Abstract: Disclosed are an illuminated touchpad including a protection layer, a touch module, and a Parallax-Barrier light source module. The touch module is disposed between the protection layer and the Parallax-Barrier light source module. The Parallax-Barrier light source module has a Parallax-Barrier pattern or is used to produce the Parallax-Barrier pattern. The Parallax-Barrier light source module further has multiple patterns and produces multiple illuminated patterns by the patterns, or the Parallax-Barrier light source module directly produces the illuminated patterns. By the Parallax-Barrier pattern, lights of the illuminated patterns pass through the touch module and the protection layer to form multiple stereoscopic images.

Abstract: A display apparatus including a display screen, a first image capturing element, a second image capturing element, and a control module is disclosed. The display screen is provided with a display surface facing a user. The first image capturing element is disposed on a side of the display surface of the display screen, and is configured to trace an eye position of the user. The second image capturing element is disposed on a side of the display screen facing away from the display surface, and is configured to capture a scene image of a scene located in a line-of-sight of the user and blocked by the display screen. The control module is adapted to display at least a portion of the scene image on the display screen according to the eye position of the user.

Abstract: An illuminated touchpad including a protection layer, a touch module, a lens array layer and a light source module is provided. The touch module is disposed between the protection layer and the lens array layer. The lens array layer is disposed between the touch module and the light source module. The light source module is configured to generate a plurality of illuminated patterns. Lights of the illuminated patterns pass through the lens array layer, the touch module and the protection layer to form a plurality of stereoscopic images.

Abstract: A power state control method and a data storage system are disclosed. The method includes: establishing a connection between a host system and a storage device; detecting a data access performance of the storage device through the connection; and instructing the storage device to operate at one of a plurality of power states of a normal work state according to the data access performance.

Abstract: An antenna structure and an electronic device are provided. The antenna structure is disposed on a carrier of the electronic device and includes a first dipole radiating element perpendicular to a plane, a second dipole radiating element connected to the first dipole radiating element, and a third dipole radiating element connected to the first dipole radiating element and the second dipole radiating element. The first dipole radiating element is configured to generate a first radiation pattern, the second dipole radiating element is configured to generate a second radiation pattern, and the third radiating element is configured to generate a third radiation pattern. The first radiation pattern is omnidirectional radiation on the plane. A polarization direction of the second radiation pattern and a polarization direction of the third radiation pattern are respectively orthogonal to a polarization direction of the first radiation pattern.

Abstract: A stereoscopic camera device, including a first camera, a second camera, and a controller, is provided. The first camera is configured to capture toward an object to obtain a first image of the object. The second camera is configured to capture toward the object to obtain a second image of the object. The controller synthesizes the images to generate a stereoscopic image of the object. By the controller, the cameras are controlled, so that toe-in angles of an optical axis of the first camera and an optical axis of the second camera are greater than 0. The controller image processes the first image and the second image, so that the processed first image and the processed second image are equivalent to images captured when the toe-in angles of the optical axis of the first camera and the optical axis of the second camera are greater than 0.

Abstract: An augmented reality display device, used for wearing in front of an eye of a user, which includes an image source, a polarizer, a first wave plate, a transflective element, a first lens, a second wave plate, a reflective polarizer, a second lens, a light guiding unit, and a curved transflective film. The image source is used for emitting an image light beam. The polarizer, the first wave plate, the transflective element, the first lens, the second wave plate, the reflective polarizer, and the second lens are sequentially disposed on a path of the image light beam. The light guiding unit has a reflective surface. The curved transflective film is disposed on the light guiding unit. After being incident on the light guiding unit, the image light beam is sequentially reflected by the reflective surface and the curved transflective film to the eye of the user.

Abstract: The disclosure provides an augmented reality (AR) device, a notebook, and smart glasses. The AR device includes a laser source, a spatial light modulator (SLM), and a hologram optical element (HOE). The laser source provides a coherent laser ray. The SLM provides a diffraction pattern solely corresponding to the coherent laser ray. When the SLM receives the coherent laser ray, the diffraction pattern diffracts the coherent laser ray as a hologram in response to the coherent laser ray. The HOE provides a concave mirror effect merely in response to a wavelength of the coherent laser ray, wherein the HOE receives the hologram and magnifies the hologram as a stereoscopic virtual image.

Abstract: A control method for an occlusion component and an electronic device are disclosed. The method includes: in a first status of the electronic device, controlling the occlusion component to be located at a first position on the electronic device to occlude a lens of the electronic device; in a second status of the electronic device, detecting a trigger signal and a target object in front of the lens, wherein the trigger signal is generated by triggering a physical button of the electronic device, and the first status is different from the second status; and in a situation where the trigger signal is detected and the target object exists, controlling the occlusion component to move to a second position on the electronic device to expose the lens.

Abstract: The present invention relates to an environmental coverage oriented motion system. The system includes a rangefinder module configured to measure a distance in real time; an odometry module configured to measure a velocity or a position in real time; a powered vehicle carrying the rangefinder module and the odometry module; and a controller module carried by the powered vehicle, configured to receive one of the distance, the velocity and the position, performing an environmental coverage oriented motion scheme based on one of the distance, the velocity and the position to select a plurality of positions, and commanding the powered vehicle to move among the plurality of positions.

Abstract: Augmented reality glasses including a first image source, a second image source and a lens set are provided. The first image source emits a first image beam. The second image source emits a second image beam. The lens set includes a first lens and a second lens and disposed on the path of the image beams. A gap is disposed between the first lens and the second lens. The refractive index of the gap is lower than that of the first lens. The image beams enter the lens set at an incident surface of the lens set, are reflected at a first surface of the first lens, and exit the lens set at an exit surface. The optical path length of the first image beam from the first image source to the eyes is different from that of the second image beam from the second image source to the eyes.

Abstract: Systems and methods for conducting critical dimension metrology are disclosed. According to certain embodiments, a charged particle beam apparatus generates a beam for imaging a first area and a second area. Measurements are acquired corresponding to a first feature in the first area, and measurements are acquired corresponding to a second feature in the second area. The first area and the second area are at separate locations on a sample. A combined measurement is calculated based on the measurements of the first feature and the measurements of the second feature.

Abstract: An optical device combining a spectacle function with an augmented reality function adapted to let an ambient light beam enter an eye of a user is provided. The optical device includes a spectacle lens and a diffractive optical element. The spectacle lens has a first surface facing the eye and a second surface facing away from the eye. The diffractive optical element is disposed on the first surface of the spectacle lens or between the first surface and the second surface of the spectacle lens. The diffractive optical element has a third surface facing the eye and a fourth surface facing away from the eye. The diffractive optical element is a diffractive optical film or a diffractive optical plate. An augmented reality device is also provided.

Abstract: A control method for an occlusion component and an electronic device are disclosed. The method includes: in a first status of the electronic device, controlling the occlusion component to be located at a first position on the electronic device to occlude a lens of the electronic device; in a second status of the electronic device, detecting a trigger signal and a target object in front of the lens, wherein the trigger signal is generated by triggering a physical button of the electronic device, and the first status is different from the second status; and in a situation where the trigger signal is detected and the target object exists, controlling the occlusion component to move to a second position on the electronic device to expose the lens.

Abstract: Augmented reality glasses including a first image source, a second image source and a lens set are provided. The first image source emits a first image beam. The second image source emits a second image beam. The lens set includes a first lens and a second lens and disposed on the path of the image beams. A gap is disposed between the first lens and the second lens. The refractive index of the gap is lower than that of the first lens. The image beams enter the lens set at an incident surface of the lens set, are reflected at a first surface of the first lens, and exit the lens set at an exit surface. The optical path length of the first image beam from the first image source to the eyes is different from that of the second image beam from the second image source to the eyes.

Abstract: A stereoscopic display device including a display panel and an optical element is provided. The optical element is disposed on a display surface of the display panel. The optical element includes a lenticular lens array. The lenticular lens array includes a plurality of lenticular lenses extending in a first direction. The lenticular lenses are arranged in a second direction. The optical element includes a center line extending in the first direction. The lenticular lenses include a first lenticular lens and a second lenticular lens. The distance between the first lenticular lens and the center line is smaller than the distance between the second lenticular lens and the center line, and the curvature of the first lenticular lens is greater than the curvature of the second lenticular lens.

Abstract: Disclosed herein is a method comprising: generating a plurality of probe spots on a sample by a plurality of beams of charged particles; while scanning the plurality of probe spots across a region on the sample, recording from the plurality of probe spots a plurality of sets of signals respectively representing interactions of the plurality of beams of charged particles and the sample; generating a plurality of images of the region respectively from the plurality of sets of signals; and generating a composite image of the region from the plurality of images.

Abstract: A computer system, a game loading method thereof and a computer readable storage medium are provided. The computer system includes a first storage, a second storage and a processor. The first storage stores multiple game files of a game. The access rate of the second storage is faster than the first storage. The processor is coupled to the first and second storages. The processor performs the game, stores corresponding game files in the first storage into the second storage according to process of the game, and access the game files stored in the second storage to continue progress of the game. Accordingly, loading time of game scene can be reduced, so as to improve gaming experience.

Abstract: Systems and methods for conducting critical dimension metrology are disclosed. According to certain embodiments, a charged particle beam apparatus generates a beam for imaging a first area and a second area. Measurements are acquired corresponding to a first feature in the first area, and measurements are acquired corresponding to a second feature in the second area. The first area and the second area are at separate locations on a sample. A combined measurement is calculated based on the measurements of the first feature and the measurements of the second feature.

Abstract: A head mounted display including two display units is provided. Each display unit includes a display module and an optical assembly disposed in front of the display module. The display module includes a carrier body and a plurality of light-emitting elements. The carrier body includes a plurality of recesses. Each recess has a bottom surface and a reflective side wall connected to the bottom surface. A plurality of the light-emitting elements are located in the plurality of recesses. Each light-emitting element is disposed on the bottom surface of a corresponding recess. The optical assembly is disposed in front of the display module.