Abstract: A portable electronic apparatus and a method for using the same are provided. The portable electronic apparatus includes a first body, a first pivot portion, a second body pivotally connected to the first body through the first pivot portion, and a display. The second body includes a stand portion and two control portions respectively connected to two opposite sides of the stand portion. The display is disposed between the two control portions. A second pivot portion of the display is pivotally connected to the stand portion. When the display is folded onto the first body along with the second body, a display surface of the display faces a same side as the two control portions, thereby placing the portable electronic device in a game mode. When the display is rotated and unfolded relative to the first body along with the second body, the display surface of the display faces away from the two control portions, thereby placing the portable electronic device in a productivity mode.

Abstract: An electronic device and a thermal control method thereof are provided. The device includes a body and a heat source, an active fan, a heat pipe, an ionic fan, and two temperature sensors disposed in the body. The heat source includes a processor. The active fan, the ionic fan, and the two temperature sensors are electrically coupled to the processor. The two temperature sensors detect temperatures at different positions of the heat pipe. The processor applies a driving voltage to the ionic fan and determines whether to turn on the active fan based on a determination result of detection signals from the two temperature sensors.

Abstract: An electronic device and an operation method are provided. The operation method may include the following steps: displaying a user interface through a display of the electronic device; displaying a first menu corresponding to the user interface through a touch display of the electronic device; in response to receiving a first touch operation on the first menu by the touch display, switching the touch display to display a slider, displaying a second menu in the user interface through the display, and synchronously displaying a first extended color block through the display and the touch display, wherein the first extended color block connects the slider and the second menu; and in response to receiving a second touch operation on the slider by the touch display, moving the slider and the first extended color block.

Abstract: An AI-assisted production line operation manual generation system and an AI-assisted production line operation manual generation method are provided. The AI assisted production line operation manual generation system includes a wearable device, an AI image processing module, and an AI information processing module. The wearable device is configured to acquire image data. The AI image processing module is configured to analyze the image data to generate production line operation context information. The AI information processing module is configured to compare the production line operation context information, workstation information, and workstation operation information to classify the image data into at least one of a plurality of workstation information categories, and generate a production line operation manual report. The production line operation manual report includes a plurality of pages, and each of the plurality of pages includes a first area and a second area.

Abstract: An image projection method and a projection system are provided. In the method, a captured image corresponding to a projection range of a projector is obtained. An object area and a shadow area are identified from the captured image. The object area corresponds to an object, and the object area is connected to the shadow area. A projection area within the projection range is determined according to the object area and the shadow area. The object area and the shadow area are outside the projection area. Extended information of the object is generated, and the extended information is projected to the projection area through the projector. An artificial intelligence model is used to detect and avoid the shadow area, and completeness and visibility of the projected information are ensured accordingly.

Abstract: An electronic device includes a first housing, a second housing mounted on the first housing, a carrier disposed between the first and second housings, and an ion fan disposed on the carrier. The first housing includes a bottom portion having an air inlet area and a side edge portion surrounding the bottom portion. The carrier includes a frame and a supporting base extending from the frame. The frame and the supporting base partially cover part of the bottom portion other than the air inlet area. The ion fan includes a driver disposed on the supporting base, a flow shroud disposed on the supporting base or the frame and having an air duct, an emitter electrode electrically coupled to the driver and disposed in the air duct, and a collector electrode disposed opposite to the emitter electrode in the air duct. A housing structure including an ion fan is also provided.

Abstract: An artificial intelligence (AI) agent system and an AI agent method are provided. The AI agent system includes an agent repository management module, an agent register module, an agent proxy interface module, and a core scheduling module. The agent register module is coupled to the agent repository management module. The agent repository management module manages the functional descriptions, version information, message channel application interfaces, health status, and access control information of multiple AI agent modules recorded in the agent register module. The agent proxy interface module is coupled to the agent repository management module and the multiple AI agent modules. The core scheduling module is coupled to the agent proxy interface module.

Abstract: A display method and a smart display device for collectively changing display contents of a shell body of a transportation vehicle are provided, including setting first display contents of the display element for normal display; setting second display contents of the display element being different from the first display contents; obtaining positioned locations of a plurality of the transportation vehicles by a central control system. When any transportation vehicle satisfies a predetermined condition, the central control system issues the display control signal to the transportation vehicle according to the positioned location, and the smart display device of the transportation vehicle automatically receives the display control signal for the display element to change the first display contents to the second display contents, so that one or more of the transportation vehicles can collectively change the display contents.

Abstract: A battery module and an operation method thereof are provided. The battery module includes multiple battery cells and a controller. Each of the battery cells has a power voltage terminal and a reference voltage terminal. The power voltage terminals of the battery cells are commonly coupled to a power voltage line of the battery module. The reference voltage terminals of the battery cells are commonly coupled to a reference voltage line of the battery module. Electrical energy of the power voltage line and the reference voltage line is used to supply power to a load system outside the battery module. The controller is coupled to the power voltage line and the reference voltage line to monitor charging and discharging operations of the battery cells.

Abstract: An electronic device includes a housing, a plurality of frequency selective surface (FSS) elements and a plurality of electronic elements. The housing includes a heat dissipation area. The FSS elements are disposed in the heat dissipation area of the housing. Each of the FSS elements includes a hole. The electronic elements are disposed in the housing, and the heat generated by the electronic elements is discharged from the heat dissipation area through the holes of the FSS elements.

Abstract: An electronic device including a first body, a second body and at least one pivot module is provided. The pivot module includes a first transmission wheel, a linkage assembly, a first sliding member, a first driven member and a first rope. The linkage assembly is connected to the first body and the second body. The first sliding member is connected to the first body and linked to the first transmission wheel. The first driven member is connected to the first transmission wheel and the linkage assembly. The first rope is connected to the first sliding member and the first transmission wheel. The rotation of the first body drives the first driven member and the linkage assembly to move, thereby driving the first transmission wheel to rotate, so as to drive the first sliding member and at least part of the first body to slide relative to the linkage assembly.

Abstract: A control method for a detachable system and the detachable system are provided. The detachable system includes a host device and an assistant device, and the host device and the assistant device are detachable or combinable. In the control method, posture information of the assistant device is detected. State information of the host device and the assistant device is detected, where the state information is one of a detach state and a combined state. A target function among multiple interactive functions between the host device and the assistant device is activated according to the state information or the posture information. Accordingly, functional modes could be switched through intuitive operations, thereby enhancing human-computer interaction experience.

Abstract: A handling system and a control method thereof are provided. The system includes a mobile vehicle, a robotic arm, a lifting mechanism, a first sensor, a second sensor, and at least one controller. The controller controls a platform of the lifting mechanism to perform a first movement according to a target height detected by the first sensor. In response to the first movement, the controller controls the platform to perform a second movement according to a height difference between the platform and a target position, where the height difference is measured by the second sensor. Therefore, accuracy and stability of alignment of the handling system could be effectively improved.

Abstract: A functional operation system and a functional operation method thereof are provided. In the method, a depth of an operating object in a depth image is detected, and a depth value corresponding to a depth axis is generated. A target function is selected according to the depth value. A movement trajectory of the operating object on an operating axis is detected, and a corresponding operating value is generated, where the operating axis is perpendicular to the depth axis. A function value of the target function is adjusted according to the operating value.

Abstract: An electronic device includes a first casing including a first closed slot, a second casing assembled with the first casing and including a second closed slot, and an antenna module including a substrate and an antenna structure. The substrate is disposed in the first casing and covers the first closed slot, and an orthographic projection of the first closed slot on the substrate at least partially overlaps an orthographic projection of the second closed slot on the substrate. The substrate has opposing first and second surfaces, with the first and second surfaces facing the first and second closed slots. The antenna structure is disposed on the second surface, and an orthographic projection of the antenna structure on the substrate at least partially overlaps the orthographic projection of the first closed slot on the substrate. The antenna structure is configured to be excited to generate a first high frequency resonance mode.

Abstract: An image interaction system and an image interaction method are provided. The system includes a projector, a depth sensor, and a processor. The projector projects an image onto a projection surface. The depth sensor detects depth information of the projection surface. The processor changes an image content of the image according to a variation of the depth information.

Abstract: A consumable component of an injecting physiological monitor includes a housing, an injecting module, a physiological monitor, and a carrier. The injecting module is movably assembled on the housing. The physiological monitor is disposed in the housing and located on a movement path of the injecting module. A part of a structure of the physiological monitor is accommodated in a part of a structure of the injecting module. The carrier is disposed in the housing and located on a movement path of the injecting module and the physiological monitor. The carrier and the physiological monitor are separated from each other and located on opposite sides of the housing. The housing and the injecting module are adapted to be assembled to an injector. The injector is adapted to drive the physiological monitor to be assembled to the carrier through the injecting module.

Abstract: The present disclosure provides a helical antenna. The helical antenna includes a feeder board and four radiation components. The four radiation components are electrically coupled with the feeder board, respectively. A dielectric space is formed among the feeder board and the four radiation components. The four radiation components are circularly arranged at intervals, and any cross-section of the four radiation components parallel to a top surface of the feeder board is circular. Each of the four radiation components includes a feeding unit and a radiation portion. The feeding unit is electrically coupled between the radiation portion and the feeder board. The radiation portion is configured to transmit and receive a wireless signal in a first frequency band. An end of the radiation portion is in connection with the short circuit portion, and the other end of the radiation portion is in connection with the feeding portion.

Abstract: An antenna module includes a carrier, a grounding part, a first and a second radiation part, a feeding part, and a matching part. The first radiation part and the grounding part are respectively located on the carrier’s top and bottom sides. The feeding part is located between the grounding part and the first radiation parts. The first radiation part is excited by the feeding part and connected with the grounding part to resonate a first resonant frequency band. The second radiation part is located between the first radiation part and the grounding part. A first coupling gap is between the first and the second radiation part. The matching part is located between the first radiation part and the grounding part and is adjacent to the second radiation part which is coupled with the first radiation part through the first coupling gap to resonate a second resonant frequency band.