65 results about "Depth effect" patented technology

A system for creating the perception of visual depth in scenery comprising lateral movements. A polarizing projection filter 21 controls the plane of polarization of projected light. The plane of polarization is changed by changing the orientation of the polarizing projection filter. An observer wears special viewing glasses 22 with polarizing filters when viewing scenery illuminated by the polarizing projection filter. The plane of polarization of the polarizing viewing filter for the right eye 23 is rotated 45 degrees clockwise from horizontal. The plane of polarization of the polarizing viewing filter for the left eye 24 is rotated 45 degrees counterclockwise from horizontal. When the polarizing projection filter is rotated clockwise from horizontal the scenery appears brighter to an observer's right eye than to the observer's left eye. Objects moving laterally 42 from right to left from the observer's perspective appear closer to the observer 43. Objects moving from left to right appear farther away from the observer. When the polarizing projection filter is rotated counterclockwise from horizontal the scenery appears brighter to an observer's left eye than to the observer's right eye. Objects moving from right to left from the observer's perspective appear farther away from the observer. Objects moving from left to right appear closer to the observer. In the first and second embodiment of the invention, the scenery comprises polarized imagery projected on a viewing screen. In the third embodiment, the scenery comprises live scenes illuminated by polarized light. The scenery can be viewed in full color. The dead eye effect can be avoided by periodically changing the plane of polarization of the polarizing projection filter.

At least one graphene layer is formed to laterally surround a tube so that the basal plane of each graphene layer is tangential to the local surface of the tube on which the graphene layer is formed. An electrically conductive path is provided around the tube for providing high conductivity electrical path provided by the basal plane of each graphene layer. The high conductivity path can be employed for high frequency applications such as coupling coils for wireless power transmission to overcome skin depth effects and proximity effects prevalent in high frequency alternating current paths.

The invention discloses an image processing method and device, belonging to the technical field of image processing. The image processing method comprises the steps of constructing a face three-dimensional model of a target object; loading three-dimensional texture selected by a user onto the face three-dimensional model of the target object to obtain a three-dimensional model with the texture. According to the image processing method and device, by constructing the face three-dimensional model of the target object and loading the three-dimensional texture selected by the user onto the face three-dimensional model of the target object, as the three-dimensional texture is loaded into the face three-dimensional model, a depth effect is considered, so that scenes in real life can be well simulated to obtain a more realistic effect similar to face painting.

The invention discloses a method and system for correcting the depth effect of a positron emission tomography. The method includes the steps of establishing a multi-layer crystal response line model, obtaining actual conforming case data output by a PET detector, expanding the actual conforming case data to generate expansion response line data according to the multi-layer crystal response line model, and determining corrected response line data according to the expansion response line data. Through the method, after the depth effect of the detector is corrected for single-layer crystal PET data or few-layer crystal PET data, positioning of the space position of a reestablished image is more accurate, image radial and tangential space resolution ratios are greatly increased, the image quality is remarkably improved, and the reestablishing effect basically the same as that of multi-layer crystal PET data on hardware can be achieved.

The present invention relates to a noncontact printing method for applying indicia, such as insignia or stripes, on at least one subsurface layer of a transparent or translucent cover golf ball, e.g. the core, or one or more intermediate layers. The indicia may be visible in ambient light or are only visible when exposed to specific non-ambient light wavelengths, e.g. ultraviolet wavelengths. Advantageously, this method of noncontact printing on subsurface golf ball layers substantially improves the durability of indicia because such indicia are protected from direct abrasion and club impacts by the cover. Moreover, unlike pad printing, noncontact printing forms indicia that are not susceptible to ink degradation because the indicia are solid markings created by very small discrete dots. In one embodiment, both the cover and the intermediate layer(s) may be transparent or translucent and thusly decorated to achieve previously unattainable image depth effects.

Stereoscopic glasses and a display apparatus including the same, which can reduce a user's eyestrain, are provided. The display apparatus includes: a signal processor which processes a three-dimensional (3D) video signal to have a predetermined depth effect; a display unit which displays a 3D image based on the video signal processed by the signal processor; and a controller which controls the signal processor to process a first area determined viewed by a user and a second area that is not determined to be viewed by the user, of the 3D image displayed by the display unit, such that the first area is different in level of a depth effect than the second area. Accordingly, a user's eyestrain is remarkably reduced to thereby increase convenience.

The invention discloses a real time field depth analogy method based on fuzzy partition of a graphics processor. The real time field depth analogy method based on the fuzzy partition of the graphics processor comprises the following steps of (1) converting a to-be-processed image into a file format which can be processed by a graphics processing unit (GPU), (2) processing specific information of the image, (3) carrying out partition blur processing to the image according to the specific information of the image, and deciding that the image adopts different fuzzy radius in different areas according to the specific information, and thus imitating a filed depth effect. Due to the facts that parallelism and programmable capacity of the GPU are fully used, a scene is saved as a texture in render, and a large amount of algebraic operation is transferred from a central processing unit (CPU) to the GPU, the real time field depth analogy method based on the fuzzy partition of the graphics processor not only releases the CPU, but also reduces amount of communication between the CPU and the GPU, and greatly improves imitation speed of the filed depth. Due to the fact that a partition fuzzy algorithm is directly used for processing an original image, a step of fusion of a traditional algorithm fuzzy image and the original image is saved, and accuracy of filed depth imitation is further improved. The image is clear and exquisite, close to a field depth effect picture which is shot by an actual camera, and the real time field depth analogy method based on the partition blur of the graphics processor is applicable to a virtual reality system.

The invention provides a method and a system for keeping conversation continuity of a conversation system. The method comprises the steps of cutting out a related topic set belonging to the same topic as a current conversation from all history conversations in real time according to current conversation input, digging up a current topic keyword from the related topic set, and determining response output according to the current conversation input and the current topic keyword. According to the method and the system for keeping the conversation continuity of the conversation system, the related topic set belonging to the same topic as the current conversation is cut off from the former topics in real time according to a content of the current conversation input; the most typical current topic keyword is dug up from the cut related topic set; the dug keyword contains context information; the content of the current conversation input and the current topic keyword serve as system input; the conversation continuity of the conversation system can be kept; a man-machine conversation achieves a continuous and in-depth effect.

The invention discloses a profiling-type garlic root-cutting machine and a root-cutting method thereof. At present, no reliable garlic root-cutting machine is existed in China, and the foreign garlicroot-cutting machine is complicated and expensive, and is difficult to adapt to the agronomic requirements of China. The root-cutting machine comprises a frame, a conveying mechanism, a profile cutting device and an intermittent combined driving mechanism. The transmission mechanism includes a top transport shaft, a bottom transport shaft, a chain drive assembly, and a discharge member. The profiling cutting device includes a profiling cutting bracket, a profiling mechanism, and a cutting mechanism. The profiling mechanism includes an unlocking shaft, an unlocking cam, an unlocking push rod, an unlocking slider, an unlocking tension spring, and a single garlic profiling assembly. The single garlic profiling assembly includes a profiling frame, a profiling wheel, a ratchet cover, a profiling compression spring, a ratchet block, a ratchet bar, and a positioning pull bar. The machine can achieve the same cutting depth effect on garlic with different heights.

The invention provides tinted contact lenses that enhance or change the color of the lens wearer's iris. The lenses of the invention impart a three-dimensional appearance to the pattern by the use of alternating clear and color layers.

The invention discloses a method for correcting image depth effect which is used for correcting an original image which is obtained from a positron emission tomography by a filtered back projection rebuilding algorithm. In the method, probability distribution data used for image distribution rebuilding at each point within the visual range of a detector of the positron emission tomography is beforehand obtained; then the probability distribution data is processed by the filtered back projection rebuilding algorithm; the depth effect image removal is carried out on the probability distribution data in order of from an outermost ring to an innermost ring; and removed part is transformed into a corresponding exact image to compensate the original image, so as to finish the correction of the depth effect. According to the invention, original software kernel is not required to be amended at all, the correction of DOI effect can be finished just by the superaddition based on the original software, and the invention has flexible operation and also saves time.

The invention relates to a shooting method and device and an image processing method and device. The shooting method comprises the steps: in a depth of field mode, shooting equipment is controlled toacquire a first preset amount of images in moving process; wherein the first preset amount of images comprises a first image and a plurality of third images which have at least a part of same contentwith the first image, the first preset amount of images are shot by the shooting equipment controlled by an unmanned aerial vehicle at different positions, and the first preset amount of images are used for acquiring a depth image of the first image. A user can select a shot object on the depth image of the above first image, and a field depth effect picture of the first image is finally presented. According to the invention, user operation can be simplified, and shooting experience is improved.

The invention is applicable to the technical field of stereo display and provides a scene depth fusion type stereo display and a driving method and a driving circuit thereof. The driving method comprises the following steps: within a first image frame time, a foreground image signal is provided to a front panel and a first even picture image is provided to a back panel; within a second image frame time, a background image signal is provided to the back panel and a second even picture image is provided to the front panel. In the invention, the scene depth fusion type stereo display utilizes the driving circuit of the invention as well as the driving method of the invention to display stereo pictures with scene depth effect; besides, the situations that the display picture of the scene depth fusion type stereo display has color error and uneven brightness can be improved.

The invention relates to an image space-based image field depth simulation method comprising the following steps: in step S1, a scene image of a reference visual angle is obtained, and a matlab is used for generating texture mapping; in step S2, the texture mapping is subjected to affine transformation, and pixels in the scene image of the reference visual angle are mapped onto an image of an object visual angle via a mapping function; in step S3, as for a plurality of pixel points, mapped to the same point location, in a result obtained from step S2, a minimum depth is kept; cavities in the images are filled, and point location information of the images is stored; in step S4, a point is set as a focal point, corresponding light rays are extracted from the images that are generated from all preset visual angles, focal point and color information of each point location is determined according to a hierarchy function of the texture mapping, and an image having field depth effects can be obtained after weighted stacking operation. Compared with technologies of the prior art, the image space-based image field depth simulation method is characterized by high precision, simplicity and the like.

The invention relates to a three-dimensional printing method and a decorative plate and a lamp box manufactured through the method. The three-dimensional printing method includes the steps that printing is carried out on a sheet material with a concave-convex surface by means of printing ink capable of being hardened through ultraviolet rays or electron beams, so that the concave-convex appearance of the surface of the sheet after printing is maintained, the printing resolution is 5 times to 20 times of concave-convex density, and the decorative plate with a visual three-dimensional field depth effect is generated. When the sheet material with the concave-convex surface is a transparent lens material, the high-contrast decorative plate or the lamp box can be formed due to the combination of the transparent lens material and a reflective sheet material or a backlight source.

A structure with stereo scene depth effect materials contains: a substrate layer at the bottom of the structure as the adherence object of the structure. A joint layer is used to stick the substance layer and the composite processing layer. A composite processing layer including polyurethane resin films with different refractive indexes. After processing, it joints to the substance layer by the joint layer. A surface texture layer joints onto the composite processing layer, which has regulate concave convex texture change of thick middle and thin edge. The preparation method of this structure contains at least the following steps: (A) after coating at least one layer of resin on the release paper, joint the substance layer and translate the texture on the release paper onto the surface of the substance layer to form semi finished articles including joint layer and composite processing layer. (B) After the reflection of the beam through the texture, the achieved structure in (A) can cause illusion of eyes to realize stereo scene depth effect.

The present invention provides a car taillight with deep and multi-level effects, which includes an LED light source, a collimating inner lens, a reflector, a shaped inner lens, and an outer lens, and is characterized in that: the LED light source is arranged on the left side of the collimating inner lens, The reflector is arranged on the right side of the collimating inner lens, the outer lens is arranged on the right side of the reflecting mirror, and the shaped inner lens is arranged above the reflecting mirror. The light emitted from the LED light source is totally reflected by the collimating inner lens. The light is collimated, reflected by the mirror with texture, transmitted by the inner lens of the shape, and transmitted by the outer lens, thus forming a uniform and multi-layered effect. The lighting effect is shocking, the three-dimensional effect is strong, and it has a three-dimensional depth and multi-level effect. Its manufacturing is highly realizable, with a large number of depths, better lighting uniformity, low production cost, and a higher degree of freedom in three-dimensional modeling.