AmTRAN Technology Co., Ltd.

A method for controlling a hardware equipment in an actual space based on real-time atmosphere information, an electronic apparatus, and a computer-readable recording medium are provided. The method includes: collecting at least one real-time environmental information in the actual space; analyzing the at least one real-time environmental information and obtaining real-time emotional information of a plurality of persons in the actual space, wherein the real-time emotional information includes types of emotional appearances of the plurality of persons; counting the types of emotional appearances of the plurality of persons to obtain a plurality of statistical parameters of real-time emotions; inputting the statistical parameters of the real-time emotions into a deep learning model to determine real-time atmosphere status in the actual space; determining the hardware equipment corresponding to the real-time atmosphere status in the actual space; and generating a signal to control the hardware equipment corresponding to the real-time atmosphere status.

A touch device including a touch panel and a cover plate is provided. The cover plate is disposed on the touch panel. A surface of the cover plate away from the touch panel includes multiple microstructures. The microstructures are formed by using a yellow light process and a wet etching process, and the microstructures have a micron-level structure or a nano-level structure. A manufacturing method of the touch device is also provided.

A backlight module is applied to a vehicle display and includes a substrate, a light guide and a light-transmitting buffer. The substrate has at least one light emitting element. A supporting portion is disposed on a corner of the light guide. The light-transmitting buffer is disposed inside a gap between the substrate and the supporting portion and configured to cover the light emitting element, so as to prevent the supporting portion from impacting the substrate.

A processing method for a plurality of image sources, for a display device includes inputting a plurality of image sources; detecting the plurality of image sources according to metadata of the a plurality of image sources to determine electro-optical transfer function (EOTF) corresponding to the a plurality of image sources; and dynamically applying different EOTFs on corresponding image sources.

A backlight module includes a circuit board, light-emitting elements, an optical element and a reflective element. The light emitting elements are disposed on the circuit board. The light emitting elements are disposed between the optical element and the circuit board. There is no other optical component between the optical element and the light-emitting elements. The optical element has a light guide portion composed of a non-light diffusing material. The reflective element is disposed on the circuit board and is located between the optical element and the circuit board. The reflective element includes a grid portion. The grid portion separates the light emitting elements. The grid portion has openings, and the light-emitting elements are respectively disposed in the openings. A top surface of the grid portion is higher than the light-emitting elements in a first direction, and a gap is between the grid portion and the optical element.

A method for editing an image, an image processing apparatus, and a computer-readable recording medium are provided. The image processing method includes at least the following steps: determining a scene corresponding to an image sequence and processing the image sequence according to the scene to create a multimedia file.

A method for automatically activating a video conference meeting device, wherein the video conference meeting device includes a power supply, a main processor and a plurality of peripheral components, and a radar detector connects to the video conference meeting device, the method comprises (a) the radar detector detecting with a radar detection coverage when the video conference device is in a standby state; (b) when the radar detector detects an object appearing in the radar detection coverage, obtain a position of the object detected in the radar detection coverage; (c) the radar detector obtaining boundary information of an effective zone and determining whether the position of the detected object is within the effective zone; (d) when the radar detector determines that the position of the detected object is within the effective zone, activating the video conference meeting device which loads an operation program.

A touch screen includes a power supply unit, configured to supply power; an image capturing unit, configured to capture images; a storage unit, configured to temporarily store screen content; an image display unit, configured to display the screen content; and a processing unit, coupled to the power supply unit, the image capturing unit, the storage unit, and the image display unit, configured to execute an image display method. The image display method includes capturing an image of an area in front of the touch screen; determining a position of a speaker according to the image, and determining a blocked area and an unblocked area according to the position; and displaying screen content related to the blocked area in the unblocked area.

A columnar illumination component includes a columnar body and a light-emitting component. The columnar body has two first side portions, and two second side portions. Each of the first side portions is adjoined to the second side portions, each of the second side portions is adjoined to the first side portions, and an elongated channel is jointly defined by the first side portions and the second side portions. The light-emitting component is located inside the elongated channel, and includes two light guides and two light source modules where the light guides are respectively fixed on the first side portions. The light source modules are respectively fixed on the second side portions, and each of the light source modules emits lights towards one of the light guides, and outputs the lights outwardly through the light guide.

An audio processing method includes the following steps of capturing audio data by a microphone array to compute frequency array data of the audio data; computing a power sequence of degrees by using the frequency array data; and computing a difference value between a maximum value of the power sequence of degrees and a minimum value of the power sequence of degrees to determine whether the degree corresponding to the maximum value is a source degree relative to the microphone array.