Abstract: Embodiments of the present application disclose various methods and an apparatus for controlling light field capture. One method for controlling light field capture comprises: determining, at least according to at least one sub-lens that affects imaging of a first region in a sub-lens array of a light field camera, at least one first sub-lens to be adjusted, the first region being a part of a scene to be shot; determining an object refocusing accuracy of a light field image section captured by the first sub-lens in a light field image of the scene to be shot; adjusting, according to the object refocusing accuracy, a light field capture parameter of the first sub-lens; and performing, based on the light field camera after being adjusted, light field capture on the scene to be shot.

Abstract: A sensor system for detecting events is provided. The sensor system includes a sensor and a read-out interface. The sensor includes a transducer and a memory device. The transducer detects an event and generates a sensor signal in response to the event. The memory device includes a floating-gate with a sensing interface coupled to the transducer. The sensing interface has an energy barrier that leaks electrons at a predetermined electron leakage rate through Fowler-Nordheim (F-N) tunneling. The sensor signal alters a geometry of the energy barrier to change the electron leakage rate. The read-out interface is communicatively coupled to the memory device and retrieves data stored on the memory device for analysis. The event and a timestamp of the event are identifiable from the stored data.

Abstract: The disclosure relates to an electronic beam machining system. The system includes a vacuum chamber; an electron gun located in the vacuum chamber and used to emit electron beam; a holder located in the vacuum chamber and used to fix an object; a control computer; and a diffraction unit located in the vacuum chamber; the diffraction unit includes a two-dimensional nanomaterial; the electron beam transmits the two-dimensional nanomaterial to form a transmission electron beam and a plurality of diffraction electron beams; the transmission electron beam and the plurality of diffraction electron beams radiate the object to form a transmission spot and a plurality of diffraction spots.

Abstract: The disclosure relates to a photolithography method based on electronic beam. The method includes: providing an electronic beam; making the electron beam transmit a two dimensional nanomaterial to form a transmission electron beam and a number of diffraction electron beams; shielding the transmission electron beam; and radiating a surface of an object by the plurality of diffraction electron beams. The photolithography method is high efficiency and has low cost.

Abstract: Embodiments of the present application disclose a light field display control method and apparatus and a light field display device. The light field display control method comprises: determining a partial depth distribution sub-region of content according to at least depth distribution information of the content; and tilting a first display unit at least with respect to an original plane of a display array of a light field display device according to a display depth of field (DoF) range of the light field display device and the depth distribution sub-region, wherein the first display unit is a display unit that is in the display array and affects display of a first object, and the first object is a part, which is located in the depth distribution sub-region, of the content. The present application can improve display quality of an object, which is located in a partial depth distribution sub-region, of content to be displayed or content being displayed.

Abstract: An apparatus for picking and placing a plate-like product comprises: a base; at least two guide rods disposed on said base vertically; a picking and placing device mounted on each of said guide rods vertically slidably, the picking and placing device is telescopic in a horizontal direction to smoothly and steadily pick and place the plate-like product; a driving device disposed on said base, said driving device connects with said picking and placing device for driving said pick and place device to slide along the respective guide rods.

Abstract: Provided is a white organic electroluminescent device, composed of a substrate, an anode layer, an anode modification layer, a hole transporting-electron blocking layer, a hole-dominated light-emitting layer, an electron-dominated light-emitting layer, a hole blocking-electron transporting layer, a cathode modification layer, and a cathode layer arranged in turn, wherein the electron-dominated light-emitting layer is composed of an organic sensitive material, a blue organic light-emitting material, and an electron-type organic host material.

Abstract: Embodiments of the present application disclose various super-resolution image acquisition methods and acquisition apparatus, wherein one of super-resolution image acquisition methods comprises: determining a to-be-adjusted region of an image sensor of at least one camera in a camera array, the to-be-adjusted region being an imaging region of the image sensor of the at least one camera corresponding to a first region, and the first region being at least a local part of a scene; adjusting pixel point distribution of the image sensor of the at least one camera, to increase the number of pixel points distributed in the to-be-adjusted region; acquiring images of the scene respectively by cameras of the camera array after adjustment; and acquiring a super-resolution image of the scene according to the acquired images. The embodiments of the present application improve imaging quality of a sub-image in the super-resolution image corresponding to the first region.

Abstract: Various video display control methods and apparatuses and various display devices are provided. A method comprises: acquiring interframe differences between every two adjacent frames in at least two adjacent video frames in sequence of a video; determining a display image distance of at least one video frame in the at least two video frames at least according to respective interframe differences of the interframe differences, and controlling the display device to display the at least one video frame at least according to the determined display image distance of the at least one video frame. A visual effect and user experience can thereby be improved.

Abstract: The invention provides a luminaire comprising an optical element configured to spread light uniformly across a full visible face of the luminaire. The optical element comprises a central region and an outer peripheral region, each configured to receive light emitted by a light source arrangement and to direct this light out through a respective region of the light exit area of the luminaire. The central region receives light through a central transmissive surface portion which partially bounds it across its top. A further reflective tapered portion of the central region acts to reflect light incident at either of its two opposing sides, and provides a mixing function both within the central region of the optical element and within an inner compartment of the luminaire which extends between the optical element and the housing.

Abstract: A rotary joint, including: a hydraulic follow-up mechanism and a rotary transmission mechanism. The hydraulic follow-up mechanism includes a cylinder body, a valve sleeve, a valve core, a valve body, a left end cover and a right end cover. The rotary transmission mechanism includes a tray, a stabilizing ring, a follow-up disk, a torque transfer disk and a stable supporting wheel mechanism. The left end cover and the right end cover are arranged at the left and right ends of the cylinder body, respectively. The valve body is concentrically mounted in a cylindrical hollow chamber of the cylinder body. The output shaft at the right end of the valve body projects out of the right end cover. The right end of the valve core is provided with a valve core torque transfer shaft extending rightwards through the right end of the valve body.

Abstract: Embodiments of the present application disclose various super-resolution image acquisition methods and apparatus. One of the super-resolution image acquisition methods comprises: acquiring an image of a to-be-shot scene by an image sensor; changing pixel point distribution of the image sensor at least once; separately acquiring an image of the to-be-shot scene by the image sensor changed each time; and acquiring a super-resolution image of the to-be-shot scene according to the acquired images. According to the embodiments of the present application, by fusing multiple differentiated images of the same scene acquired by a single image sensor in different time periods, a super-resolution image is acquired. The solution is simple and easy to implement, and may better meet users' diversified actual application needs.

Abstract: Embodiments of the present application disclose various super-resolution image acquisition methods and acquisition apparatuses, wherein a super-resolution image acquisition method comprises: determining sub-pixel level target offset distances of corresponding logic pixel points in respective to-be-adjusted regions of image sensors of any two adjacent cameras of a camera array, the respective to-be-adjusted regions being imaging regions of the image sensors respectively corresponding to a first region, and the first region being at least a local part of a scene; adjusting pixel point distribution of image sensors of respective cameras in the camera array according to the sub-pixel level target offset distances; acquiring images of the scene respectively based on the cameras after adjustment; and acquiring a super-resolution image of the scene according to the acquired images.

Abstract: Embodiments of the present application disclose various display control methods and apparatuses. One of the methods comprises: determining at least local virtual enhancement information of an expected display environment of virtual content according to optical parameters of the virtual content; and controlling a display device to display the virtual content and the at least local virtual enhancement information of the expected display environment. The present application is favorable for enhancing a fusion display effect and improving user experience.

Abstract: Embodiments of the present application disclose various methods and various apparatus for controlling light field capture. The method for controlling light field capture comprises: acquiring a depth range of a first zone, the first zone being at least a part of a scene to be shot; determining, according to the acquired depth range, an object distance adjustment range from a pixel point of at least one imaging zone to a reference point of a sub-lens, the at least one imaging zone being an imaging zone that affects light field capture of the first zone in an image sensor of a light field camera, the sub-lens being a sub-lens that corresponds to the at least one imaging zone in a sub-lens array of the light field camera; adjusting, according to the object distance adjustment range, a bending degree of the at least one imaging zone; and performing, based on the image sensor after being adjusted, light field capture on the scene to be shot.

Abstract: Display control is provided relating to the field of near-to-eye display technologies. A method comprises: determining a first display area, in the field of view (FOV) of a user, of an image displayed on a main display device; dividing the image according to display capabilities of the main display device and a near-to-eye display device, the first display area, and an attribute of the image; controlling a display of the near-to-eye display device in accordance with a result of the division of the image. The near-to-eye display device is used to supplement a display that is provided at a suitable viewing distance of a user by a device but cannot fully fill the FOV of the user, so that an image can be displayed by making adaptations to meet the original quality of the image as far as possible, thereby providing a good viewing experience.

Abstract: Embodiments of the present application disclose a display control method and a display control apparatus, relating to the field of near-to-eye display technologies. The method includes: determining a first display area, in the FOV of a user, of an image displayed on a main display device; and using at least one near-to-eye display device according to the first display area to display augmentation information related to the image. In the method and apparatus of the embodiments of the present application, at least one near-to-eye display device is used to supplement a display that is provided at a suitable viewing distance of a user by a device but cannot fully fill the FOV of the user, and augmentation information is used to fill the FOV of the user as far as possible, so that good immersion media viewing experience can be provided.

Abstract: Various video display control methods and apparatuses and various display devices are provided. A method comprises: acquiring interframe differences between every two adjacent frames in at least two adjacent video frames in sequence of a video, adjusting a local display image distance of at least one video frame in the at least two video frames according to respective interframe differences, and controlling the display device to display a local of the at least one video frame at least according to the local adjusted display image distance of the at least one video frame. A visual effect and user experience can thereby be improved.

Abstract: Embodiments of the present application disclose various display control methods and apparatuses. One of the display control methods comprises: determining a first display area of a first light field display device and play sequence alignment reference information, wherein the first display area is used to play a first video; and controlling, according to the play sequence alignment reference information, a second display device to display, within at least one first frame interval of the first video, at least one second frame of a second video in the first display area, wherein the first video and the second video are different parts obtained by performing time-domain downsampling of a same content source. This solution can improve a gain of a time resolution actually displayed in a light field information content source, and improve the flexibility of time-domain display control.

Abstract: Provided is a white organic electroluminescent device, composed of a substrate, an anode layer, an anode modification layer, a hole transporting-electron blocking layer, a hole-dominated light-emitting layer, an electron-dominated light-emitting layer, a hole blocking-electron transporting layer, a cathode modification layer, and a cathode layer arranged in turn, wherein the electron-dominated light-emitting layer is composed of an organic sensitive material, a blue organic light-emitting material, and an electron-type organic host material.