232 results about "Virtual image" patented technology

The application provides a multi-dimensional virtual image shooting method and a shooting system, and relates to the technical field of virtual shooting. The method can effectively improve the problem of mismatching between perspective and depth of field of a background image and a foreground displayed by an LED screen, and improve the display effect of a 3D video. The method is applied to a multi-dimensional virtual image shooting system comprising a controller, multiple collectors and a display. The controller acquires multiple monocular views corresponding to a virtual background to be shot, and controls the display to display a first monocular view. A first collector collects a to-be-shot object and the first monocular view when the display displays the first monocular view, and obtains a first image. The controller controls the display to display a second monocular view. A second collector collects the to-be-shot object and the second monocular view when the display displays the second monocular view, and obtains a second image.

Provided is an information display apparatus that significantly improves light resistance with respect to sunlight. The information display apparatus, which displays video-image information on a projection surface by a virtual image, includes in a housing partly having an opening: a video-image-light generator that generates video-image light for displaying the video-image information; a video-image-light processor that performs a predetermined optical processing to a video image generated by the video-image-light generator; and a projector that projects, onto the projection surface through the opening of the housing, the video-image light optically processed by the video-image-light processor so that a viewer is capable of virtually recognizing the video-image information as a virtual image in front of the projection surface, wherein a light path in the housing is provided with a suppressor selectively suppressing a P-polarizing component of light in a visible light region.

A head-up display includes: an image generator that emits display light that forms a display image; a second reflective mirror that forms a virtual image on a side opposite to an observer relative to the windshield; and a housing that houses the image generator and the second reflective mirror. The second reflective mirror includes: a base that is elongated and includes a first surface and a second surface, the first surface including a reflective surface that guides the display light to the windshield, the second surface being a rear surface of the first surface; and a raised wall that extends upward from a terminal edge of the second surface and extends in a longitudinal direction of the base. The center portion of the raised wall in the longitudinal direction is lower than each of both end portions of the raised wall in the longitudinal direction.

The application discloses a virtual image-based data processing method and device and a readable storage medium. The data processing method comprises the following steps: displaying a conversation interface when a first object and a second object have an instant conversation; displaying a first virtual image of the first object and a second virtual image of the second object in a virtual image display area of the conversation interface; in response to a trigger operation on the conversation interface, displaying a first conversation message sent by the first object to the second object in a message display area of the conversation interface; the first conversation message carries first object media data associated with the first object; and in the virtual image display area containing the second virtual image, the first virtual image is updated to a first virtual updated image; the first virtual updated image is obtained by updating the first virtual image based on the first object media data. The application can enrich the display mode of the instant conversation.

The application discloses an indoor parking lot vehicle positioning and reverse vehicle searching method based on visual semantic analysis, which comprises the following steps: dividing an image into a real physical surface and a mirror virtual image area, and calculating a ground reflection reference surface; establishing a virtual mirror camera symmetrical to the real main camera based on the reference surface, repairing the mirror virtual image feature to the effective observation of the virtual camera; introducing a symmetrical virtual observation factor in pose optimization, jointly optimizing the re-projection error of the real main camera and the virtual camera, converting the mirror interference into a geometric constraint for enhancing positioning, so as to solve the continuous vehicle pose, significantly improve the positioning accuracy and robustness in the mirror reflection scene such as the indoor parking lot, and realize reliable reverse vehicle searching application.

An image forming apparatus, which is also referred to as a first image forming apparatus and is configured to perform a printing process by acquiring print information retained by a second image forming apparatus, includes a processor configured to: perform the printing process in a situation where the print information is unavailable from the second image forming apparatus and where the print information is retained by a second virtual image forming apparatus that is a virtual apparatus corresponding to the second image forming apparatus, by acquiring the print information retained by the second virtual image forming apparatus.

This application provides a method, apparatus, electronic device, and storage medium for calibrating the parameters of a virtual camera. The method includes: acquiring real image information of a preset real calibration location using a real camera; acquiring virtual image information of a preset virtual calibration location using a virtual camera, wherein the preset real calibration location and the preset virtual calibration location correspond one-to-one; parsing the real image information and the virtual image information respectively to obtain the real calibration pixel coordinates and the virtual calibration pixel coordinates; calculating the target parameters of the virtual camera based on the real calibration pixel coordinates and the virtual calibration pixel coordinates; and optimizing the virtual camera parameters based on the target parameters. Therefore, the calibrated virtual camera can directly output high-fidelity data, reducing the workload of repeated real-vehicle data acquisition and manual calibration, shortening the ADAS algorithm iteration cycle, reducing R&D costs, and enhancing the universality and reusability of the same set of simulation data across multiple platforms and vehicle models.

The present application provides a display apparatus, a vehicle-mounted system, and a vehicle. The display apparatus comprises an image generation module, an optical imaging module, and a window module. The present application, by means of a first polarization unit, controls image light emitted from different grayscale-level pixel regions of the image generation module to be circularly polarized light having different handedness. Then, by means of cooperation with a second polarizing unit of the window module, the present application achieves partial or full absorption of a light beam emitted from a region having a lower grayscale level, enabling full or partial emission of a light beam emitted from a region having a higher grayscale level. The present application reduces output luminance of regions having lower grayscale levels, thereby improving overall display device contrast and enhancing display performance. In addition, the technical solution provided by the present application does not require additional increases in overall display apparatus dimensions, and does not affect display luminance of virtual images.

A head-up display system for vehicles, which has a light source that emits p-polarized visible light, and laminated glass to which the p-polarized visible light is incident from the vehicle interior side, and which displays a virtual image on the vehicle exterior side of the laminated glass. The laminated glass has a p-polarized light reflecting member in a region where the p-polarized visible light is incident, the incident angle of the p-polarized visible light to the vehicle interior side surface of the laminated glass is 42° to 72°, the virtual image includes a main image observed with the highest luminance and a subsidiary image observed with a lower luminance than the main image, and the ratio of the reflectance of the subsidiary image to the reflectance of the main image is at most 30% within the entire range of the incident angle.

This invention discloses a cloud-based sorting management system based on intelligent weighing, belonging to the field of computer application technology. The system includes a data acquisition module, a process data association and integration module, a cloud-based centralized management and control module, a virtual modeling module, a collaborative pre-simulation optimization module, a sorting execution control module, a data closed-loop feedback module, and an anomaly early warning and emergency handling module. This invention constructs a multi-module integrated cloud-based sorting management system that integrates quantum sensing data acquisition, virtual image modeling, collaborative pre-simulation optimization, and data closed-loop feedback. It achieves virtual-real collaborative management and dynamic optimization of the entire product sorting chain. Compared with existing technologies, it can improve the accuracy of the sorting process and the adaptability of the entire chain. Therefore, it can solve the problems of low sorting efficiency and difficulty in controlling errors caused by the single data acquisition dimension, lack of virtual simulation pre-simulation mechanism, and insufficient coordination among various links in traditional sorting systems.

This invention provides a binocular image merging system for a far-view imaging AR module, including a base, a far-view calibration mechanism, a position adjustment mechanism, a first shooting unit, a second shooting unit, and a first processing unit. The far-view calibration mechanism includes a calibration plate, a head-up display module for far-view imaging, and a second processing unit. The far-view calibration mechanism calibrates the relative positions of the first and second shooting units. The first processing unit processes a first image (obtained by the first shooting unit corresponding to a first virtual image output and displayed by the AR waveguide binocular module for far-view imaging) and a second image (obtained by the second shooting unit corresponding to a second virtual image output and displayed by the AR waveguide binocular module for far-view imaging) to obtain a deviation value. Based on the deviation value, the position adjustment mechanism adjusts the AR waveguide binocular module for far-view imaging to meet the binocular image merging requirements.

The application discloses a transparent controlled zoom optical system with ciliary muscle induced regulation function, which is transparent and arranged on the light path between a human eye and an observation target object; the system comprises a control module for driving continuous longitudinal displacement of an optical focus; the system can be controlled to generate smooth and continuous change of diopter, so that the virtual image focus is generated to make smooth and continuous reciprocating displacement along the optical axis direction. The application does not rely on digital space modeling, directly generates continuous and smooth focus displacement on the longitudinal optical axis through controlled change of physical parameters of an optical medium, utilizes the passive and natural following characteristics of the human eye to the focus, stretches the ciliary muscle, intervenes in pseudo myopia and relieves visual fatigue.

An electronic device may include a display system and control circuitry. The user's environment may be presented on the display system. The environment on the display system may be a captured image of the environment, may be the actual real world viewed through an optical combiner, or may be a completely virtual image representing the environment. The control circuitry may gather information about external electronic devices in the user's environment, including determining a type and location of each external electronic device and a status of wireless communications links between external electronic devices. The display system may overlay computer-generated display elements onto the user's environment to indicate the status of wireless communications links between the external electronic devices. In response to touch or gesture input, the control circuitry may send control signals to the external electronic devices to establish or break wireless communications links between external electronic devices.

Embodiments of the present application generally relate to augmented reality and virtual reality glasses having stacked lenses. The augmented reality (AR) and virtual reality (VR) glasses includes a pair of lenses retained by a frame. A lens stack is utilized in the pair of lenses. The lens stack may include multiple metasurfaces that improve the focus adjustment for both the real and virtual images as well as a prescription lens or prescription metasurface in the lens stack. The metasurfaces are coupled to a waveguide combiner to assist in overlaying virtual images on ambient environments. By utilizing a lens stack, the total weight of the glasses will decrease.

The optical system includes a light guide guiding an image light ray including a first light ray with a first wavelength range and a second light ray with a second wavelength range having wavelengths shorter than wavelengths in the first wavelength range, to a field of view region as a virtual image. The light guide includes a first dividing region including first dividing points dividing the incident first light ray and a second dividing region including second dividing points dividing the incident second light ray. The first dividing points include first and second points respectively corresponding to first and second peripheral regions of the field of view region. The second dividing points include third and fourth points respectively corresponding to the first and second peripheral regions. Dividing efficiencies E1 to E4 at the first to fourth points satisfy the following formula (1).(E⁢2E⁢1)÷(E⁢4E⁢3)×(E⁢3E⁢1)2<0.9(1)

A head-up display for a vehicle is provided. The head-up display comprises a picture generating unit arranged to project an image onto a screen. The head-up display further comprises a replicator arranged to receive the image and replicate the image. The head-up display further comprises a corrective device located in the optical path of the replicated image downstream from the replicator. The corrective device is arranged to compensate for a complex curvature of an optical combiner downstream from the corrective device. The optical combiner is further arranged to form a virtual image of the image that is visible from a plurality of viewing positions of a viewing window of the head-up display. The virtual image comprises a plurality of virtual image points. The corrective device is further arranged to introduce a first disparity offset to at least some of the plurality of virtual image points. The first disparity offset of each virtual image point is substantially constant for the plurality of viewing positions of the viewing window. The first disparity offset is a function of the position of the virtual image point in the virtual image.

An optical system includes a display, a lens assembly, and a multilayer beam shaping film disposed between the lens assembly and the display. The optical system is configured to display a virtual image for viewing at an exit pupil of the optical system. The beam shaping film includes an array of optically transparent lenses arranged two-dimensionally on an opaque layer. The opaque layer defines a plurality of through openings aligned with the lenses. For an image light cone emitted from each position on an image formed by the display, the beam shaping film transmits and shapes the emitted cone such that the transmitted and shaped cone exits the lens assembly as collimated image light having a first integrated energy E1, and passes through and substantially fills the exit pupil, the passed collimated image light having a second integrated energy E2, such that E2 / E1 ≥ 0.2.

The application is suitable for the field of head-up display technology, and provides a head-up display device and a mobile device. The head-up display device comprises an image generation unit and an optical system; the optical system comprises a first light path and a second light path; in a first mode, the optical system is configured to separate target light into first vertically polarized light and first parallel polarized light, guide the first vertically polarized light to a windshield through the first light path to form a first virtual image, convert the first parallel polarized light into second vertically polarized light through the second light path, and guide the second vertically polarized light to the windshield through the second light path to form a second virtual image; the first virtual image and the second virtual image are in different focal planes, so that the application can generate display images of two focal planes through one image generation unit, thereby reducing the cost of the existing head-up display device with double focal planes.

The present specification provides a video production method and device, wherein the video production method comprises: acquiring motion capture data and action video, and identifying the action video to obtain skeleton point data; generating a virtual image video according to the motion capture data, and adding the skeleton point data to the action video to obtain a skeleton point video; importing the virtual image video and the skeleton point video into an editor; fusing the virtual image video and the skeleton point video through the editor to obtain a target video containing determination information; wherein the determination information corresponds to the skeleton point data.

This invention addresses the problem of difficulty in accurately calibrating camera line-of-sight (LOS) and display geometric pose due to limitations in camera models. It proposes a method for calibrating LOS parameters and display geometric pose without requiring a camera model. The method involves capturing structured light-coded patterns on multiple displays or virtual images of the displays using a camera. The coordinates of the display light source points are decoded and unified to the world coordinate system. The LOS equation is used to characterize the camera's LOS. Then, the LOS equation is fitted using multiple display light source points. Finally, nonlinear optimization is performed based on the fitting residuals to determine the optimal solutions for the LOS parameters and display pose parameters. This method offers advantages such as high precision, high reliability, high flexibility, and the ability to simultaneously calibrate both camera LOS parameters and display geometric pose.

The present disclosure relates to a multi-focal head-up display (MHUD) system and method to solve a visual fatigue problem generated in a vehicle head-up display and implement an augmented reality (AR) function. The present disclosure provides a multi-focal augmented reality head-up display (MHUD) system including an image projector which generates and emits a plurality of beams, an optical device which guides the plurality of beams emitted from the image projector to individual paths, a polarization control device which controls polarization states of the plurality of beams incident from the optical device, and a plurality of holographic optical elements (HOEs) which receives the plurality of beams emitted from the polarization control device to project a virtual image plane at different focal distances.

A vehicle display device that displays a virtual image with high brightness while suppressing the enlargement of a backlight unit. The vehicle display device includes a display (10) of a light-transmitting type; a backlight unit (20) that projects light to a back surface (10a) of the display to cause display information to be emitted as display light from a front surface (10b) of the display; at least one reflection member (40) that reflects the display light emitted from the display and projects the display light to a projection target (Rwf); and an external housing (51) that houses the members, the backlight unit including a light source (21), a Fresnel lens (22) that causes emergent light of the light source to be incident from an incident surface (22a) and emitted as parallel light orthogonal to the incident surface from an emission surface (22b), and a microlens (23) that causes the parallel light to be incident from an incident surface (23a) and emitted as diffused light from an emission surface (23b) toward the back surface of the display, the Fresnel lens and the microlens being arranged so that the emission surface (22b) faces the incident surface (23a).

The application provides a display device and a virtual image generation method. The method can determine a first playing time point of a media video in response to a first instruction for generating a virtual image, extract a first video frame corresponding to the first playing time point in the media video, extract a non-face feature of a target character image in the first video frame, obtain a face feature of a user, generate a basic head model based on the face feature, fuse the non-face feature on the basic head model to obtain the virtual image, and finally control a display to display the virtual image on an upper layer of the media video. The method can generate a virtual image according to a character image in a current media video, associate the virtual image with a specific scene in which the virtual image is applied, thereby improving user experience and immersion.

Techniques for operating an optical system are disclosed. World light may be linearly polarized along a first axis. When the optical system is operating in accordance with a first state, a polarization of the world light may be rotated by 90 degrees, the world light may be linearly polarized along a second axis perpendicular to the first axis, and zero net optical power may be applied to the world light. When the optical system is operating in accordance with a second state, virtual image light may be projected onto an eyepiece of the optical system, the world light and the virtual image light may be linearly polarized along the second axis, a polarization of the virtual image light may be rotated by 90 degrees, and non-zero net optical power may be applied to the virtual image light.

Even with a configuration that displays the image on an oblique surface, sufficient display effect for the occupants can be obtained. [Solution] The system includes display units 12b and 12a that transmit light emitted from light sources 11b and 11a and display a virtual image VI or a real image RI, and a control unit 15 that controls the display units 12b and 12a. The control unit 15 performs the following actions: an image display process that causes the driver DR to view the virtual image VI on an oblique image plane having a near and far distance in the front-rear direction of the vehicle C, and the real image RI on an elevation image plane; a detection process that detects the operating state of the vehicle C or the operation state by the driver DR; and a display switching process that, based on the detection results in the detection process, switches the display so that the image or content to be displayed is viewed as a real image RI on the elevation image plane in at least a first predetermined state where the vehicle C is not moving forward.

A binocular augmented-reality display system, including a frame, a first image light guide and a second image light guide supported by the frame, a first image source system arranged within the frame, the first image source system including a first display panel having a first plurality of light sources, and a second image source system arranged within the frame, the second image source system including a second display panel having a second plurality of light sources. At least one processor and at least one non-transitory computer-readable memory, are configured to generate, via the first display engine, a first image using a first subset of the first plurality of light sources, receive a first input signal and, in response to the first input signal, generate a second image using a second subset of the first plurality of light sources, and generate, via the second display engine, a third image using a first subset of the second plurality of light sources.

A measuring device is provided. The measuring device includes a virtual image generation unit that generates a virtual image based on a plurality of layers shown in a design drawing, a measurement reference area determination unit that determines a measurement reference area to be measured using the virtual image, a measurement target area detection unit that detects a measurement target area corresponding to the measurement reference area from a measurement target including a plurality of patterned layers based on the design drawing, and a measuring unit that performs measurement of the measurement target area with respect to the measurement reference area.