Abstract: An electronic device includes a base, a cover and a hinge module. The hinge module includes a hinge assembly, a support component, and an elastic component. The hinge assembly is pivoted to the base and the cover. The hinge assembly has a push portion and a rotating shaft portion. The push portion is connected to the base, and the rotating shaft portion is connected to the cover and is rotatably connected to the push portion. The support component is movably connected to the rotating shaft portion and leans against the push portion. The elastic component is connected between the rotating shaft portion and the support component. When the cover is unfolded relative to the base, the push portion pushes the support component to drive the elastic component to be extended, so that a support end of the support component protrudes from the cover.

Abstract: A method and an electronic device for evaluating a performance of an identification model are provided. The method includes: obtaining a source data sample, a plurality of test samples, and a target data sample; inputting the plurality of test samples into a pre-trained model trained based on the source data sample to obtain a normal sample and an abnormal sample; converting the source data sample to generate a converted source data sample, converting the normal sample to generate a converted normal sample, and converting the abnormal sample to generate a converted abnormal sample; adjusting the pre-trained model to obtain the identification model according to the converted source data sample and the target data sample; and inputting the converted normal sample and the converted abnormal sample into the identification model to evaluate the performance of the identification model.

Abstract: A charging device adapted to charge a mobile device includes a fixing base, a charging arm and a restoring member. The charging arm has a first arm end and a second arm end opposite to each other. The first arm end is pivotally connected to the fixing base. During a process of the mobile device docking with the second arm end of the charging arm, the charging arm is adapted to pivotally rotate relative to the fixing base to a docked position corresponding to the mobile device. The restoring member extends along a central axis and is connected to the fixing base and the charging arm. The restoring member provides an elastic potential energy to the charging arm, such that when the mobile device moves away from the charging device, the charging arm is moved from the docked position to an original position by the elastic potential energy.

Abstract: A portable electronic device includes a main system circuit, a storage, a power button, a power-off trigger circuit, a system power-off circuit, a power supply circuit, and a configuration power-off circuit. The power-off trigger circuit is coupled to the power button and provides a system power-off signal and a configuration power-off signal when the power button is detected to be continuously pressed and a pressing time is greater than a predetermined time. The system power-off circuit is coupled to the power-off trigger circuit and the power supply circuit and stops providing the main system circuit with a system power supply voltage provided by the power supply voltage according to the system power-off signal. The configuration power-off circuit is coupled to the power-off trigger circuit and the storage and drives the configuration power supply voltage provided to the storage down to a ground voltage according to the configuration power-off signal.

Abstract: An electronic device base includes an upper case, a lower case, a base, a first hook component and a second hook component, a solenoid valve assembly, and a near field communication assembly. The upper case has an electronic device accommodation slot; the lower case is assembled to the upper case; the base is disposed between the upper and lower cases; the first and the second hook components are both disposed at the base. When the electronic device is placed into the electronic device accommodation slot, the first and the second hook components are forced by the electronic device to move along a first direction and a second direction, respectively, so the second hook component restricts the first hook component. The near field communication component is capable of communicating with an unlocking component and driving the solenoid valve assembly to actuate the second hook component to release the first hook component.

Abstract: A rotatable ball joint is provided. The rotatable ball joint is adapted to enable an object to be rotatably assembled on a foot stand, where the foot stand includes a fixed hole. The rotatable ball joint includes a friction part, a shapeshifting sphere, and an assembly part. The shapeshifting sphere is adapted to be compressed from a first state to a second state. A size of the shapeshifting sphere in the first state is greater than a size of the fixed hole, and a size of the shapeshifting sphere in the second state is less than the size of the fixed hole. The shapeshifting sphere is adapted to be disposed in the fixed hole. The shapeshifting sphere is connected to the assembly part. The object is adapted to be assembled on the assembly part. The friction part is configured on an outer surface of the shapeshifting sphere.

Abstract: An electronic device includes a casing, a heat generating element, a heat dissipation plate, and a centrifugal fan. The casing has a front side, a rear side, a peripheral side, and a plurality of vents. The peripheral side is located between the front side and the rear side, and the vents are distributed on the peripheral side. The heat generating element and the heat dissipation plate are disposed in the casing, and the heat generating element covers the heat generating element. Heat generated by the heating generating element is conducted to the heat dissipation plate. The centrifugal fan is disposed in the casing and is located on a same side of the heat generating element and the heat dissipation plate. The centrifugal fan is adapted for omnidirectional air discharge and an airflow generated from the centrifugal fan dissipates the heat out of the casing through the vents.

Abstract: An antenna structure including a first radiator and a second radiator is provided. The first radiator includes a first section, a second section, and a third section. The first section has a feed-in end. The second section is adjacent to the first section and connected to a position of the first section close to the feed-in end. The third section is connected to the second section and the feed-in end to encircle a space. The second radiator is disposed around the first section and the second section. The second radiator includes a first end and a second end opposite to each other. The first end is a ground end. A coupling interval is formed between the second end and the third section. A first frequency band, a second frequency band, and a third frequency band are resonated by the first radiator and the second radiator.

Abstract: A luminance compensation method is provided. The luminance compensation method includes: establishing a time-varying luminance sequence according to an average luminance value of a plurality of sampled display devices in each unit time during an initial start-up period; establishing an operating luminance sequence according to an average operating luminance value of the sampled display devices under a plurality of different driving condition values after the initial start-up period; generating a driving condition value look-up table according to the time-varying luminance sequence and the operating luminance sequence; and obtaining compensation driving condition values in each unit time according to the driving condition value look-up table and the time-varying luminance sequence and accordingly establishing a time-varying compensation sequence, such that a display device drives a backlight module according to the time-varying compensation sequence in each time unit during the initial start-up period.

Abstract: A shockproof element is applied to an electronic element. The shockproof element includes a first elastic portion, a second elastic portion and a connecting portion. The first elastic portion defines an opening. The second elastic portion is disposed corresponding to the first elastic portion. The second elastic portion includes a hollow column. The hollow column extends from the second elastic portion into the opening of the first elastic portion. The hollow column can fix the electronic element, and the first elastic portion and the second elastic portion jointly hold the electronic element. The connecting portion connects to the first elastic portion and the second elastic portion. An electronic device, which includes the shockproof element, the electronic element, a first housing and a second housing, is also provided.

Abstract: A case structure includes an inner case base, a buffer outer case and a torsional spring. The inner case base has a corner area and a fixing column located at the corner area. The buffer outer case is movably overlapped on an outer side of the corner area. The torsional spring is sleeved on the fixing column and located between the buffer outer case and the inner case base. A first end and a second end of the torsional spring are respectively connected to the buffer outer case. When the force exerted on the buffer outer case causes the buffer outer case to move relative to the inner case base, the torsional spring correspondingly deforms and stores elastic potential energy. When the force exerted on the buffer outer case disappears, the torsional spring releases the elastic potential energy to reposition the buffer outer case.

Abstract: A flexible printed circuit board and an electronic device using the same are provided. The electronic device includes a first casing, a second casing, and a printed circuit board combination. The printed circuit board combination includes a first printed circuit board, a second printed circuit board, and a flexible printed circuit board. The flexible printed circuit board includes a body portion, a first extending end, and a second extending end. The body portion defines an opening. The first extending end bends from a first side of the body portion toward the body portion and extends toward a first direction after passing through the opening to connect the first printed circuit board. The second extending end extends from a second side of the body portion toward a second direction to connect the second printed circuit board.

Abstract: A tracking system includes an image capture device, a memory and a processor. The image capture device is used to capture a video stream in a target area. The memory stores face information. The processor reads the face information from the memory and reads the video stream from the image capture device. The processor is used to identify a face matching the face information in the video stream to track the movement of the face in the target area. The processor is used to determine whether a distance between the face and the image capture device is greater than a predetermined distance. The processor is used to track the movement of a human figure corresponding to the face in the target area when the processor determines that the distance is greater than the predetermined distance.

Abstract: The present invention discloses a quick data browsing method for an electronic device. The electronic device stores a plurality of data set. The quick data browsing method includes: displaying initial data of the data set on a screen of the electronic device, the data set being cyclically arranged; receiving a gesture and determining whether the gesture is consistent with a preset gesture; when the gesture is consistent with the preset gesture, obtaining an offset based on an angle of the gesture relative to a central line of the screen; and finding target data based on the offset and displaying the target data. In the quick data browsing method, data can be quickly shifted through a specific gesture, and a user can quickly find required data.

Abstract: A quick releasing device, which is adapted to be fixed in or removed from a slot of a casing, is provided. The quick releasing device includes a frame, an arm and a handle. The frame has a hole. The arm is disposed at one side of the frame and a part of the arm corresponds to the hole. The handle is rotatably disposed at another side of the frame to rotate between a working position and a retracting position. The handle includes a pressing member whose position corresponds to the hole. The pressing member of the handle passes through the hole of the frame and pushes the arm when the quick releasing device is inserted into the slot of the casing and the handle is rotated from the working position to the retracting position, deforming the arm and interfering with a wall surface of the casing beside the slot.

Abstract: A casing structure including a first housing, a glue layer, and a second housing is provided. The first housing has a first inner edge. The glue layer is disposed at the first inner edge. The second housing has a second inner edge. The first housing is assembled to the second housing, and the first inner edge is aligned with the second inner edge. The glue layer abuts against the second inner edge so as to combine the first housing with the second housing. A gap formed between the glue layer and a part of the second inner edge is defined as a glue overflow buffer area.

Abstract: The disclosure provides a light-emitting element inspection device optically connected to at least one light-emitting element of a test object and including a dark box, a slide rail, an image-capturing device, a light-entrance plate, and a processor. The slide rail and the image-capturing device are disposed in the dark box. The image-capturing device slides on the slide rail. The light-entrance plate is disposed on one side of the dark box and has at least one hole optically connected to the light-emitting element. The image-capturing device is aligned with the light-entrance plate to capture an image of the light-entrance plate. The processor is coupled to the image-capturing device and is adapted to obtain a set of RGB values of the image, convert the RGB values into a set of HSV values, and determine whether the light-emitting element of the test object conforms to a standard based on the HSV values.

Abstract: A socket structure includes a casing, a switch, a linkage, a first hook, a gear, a rotating arm, and a second hook. The switch is exposed from the casing and disposed movably to the casing along a first direction or a second direction. The linkage is located in the casing and linked to the switch, and has a rack. The first hook is exposed from the casing and linked to the linkage. The gear is located in the casing and engages with the rack. The rotating arm having one end pivotally connected to the gear is located in the casing. The second hook is exposed from the casing and linked to the other end of the rotating arm. When the switch moves along the first direction, the linkage drives the first hook to move, the gear drives the rotating arm, and the second hook moves to an unlocked position.

Abstract: An object detection system includes an image capture device, a memory, and a processor. The image capture device captures an image. The memory stores an instruction corresponding to an inference engine based on a multi-scale convolutional neural network architecture including a first, a second, and an object detection scale. The processor executes the instruction to: reduce network widths of convolution layers of the second scale; run the inference engine according to the adjusted convolutional neural network architecture to receive the image as an initial input; input a first output generated by the first scale according to the initial input into the second and the object detection scale; input a second output generated by the second scale according to the first output into the object detection scale; generate a final output according to the first and the second output by the object detection scale, to perform object detection on the image.

Abstract: A charging device adapted to charge an automatic moving device includes a case, an electricity supply end, a baffle, an arm below the baffle, a blocking assembly on the arm, and a follower. The automatic moving device includes a driving part and an electricity reception end. The case has an opening. The baffle is pivotally connected to the case to cover or expose the opening. The arm has a fixed end and a free end. The blocking assembly is located at an inner side near the opening and movably located on a rotating path of the baffle. The follower is disposed on the free end. When the driving part approaches the opening, the follower moves away from the driving part to drive the blocking assembly to leave the rotating path. The automatic moving device pushes away the baffle, so that the electricity reception end docks with the electricity supply end.