Abstract: The present disclosure relates to a virtual reality display device. The virtual reality display device includes: a main lens, a semi-reflective lens, a first display screen, a second display screen, a zoom assembly and an eye tracking camera. The main lens is arranged in front of the first display screen and perpendicular to a first direction. The semi-reflective lens is arranged between the main lens and the first display screen. The eye tracking camera points to an eyeball position. The second display screen faces the semi-reflective lens, and light emitted from the second display screen is reflected by the semi-reflective lens and then propagates along the first direction. The zoom assembly is arranged on a front side of the second display screen. The second display screen is configured to display an image based on an eyeball focus position detected by the eye tracking camera.

Abstract: The present disclosure relates to a virtual reality display device. The virtual reality display device includes: a main lens, a semi-reflective lens, a first display screen, a second display screen, a zoom assembly and an eye tracking camera. The main lens is arranged in front of the first display screen and perpendicular to a first direction. The semi-reflective lens is arranged between the main lens and the first display screen. The eye tracking camera points to an eyeball position. The second display screen faces the semi-reflective lens, and light emitted from the second display screen is reflected by the semi-reflective lens and then propagates along the first direction. The zoom assembly is arranged on a front side of the second display screen. The second display screen is configured to display an image based on an eyeball focus position detected by the eye tracking camera.

Abstract: A liquid crystal display (LCD) driving method includes: determining drive voltages of pixel units in a plurality of screen regions of an LCD based on an image frame to be displayed; outputting, for one of the plurality of screen regions, a first drive signal to a pixel unit in the screen region based on the determined drive voltage corresponding to the pixel unit, the first drive signal being used for controlling a liquid crystal molecule corresponding to the pixel unit in the screen region to rotate at the drive voltage; and outputting a second drive signal to a backlight source of the LCD when the first drive signal is output to the pixel unit in the screen region and a target duration is reached, the second drive signal being used for controlling a part of the backlight source corresponding to the screen region to be turned on.

Abstract: This application discloses a device for generating a holographic stereoscopic image. The device includes a body, a three-dimensional display, and a negative refractive index plate. The body includes a first cavity and a second cavity, a bending angle existing between a central axis of the first cavity and a central axis of the second cavity. A second end of the first cavity is in communication with a first end of the second cavity, an opening being formed by a second end of the second cavity on a side wall of the body. The three-dimensional display is arranged on the first end of the first cavity, and the negative refractive index plate is arranged between the second end of the first cavity and the first end of the second cavity. A display direction of the three-dimensional display faces the negative refractive index plate, and a refraction direction of the negative refractive index plate faces the opening.

Abstract: A method and an electronic apparatus for displaying reference locations for locating ECG pads and a recording medium using the method are provided. In the method, a body image is retrieved and a skin area in accordance with a skin color in the body image is detected. A feature analysis is performed on the skin area to detect two physical nipples and obtain locations of the two physical nipples in the body image. The relative locations of a plurality of ECG pads to one or two nipples predefined by medical statistics are retrieved to compute reference locations of the ECG pads in the body image according to the locations of the two physical nipples. Finally, the body image is displayed on the display and the reference locations of the ECG pads in the displayed body image are indicated.

Abstract: An adjustable antennal mount has a base bracket, an upper bracket, multiple fasteners, and a leveling instrument. The base bracket has a slanting surface not perpendicular to an assembling axis of base bracket and a rotating axis perpendicular to the slanting surface. The upper bracket is adjustably mounted on the base bracket along the rotating axis and has a diagonal surface and a top surface. The diagonal surface is attached to the slanting surface of the base bracket and is not parallel to the top surface of the upper bracket. The fasteners are connected with the base bracket and the upper bracket and are arranged at spaced intervals. The leveling instrument is mounted in the upper bracket and indicates levelness of the top surface of the upper bracket.

Abstract: An adjustable antennal mount has a base bracket, an upper bracket, multiple fasteners, and a leveling instrument. The base bracket has a slanting surface not perpendicular to an assembling axis of base bracket and a rotating axis perpendicular to the slanting surface. The upper bracket is adjustably mounted on the base bracket along the rotating axis and has a diagonal surface and a top surface. The diagonal surface is attached to the slanting surface of the base bracket and is not parallel to the top surface of the upper bracket. The fasteners are connected with the base bracket and the upper bracket and are arranged at spaced intervals. The leveling instrument is mounted in the upper bracket and indicates levelness of the top surface of the upper bracket.

Abstract: A test strip analyser is provided. The test strip analyser includes a frame, a test control module and an optical system. The test control module is disposed in the frame and includes a test strip carrier of a plurality of test strip carriers and a sample container of a plurality of sample containers. The test strip carrier is disposed on the frame and adapted to hold a test strip. The sample container is adapted to contain a sample. The optical system is disposed above the frame and the test control module and includes a light sensor and controller. The light sensor is configured to capture an image of the test strip. The controller is connected to the light sensor to control the light sensor, and the light sensor feedbacks the image to the controller. In addition, an analysing method using the same is also provided.

Abstract: The invention provides a wearable device, a physiological information monitoring system and a physiological information monitoring method. The wearable device includes a device body, a measurement circuit, and a measurement trigger interface. The measurement circuit is disposed on the device body and adapted to perform a physiological information measurement operation to measure a physiological signal and generate physiological information accordingly. The measurement trigger interface is triggered to generate a measurement trigger signal. The measurement circuit performs the physiological information measurement operation in response to the measurement trigger signal.

Abstract: A hybrid detection apparatus including a detection device and a functional circuit is provided. The detection device is configured to execute a first detection function, so as to obtain first detection information. The functional circuit is suitable to be removably connected to the detection device. When the functional circuit is connected to the detection device, the detection device controls the functional circuit for performing a second detection function, so as to obtain second detection information. One of the first and the second detection functions is an image capturing function, and another one of the first and the second detection functions is a temperature detection function.

Abstract: The disclosure provides a method, electronic device, and computer-readable storage medium for monitoring breathing activity. The method includes the following steps. A time series of incoming frames of a monitored subject is received and each incoming frame is spitted into multiple blocks, where each block of the time series of incoming frames with a same position forms a time series of incoming blocks. A motion vector of each block is computed and projected onto multiple non-parallel axes to be assigned a sign. The projected motion vectors of each time series of incoming blocks with respect to each axis are respectively merged into a corresponding 1D waveform and converted into a frequency domain, and an observe area is located accordingly. A breathing frequency of the monitored subject corresponding to the observe area is determined and whether or not the monitored subject is breathing abnormally is thereby determined.

Abstract: A test apparatus including a cassette main body, a test strip and a pressurizing assembly is provided. The cassette main body has a sample entrance. The test strip is disposed in the cassette main body, and the sample entrance of the cassette main body exposes a sample collecting region of the test strip. The pressurizing assembly is detachably combined to the cassette main body, and is adapted to exert a pressure on a liquid sample located at the sample entrance, such that the liquid sample enters the sample collecting region, and reacts with the test strip to display a test result. The test apparatus is able to implement quick and convenience test, by which a complicated pre-processing of a test sample is omitted to save a time and test cost.

Abstract: A test strip analyser is provided. The test strip analyser includes a frame, a test control module and an optical system. The test control module is disposed in the frame and includes a test strip carrier of a plurality of test strip carriers and a sample container of a plurality of sample containers. The test strip carrier is disposed on the frame and adapted to hold a test strip. The sample container is adapted to contain a sample. The optical system is disposed above the frame and the test control module and includes a light sensor and controller. The light sensor is configured to capture an image of the test strip. The controller is connected to the light sensor to control the light sensor, and the light sensor feedbacks the image to the controller. In addition, an analysing method using the same is also provided.

Abstract: A multi-focal length range image capturing device including a device body, an image capturing circuit, and a processing circuit is provided. The image capturing circuit performs image capturing based on a focal length setting value and generates an image signal. The processing circuit controls the image capturing circuit to be operated in one of plural image capturing modes. When the image capturing circuit is operated in a first image capturing mode, the image capturing circuit sets a focal length range thereof to a first preset focal length range, so as to select the focal length setting value within the first preset focal length range. When the image capturing circuit is operated in a second image capturing mode, the image capturing circuit sets the focal length range to a second preset focal length range, so as to select the focal length setting value within the second preset focal length range.

Abstract: A method and an electronic apparatus for displaying reference locations for locating ECG pads and a recording medium using the method are provided. In the method, a body image is retrieved and a skin area in accordance with a skin color in the body image is detected. A feature analysis is performed on the skin area to detect two physical nipples and obtain locations of the two physical nipples in the body image. The relative locations of a plurality of ECG pads to one or two nipples predefined by medical statistics are retrieved to compute reference locations of the ECG pads in the body image according to the locations of the two physical nipples. Finally, the body image is displayed on the display and the reference locations of the ECG pads in the displayed body image are indicated.

Abstract: The disclosure provides a method, electronic device, and computer-readable storage medium for monitoring breathing activity. The method includes the following steps. A time series of incoming frames of a monitored subject is received and each incoming frame is spitted into multiple blocks, where each block of the time series of incoming frames with a same position forms a time series of incoming blocks. A motion vector of each block is computed and projected onto multiple non-parallel axes to be assigned a sign. The projected motion vectors of each time series of incoming blocks with respect to each axis are respectively merged into a corresponding 1D waveform and converted into a frequency domain, and an observe area is located accordingly. A breathing frequency of the monitored subject corresponding to the observe area is determined and whether or not the monitored subject is breathing abnormally is thereby determined.

Abstract: The invention provides a wearable device, a physiological information monitoring system and a physiological information monitoring method. The wearable device includes a device body, a measurement circuit, and a measurement trigger interface. The measurement circuit is disposed on the device body and adapted to perform a physiological information measurement operation to measure a physiological signal and generate physiological information accordingly. The measurement trigger interface is triggered to generate a measurement trigger signal. The measurement circuit performs the physiological information measurement operation in response to the measurement trigger signal.

Abstract: A multi-focal length range image capturing device including a device body, an image capturing circuit, and a processing circuit is provided. The image capturing circuit performs image capturing based on a focal length setting value and generates an image signal. The processing circuit controls the image capturing circuit to be operated in one of plural image capturing modes. When the image capturing circuit is operated in a first image capturing mode, the image capturing circuit sets a focal length range thereof to a first preset focal length range, so as to select the focal length setting value within the first preset focal length range. When the image capturing circuit is operated in a second image capturing mode, the image capturing circuit sets the focal length range to a second preset focal length range, so as to select the focal length setting value within the second preset focal length range.

Abstract: A hybrid detection apparatus including a detection device and a functional circuit is provided. The detection device is configured to execute a first detection function, so as to obtain first detection information. The functional circuit is suitable to be removably connected to the detection device. When the functional circuit is connected to the detection device, the detection device controls the functional circuit for performing a second detection function, so as to obtain second detection information. One of the first and the second detection functions is an image capturing function, and another one of the first and the second detection functions is a temperature detection function.

Abstract: A tongue holding device is provided. The tongue holding device is for pressing a tongue within a mouth cavity to capture an image of the mouth cavity. The tongue holding device includes a holder, a tongue pressing portion and an image capturing element. The tongue pressing portion and the image capturing element are disposed on the holder.