is displayed at a position by at least two of the multiple light signals to a viewer's eye, paths or extensions of the paths of the at least two light signals intersects at the position and at an angle associated with a depth of the pixel, and the predetermined time period is one eighteenth of a second. Accordingly, the advantages of simplified structure, a miniatured size, and a less costly building cost can be ensured.

Abstract: Disclosed are near-eye displaying methods and systems capable of multiple depths of field imaging. The method comprises two steps. At a first step, one or more pixels of a self-emissive display emit a light to a collimator such that the light passing through the collimator is collimated to form a collimated light. At a second step, the self-emissive display provides at least one collimated light direction altering unit on a path of the light from the collimator to change direction of the collimated light to enable the collimated light from at least two pixels to intersect and focus at a different location so as to vary a depth of field.

Abstract: Disclosed is a display assembly which comprises a substrate, a plurality of light emitting units, a transistor unit and a capacitor unit corresponding to each of the plurality of light emitting units. Each of the plurality of light emitting units is electrically coupled to the corresponding transistor unit and the capacitor unit, all of which are independently provided on a side of the substrate. A spacing between each of the plurality of light emitting units is at least two times of a first threshold length.

Abstract: A method for adjusting photographic images is disclosed, comprising, upon photographing an image by means of a photographic lens, detecting the intensity of the ambient light in the environment, sequentially projecting the light source of different color to a photographic object with an active light source, and acquiring different reflection feedback values according to the projected light source of different colors; then, based on the intensity of the ambient light and the intensity range of light source projected on the photographic object from the active light source, performing adjustments on the acquired photographic image. In this way, in an environment where the light source is weak or insufficient, after the adjustments, it is possible to present an image resolution that the image should demonstrate in an environment having normal light sources, and for the nocturnal photography, by processing the image of dimmer peripheries, it is further possible to present a colorful and clear image.

Abstract: An eyeglasses structure enabling image enhancement comprises a frame body, two lens bodies jointed with the frame body, at least two transparent displays and at least one or else more than one image capture devices, wherein the interior of the frame body is connected to a processor used to perform image clarification processes on the image captured by the image capture device and forwardly extended from the frame body in order to improve its resolution, and also output the synchronously clarified image to the transparent display such that the image actually seen by the eyeball of a user through the lens body can overlap with the synchronously clarified image shown on the two transparent displays thereby sharpening the scenery image observed by the eyeball of the user through the lens body.

Abstract: A method for adjusting photographic images is disclosed, comprising, upon photographing an image by means of a photographic lens, detecting the intensity of the ambient light in the environment, sequentially projecting the light source of different color to a photographic object with an active light source, and acquiring different reflection feedback values according to the projected light source of different colors; then, based on the intensity of the ambient light and the intensity range of light source projected on the photographic object from the active light source, performing adjustments on the acquired photographic image. In this way, in an environment where the light source is weak or insufficient, after the adjustments, it is possible to present an image resolution that the image should demonstrate in an environment having normal light sources, and for the nocturnal photography, by processing the image of dimmer peripheries, it is further possible to present a colorful and clear image.

Abstract: An eyeglasses structure enabling image enhancement comprises a frame body, two lens bodies jointed with the frame body, at least two transparent displays and at least one or else more than one image capture devices, wherein the interior of the frame body is connected to a processor used to perform image clarification processes on the image captured by the image capture device and forwardly extended from the frame body in order to improve its resolution, and also output the synchronously clarified image to the transparent display such that the image actually seen by the eyeball of a user through the lens body can overlap with the synchronously clarified image shown on the two transparent displays thereby sharpening the scenery image observed by the eyeball of the user through the lens body.