40results about How to "Large imaging area" patented technology

A solid-state imaging element 2 having a light-receiving portion where a plurality of photoelectric conversion elements 21 are arranged, and electrode pads 22 electrically connected to the photoelectric conversion elements 21 is mounted on a substrate 1. A scintillator 3 is formed on the surface of the light-receiving portion of the solid-state imaging element. Around a support surface 10 where the solid-state imaging element 2 of the substrate 1 is mounted, holding portions 14 and 15 are formed on opposing side walls to hold and project the surface of the light-receiving portion from a vapor deposition holder toward a vapor deposition chamber in forming the scintillator 3.

Apparatus and method for the display of autostereoscopic images, in which two or more perspective views are generated by a single transmissive display screen is provided. A structured light source behind the screen directs light through different sets of display elements to correspondingly different viewing zones. The structured light source includes two crossed arrays of cylindrical convergent optical elements, two linear arrays of polarisation altering elements which, in conjunction with the convergent arrays and the first polariser of the LCD, prevent light from passing through a particular set of display elements and reaching the wrong viewing zone. In some variations, one or both of the polarisation altering arrays may be programmed. Observer co-ordinate data permits the correct viewing zone to be co-located with each of the observer's corresponding eyes and includes devices for accommodating changes in the observer's distance from the display. The displayed image adapts to the observer's location. All or part of the display may provide conventional two-dimensional images at the screen's full resolution.

A solid-state imaging element 2 having a light-receiving portion where a plurality of photoelectric conversion elements 21 are arranged, and electrode pads 22 electrically connected to the photoelectric conversion elements 21 is mounted on a substrate 1. A scintillator 3 is formed on the surface of the light-receiving portion of the solid-state imaging element. Around a support surface wherein the solid-state imaging element 2 of the substrate 1 is mounted, positioning portions 14 to 16 are formed, which project higher than the support surface and position the solid-state imaging element 2 with side walls. The top surfaces of these positioning portions are formed such that a light-receiving surface 2a of the solid-state imaging element 2 is higher than the top surfaces.

An image device, such as a digital camera, detects specific repeating patterns of signal variations by processing columnar information from the device's two-dimensional sensor array used to generate images. In one embodiment, the columnar information is derived from calculating row averages for two image frames, with each row average being a computed average of the multiple signal intensities generated from some or all of the sensors within a particular row. After the columnar information is determined for each of the two frames, a difference signal is generated as a sequence of the differences between the row averages for the first frame and the row averages for the second frame. This row averaging and frame differencing removes a large percentage of the signal energy that is not a result of the artifact of interest, such as the flicker generated by illumination having intensity fluctuations at 100 Hz or at 120 Hz. In some embodiments of the invention, the row averaging and / or the frame-to-frame comparison are deleted.

A solid-state imaging element 2 having a light-receiving portion where a plurality of photoelectric conversion elements 21 are arranged, and electrode pads 22 electrically connected to the photoelectric conversion elements 21 is mounted on a substrate 1 having external connection electrodes 12 and electrode pads 11 electrically connected to them. A scintillator 3 is formed on the surface of the light-receiving portion of the solid-state imaging element 2. The electrodes pads 11 and 22 are electrically connected by wiring lines 4. An electrical insulating organic film 51 tightly seals the scintillator 3 and covers the electrode pads 11 and 22 and the wiring lines 4. A metal thin film 52 is formed on the organic film 51.

An imaging optical lens system includes six lens elements, the six lens elements being, in order from an object side to an image side, a first lens element, a second lens element, a third lens element, a fourth lens element, a fifth lens element and a sixth lens element. The first lens element has positive refractive power. The third lens element has an image-side surface being concave in a paraxial region thereof. The fifth lens element has an object-side surface and an image-side surface being both aspheric. The sixth lens element has an image-side surface being concave in a paraxial region thereof, wherein an object-side surface and the image-side surface of the sixth lens element are both aspheric, and the image-side surface of the sixth lens element includes at least one convex critical point in an off-axial region thereof.

A computational holographic three-dimensional (3D) display system and method based on a spliced ​​array of spatial light modulators (hereinafter referred to as SLMs), the system comprising: a seamless spliced ​​array of SLMs, a holographic image magnification and viewing angle expansion system, and an illumination system. The SLMs seamless splicing array is formed by splicing a series of single SLM display chips through the principle of mirroring. After splicing, the corresponding edges of the effective display surfaces of each display chip are seamlessly connected, and the edges of each component do not block the incident light. Its function is that the wide-width hologram that meets the requirements of 3D display can be used as a writing signal to spatially modulate the light incident on the SLMs spliced ​​array for holographic reconstruction; the image magnification system consists of an imaging lens, a field lens and a holographic The directional screen is used to magnify the reconstructed image of the computational hologram and expand the field of view; the illumination system provides the writing light incident on the SLMs splicing array, which is a light group composed of a spherical lens and a cylindrical lens. The design goal is to maximize the holographic reconstructed image, make full use of light energy and improve the brightness of the reconstructed image.

The invention provides a time-resolved extreme-low-light multispectral imaging system and method and belongs to the field of extreme-low-light multispectral imaging, wherein the system is triggered through a trigger to ensure the time-resolved property, and the multispectral high-resolution two-dimensional color imaging for extreme-low-light objects is realized by combining a triggering technology of the trigger, the compressive sensing theory, a DLP (digital light processing) technology, a spectrum-dividing technology, an optical fiber coupling technology and a photon counter linear array detection technology; the system is composed of an extreme-low-light light source or self-luminous organisms, the trigger, an optical filter, an optical imaging system, a DMD (digital mirror device) micromirror array, an optical focussing and collecting system, a spectrophotometer, a photo counter lineary array consisting of a plurality of photon counters with different wavelengths, a driving control module and an optimization algorithm module; the sensitivity of the system can reach the level of a photon, and can be widely applied to the fields of self-luminous organism detection, medical treatment imaging, data acquisition, communication, astronomy, military, hyperspectral imaging, measurement in quantum mechanics and the like.

The invention provides an object detection method, a system and a stereoscopic vision system; wherein the method comprises the following steps: determining the diameter of the dispersed spot of a lens; adjusting image distance to a defocusing state according to the diameter of the dispersed spot; adjusting image distance of the lens, increasing imaging area of the object, increasing detection range of the object to facilitate the camera to collect images under the state of dispersed spot; as the dispersed spot facilitates recognition area to rise and pixel to increase, as a result, influence of interfering pixel is reduced, meanwhile, precision of calculated sub-pixel level areal coordinate is improved.