Abstract: The present application relates to a temperature detection circuit and method, an electronic device, and a computer-readable storage medium. The temperature detection circuit includes: a temperature detection module, configured to charge a charging module based on a detected temperature; a timing module, configured to detect the voltage of the charging module to determine a charging rate of the temperature detection module, generate a first time signal corresponding to the charging rate, and send the first time signal to the processing module; and a processing module, configured to determine a target temperature value through the first time signal. The temperature detection module is configured to charge the charging module based on the detected temperature, so that the charging rate can quickly reflect the detected temperature, which ensures the rate of temperature detection. Meanwhile, the charging rate can accurately match the target temperature value corresponding to the current temperature.

Abstract: A rapid, ultrasensitive and inexpensive nanoplasmon-enhanced scattering (nPES) assay that directly quantifies tumor-derived EVs from as little as 1 ?{umlaut over ({acute over (?)})}, of plasma is described herein. This assay uses binding of gold nanospheres and nanorods with EV- and tumor-derived EV-specificities to produce a local plasmon effect that enhances tumor-derived EV detection sensitivity and specificity. This nPES approach is also a non-invasive method for assessing pancreatic cancer stage and treatment response that can be easily refined for clinical use, and is readily adapted for diagnosis and monitoring of other conditions with disease-specific EV proteins.

Abstract: The subject matter described in this disclosure can be embodied in methods and systems for stabilizing video. A computing system determines a stabilized location of a facial feature in a frame of video accounting for its location in a previous frame. The computing system determines a physical camera pose in virtual space and maps the frame into virtual space. The computing system determines an optimized virtual camera pose using an optimization process that determines (1) a difference between the stabilized location of the facial feature and a location of the facial feature when viewed from a potential virtual camera pose, (2) a difference between the potential virtual camera pose and a previous virtual camera pose, and (3) a difference between the potential virtual camera pose and the physical camera pose. The computing system generates the stabilized view of the frame using the optimized virtual camera pose.

Abstract: There is provided an imaging system capable of reducing required system resource and increasing a frame update rate. The imaging system includes a host and a display device. The host selects to transmit compressed data or row data to the display device. When the display device identifies the row data being received, the row data is directly stored into a frame buffer for being shown on a display panel. When the display device identifies the compressed data being received, the compressed data is used to generate restored data to the frame buffer for being shown on the display panel.

Abstract: A method for generating a depth image includes acquiring multiple event images of a target object by an event camera during a motion cycle, each event image is provided with at least one first event point; marking multiple target pixel points in a background image that have same positional information as the first event point to obtain second event point in the background image; determining an event trajectory in the background image based on each second event point; calculating a depth value of each second event point; and determining pixel value of each target pixel points. The solution provided by the disclosure generates a depth image by a single event camera, and the frame rate of the depth image can be adjusted, which improves efficiency of generating a depth image.

Abstract: The present disclosure describes systems and techniques for creating a super-resolution image (122) of a scene captured by a user device (102). Natural handheld motion (110) introduces, across multiple frames (204, 206, 208) of an image of a scene, sub-pixel offsets that enable the use of super-resolution computations (210) to form color planes (212, 214, 216), which are accumulated (218) and combined (220) to create a super-resolution image (122) of the scene.

Abstract: A mobile phone holder includes a finger ring buckle and a detection module. The finger ring buckle includes a lower finger ring buckle and an upper finger ring buckle. An inner finger ring buckle is disposed in the lower finger ring buckle. A support rod is disposed in the inner finger ring buckle. The detection module mounted on the support rod includes a first detection unit, a second detection unit, a data transmission unit, and a processing unit. The first detection unit is configured to detect heart rate data and blood oxygen data. The second detection unit is configured to detect acceleration data of the detection module. The processing unit is configured to compensate the heart rate data and the blood oxygen data through the acceleration data. The data transmission unit is configured to transmit compensated heart rate data and compensated blood oxygen data to the terminal device.

Abstract: Methods, systems, and apparatus, including computer programs stored on a computer-readable storage medium, for video stabilization. In some implementations, a computer system obtains frames of a video captured by a recording device using an optical image stabilization (OIS) system. The computing system receives (i) OIS position data indicating positions of the OIS system during capture of the frames, and (ii) device position data indicating positions of the recording device during capture of the frames. The computing system determines a first transformation for a particular frame based on the OIS position data for the particular frame and device position data for the particular frame. The computing system determines a second transformation for the particular frame based on the first transformation and positions of the recording device occurring after capture of the particular frame. The computing system generates a stabilized version of the particular frame using the second transformation.

Abstract: Embodiments of multi-chamber processing tools are provided herein. In some embodiments, a multi-chamber processing tool includes: a factory interface configured to receive a substrate; a pre-heat chamber directly coupled to the factory interface; a load lock chamber coupled to the factory interface and having a first slit valve disposed therebetween, wherein the load lock chamber is coupled to a pump configured to create a vacuum environment when the first slit valve is in a closed position; a degas chamber coupled to the factory interface and having a second slit valve, wherein the degas chamber is coupled to a second pump configured to create a vacuum environment when the second slit valve is in a closed position, and wherein the degas chamber includes a heat source; one or more process chambers; and a transfer chamber coupled to the load lock chamber, the degas chamber, and the one or more process chambers.

Abstract: The present invention provides a the monitoring and activity matching system for eye health includes an eye axial length detecting module used for detecting the data of an eye axial length of a patient, a member system used for inputting the data of the eye axial length, and a follow-up consulting and activity matching system used for allowing the patient to be matched with a follow-up consulting and an activity according to the data of the eye axial length.

Abstract: A device for measuring a curvature radius includes a sample stage configured to support a sample to be measured, a diffracted light array generation module configured to generate and emit a diffracted light array to the sample, and a detection and analysis module configured to receive a reflected light array emitted from the sample and to obtain the curvature radius of the sample according to a dimension of the received reflected light array. Also disclosed is a method for measuring the curvature radius.

Abstract: A dynamic vision sensor includes a dispersion lens and a sensor. The dispersion lens is configured to disperse an incident polychromatic light into monochromatic lights with different colors. The incident polychromatic light is reflected from a color subject to be captured. The monochromatic lights with different colors form blur circles, and areas of the blur circles have different sizes on the sensor. The sensor is configured to output a first event signal according to a variation of an energy corresponding to a variation of a kind of a blur circle. The kind of the blur circle is determined according to the sizes of the areas of the blur circles, and different sizes of the areas of the blur circles correspond to different kinds of the blur circles. A dynamic vision camera and a method for sensing dynamic vision are also disclosed.

Abstract: The present disclosure provides an assembly method of an electronic device. The assembly method includes: opening an upper cover of a loading mechanism on a circuit board, in which the upper cover has an opening, and when the upper cover is in a closed state, the opening exposes a central processing unit socket located on the circuit board; snapping an elastic sheet to opposite sides of an inner edge of the opening of the upper cover through buckling portion of the elastic sheet; and closing the upper cover of the loading mechanism so that an elastic sheet body of the elastic sheet covers the central processing unit socket.

Abstract: Systems, methods, and apparatuses relating to a configurable accelerator having dataflow execution circuits are described.

Abstract: A temperature compensation method for a weighing device, wherein the scale is provided with a temperature sensor, the method is performed by a processor, and includes, when the scale is powered on: receiving a first ambient temperature from the temperature sensor at a first time point; receiving a second ambient temperature from the temperature sensor at a second time point; obtaining a first compensation value associated to a default temperature threshold and a relationship between the first ambient temperature and the second ambient temperature, and obtaining a cumulative compensation value updated by the default temperature threshold; and obtaining a calibrated target temperature that is a target temperature of a subject sensed by the temperature sensor being calibrated by the cumulative compensation value, wherein the first time point is earlier than the second time point. The present disclosure also provides a weighing device with temperature sensing function.

Abstract: The present disclosure describes systems and techniques directed to optical image stabilization movement to create a super-resolution image of a scene. The systems and techniques include a user device (102) introducing (502), through an optical image stabilization system (114), movement to one or more components of a camera system (112) of the user device (102). The user device (102) then captures (504) respective and multiple frames (306) of an image of a scene, where the respective and multiple frames (306) of the image of the scene have respective, sub-pixel offsets of the image of the scene across the multiple frames (306) as a result of the introduced movement to the one or more components of the camera system (112). The user device (102) performs (506), based on the respective, sub-pixel offsets of the image of the scene across the respective, multiple frames (306), super-resolution computations and creates (508) the super-resolution image of the scene based on the super-resolution computations.

Abstract: Systems and methods for real-time image deblur and stabilization can utilize sensor data for estimating motion blur without the high computational cost of image analysis techniques. The estimated motion blur can then be utilized to generate a motion blur kernel for image correction. The systems and methods can further refine the correction by processing the motion blur kernel with a polynomial filter to generate a sharpening kernel. The systems and methods can provide for real-time correction even with minimal to no stabilization masking.

Abstract: Apparatus and methods related to image processing are provided. A computing device can determine a first image area of an image, such as an image captured by a camera. The computing device can determine a warping mesh for the image with a first portion of the warping mesh associated with the first image area. The computing device can determine a cost function for the warping mesh by: determining first costs associated with the first portion of the warping mesh that include costs associated with face-related transformations of the first image area to correct geometric distortions, and determining second costs associated with the warping mesh that include costs of edge-related transformations for preserving straightness of edges of the image. The computing device can determine an optimized mesh based on optimizing the cost function. The computing device can modify the first image area based on the optimized mesh.