Abstract: A scanner cover including a first plate and a second plate is provided. The first plate has a first surface; multiple compressible and deformable elastic structures are arranged protruding on the first surface. The second plate is stacked on the first plate and the second plate has a second surface facing to the first surface, the elastic structures are contacted with the second surface, and deformation of each elastic structure is contained in the second plate while the elastic structures are compressed. While the first plate and the second plate are pressed to move close to each other, the elastic structures are compressed and a restoring force is thereby provided between the first plate and the second plate.

Abstract: The invention provides a wireless charging system and a wireless charging method. The method includes: sending a first control signal by a processor; moving a wireless charging apparatus to a first position near an electronic apparatus according to a first control signal by a moving platform; and wirelessly charging the electronic apparatus by the wireless charging apparatus.

Abstract: A computer-implemented method for displaying a reception status of a beacon on an electronic map is provided. The electronic map is loaded and displayed. A location of the beacon located on the electronic map is determined to obtain a location data. A signal region corresponding to a signal intensity range of the beacon located on the electronic map is determined based on the location data. A line of sight (LOS) region and a non line of sight (NLOS) region of the beacon corresponding to an obstruction information on the electronic map are determined based on the location data. A cartographic drawing is executed and displayed on the electronic map based on the signal region, the LOS region and the NLOS region.

Abstract: A toy building system and a peripheral assemblage thereof are disclosed. The peripheral assemblage includes a plug-in apparatus and a function apparatus. The plug-in apparatus includes a battery module, a wireless transmission module, and a plug-in connection module. The function apparatus includes a function module, a wired transmission module, a function connection module, and a control module. The function apparatus is connected to another assemblage in a wired manner through the wired transmission module to form a data connection and a power connection. The function apparatus is detachably connected to the plug-in apparatus to form the power connection to the battery module and forms a data connection to another assemblage through the wireless transmission module. Accordingly, the function apparatus is immediately upgraded to a wireless function apparatus, thereby increasing the flexibility of use and enhancing the experience of use.

Abstract: A packing box including a box body and a cover body is provided. The box body includes a bottom plate and first side plates connected to the bottom plate. The bottom plate and the first side plates collectively encircle an accommodation space. One of the first side plates includes a first tongue piece extending out of the accommodation space. The first tongue piece includes a fixing end and a free end. The cover body includes a top plate and a second side plate. The top plate is pivotally connected to the box body, such that the top plate is adapted to be opened or closed to expose or shield the accommodation space. The second side plate includes a first inner layer and a first outer layer stacked with each other. The first inner layer has a notch, and the notch is close to one side of the top plate and corresponds to the first tongue piece. When the cover body is closed to the box body, the free end strikes the first outer layer of the second side plate to produce a sound.

Abstract: A method of tracking target object includes following steps of: controlling a following robot to capture a target object for obtaining a comparison image; determining in the comparison image a plurality of sampling particles corresponding to the target object; calculating a predicted position of each sampling particle; moving toward a predicted direction corresponding to the predicted positions for following the target object; re-sampling the sampling particles according to a difference between a reference image and the comparison image; configuring the compare image as the new reference image; and, performing above-mentioned steps repeatedly until the following robot stops following the target object. Therefore, the analysis efficiency and stability of tracking effectively can be improved; the real-time following and the following robot operate without a signal transmitter can be achieved as well.

Abstract: An automatic control apparatus including a controller and a motor device is provided. The motor device includes an output shaft. The controller drives the motor device so that the motor device is operated in a non-fixed mode or a fixed mode. If the motor device is operated in the fixed mode, a rotation angle of the output shaft of the motor device is maintained at a target angle. When the controller determines that the rotation angle of the output shaft is changed, if the controller determines that a difference between a current angle and the target angle exceeds a threshold angle, the controller resets the target angle by the current angle, so that the output shaft is maintained at a reset target angle. In addition, an automatic control method is also provided.

Abstract: A computation apparatus, a cardiac arrhythmia assessment method thereof and a non-transitory computer-readable recording medium are provided. In the method, electrocardiography (ECG) signal is obtained. Whether the ECG signal is conformed to a first abnormal rhythm symptom is determined. Then, whether the ECG signal is conformed to a second abnormal rhythm symptom different from the first abnormal rhythm symptom is determined based on the determined result of the first abnormal rhythm symptom. Accordingly, multiple abnormal rhythm assessments are integrated, the subsequent assessment is speeded-up and optimized according to the determined result of a previous assessment, so as to enable to implement on a handheld apparatus.

Abstract: A remote control system including a remote control device and a first controllable device is provided. The remote control device has a wireless communication module, and is configured to execute a pairing connection operation. The first controllable device has a wireless communication function, and is configured to transmit first identification information. When executing the pairing connection operation, the remote control device obtains the first identification information of the first controllable device through the wireless communication module. The remote control device continuously updates and records the first identification information within a preset time range. The remote control device determines whether signal strength of the first controllable device has undergone a preset change within the preset time range based on the first identification information, and if so, the remote control device decides to connect to the first controllable device through the wireless communication module.

Abstract: A covering structure for cable adaptable for connecting between a first and a second electronic modules that are electrically connected via a cable. When the first electronic module is pivoted relative to the second electronic module to be opened, a portion of the cable is exposed outside the first and the second electronic modules. The covering structure for cable includes a cover, a first shaft, and a second shaft. The first shaft is disposed on one side of the cover and pivoted to the first electronic module; the second shaft is disposed on an opposite side of the cover and pivoted to the second electronic module. The first electronic module is opened/closed relative to the second electronic module and drives the cover such that the cover covers a portion of the cable that is exposed outside the first and the second electronic modules when being opened.

Abstract: A method of driving a manned vehicle includes following steps of: acquiring correspondingly initial weight values of a plurality of weight sensors, each weight sensor is corresponding to a direction; acquiring correspondingly weight measurement values by the weight sensors; calculating correspondingly a weight ratio of each weight sensor according to the initial weight value and the weight measurement value of each weight sensor; producing a control command according to the direction corresponding to the weight sensor when the weight ratio of any one of the weight sensors is greater than a first threshold value; and driving the manned vehicle to move according to the control command. Accordingly, it is to effectively reduce the size and weight of the manned vehicle and reduce the difficulty of controlling the manned vehicle by intuitively controlling moving directions of the manned vehicle according to variations of the center of gravity of a user.

Abstract: A wearable device capable of recognizing sleep stage including a processor, an electrocardiogram sensor, an acceleration sensor and an angular acceleration sensor is provided. The processor trains a neural network module. The electrocardiogram sensor generates an electrocardiogram signal. The processor analyzes the electrocardiogram signal to generate a plurality of first characteristic values. The acceleration sensor generates an acceleration signal. The processor analyzes the acceleration signal to generate a plurality of second characteristic values. The angular acceleration sensor generates an angular acceleration signal. The processor analyzes the angular acceleration signal to generate a plurality of third characteristic values. The processor utilizes the trained neural network module to perform a sleep stage recognition operation according to the first characteristic values, the second characteristic values and the third characteristic values, so as to obtain a sleep stage recognition result.

Abstract: A wearable device capable of recognizing doze-off stage including a processor and an electrocardiogram sensor is provided. The processor trains a neural network module. The processor is coupled to the electrocardiogram sensor. The electrocardiogram sensor is configured to generate an electrocardiogram signal. The processor performs a heart rate variability analysis operation and a R-wave amplitude analysis operation to analyze a heart beat interval variation of the electrocardiogram signal, so as to generate a plurality of characteristic values. The processor utilizes the trained neural network module to perform a doze-off stage recognition operation according to the characteristic values, so as to obtain a doze-off stage recognition result. In addition, a recognition method is also provided.

Abstract: A wearable device capable of detecting sleep apnea comprising a processor and an electrocardiogram sensor is provided. The processor trains a neural network module to create a sleep apnea detection model. An electrocardiogram sensor senses an electrocardiogram signal of a sleep situation. The processor analyzes the electrocardiogram signal to detect a plurality of R-waves in the electrocardiogram signal. The processor performs an R-wave amplitude analysis operation, an R-wave angle analysis operation, and a heart rate variability analysis operation according to the R-waves to obtain a plurality of characteristic values. The processor utilizes the trained sleep apnea detection model to perform a sleep apnea detection operation based on the characteristic values, so as to detect whether the sleep situation has a sleep apnea event.

Abstract: A data generating method is implemented by a computing system for three-dimensional (3D) printing, and includes the steps of receiving a 3D graphic file and a printing profile containing printing parameters associated with 3D printing for the 3D graphic file; recording a correspondence between the 3D graphic file and the printing profile; and combining the 3D graphic file and the printing profile according to the recorded correspondence to generate a printing data file.

Abstract: A 3D printing apparatus including a light source, a DMD, a projection lens and a photo sensor is provided. The light source emits a light. The DMD is disposed on a transmission path of the light, and has multiple first micromirrors and second micromirrors. The first micromirrors reflect a first part of the light to the projection lens. The projection lens projects the first part of the light to a working liquid to cure the same. The second micromirrors reflect a second part of the light to the outside of the projection lens. By monitoring intensity of the second part of the light, it is determined whether an intensity of the light is decayed. Since the photo sensor is disposed on the transmission path of the second part of the light, allocation of the photo sensor does not influence image resolution and/or image range.

Abstract: A laser module with removable structures of three-dimensional printer includes a platform, a carrying seat and a laser module. The platform has a working side and a movement mechanism; the movement mechanism at least has a displacement rod. The carrying seat is disposed on the displacement rod, and the movement mechanism drives the carrying seat to move on the working side along the displacement rod. The carrying seat has an assembly portion, and the laser module is disposed on the assembly portion of the carrying seat and detachably integrated with the assembly portion as a whole. Thereby the purposes of fast and convenient disassembly can be achieved through assembling the laser module on the carrying seat.

Abstract: An automotive intraoral scanner applied in a mouth includes a biting piece, a track piece and at least one mobile image processing set. The biting piece is sandwiched between two rows of teeth. The track piece is installed in the biting piece and disposed corresponding to the rows of teeth, and a shape of the track piece is similar to a shape of the rows of teeth. The mobile image processing set is installed on the track piece and moved along the track piece, and the mobile image processing set is disposed corresponding to the rows of teeth. Therefore, the automotive intraoral scanner has advantages of easy operation.

Abstract: A slicing printing method for color 3D model is disclosed. The method comprises following steps of: building a color 3D object into a coloring model; dividing the coloring model into a plurality of color cells, wherein a shell of each of the color cells forms an accommodating space configured to accommodate a color material; setting respectively the color of the color material accommodated by each color cell according to the color of the color 3D object and generating a printing color data corresponding to the color 3D model; generating a printing object data associated with the printing color data according to the color cells. The disclosed example can effectively realize the printing of the color 3D model through the inkjet manner via generating color cells configured to accommodate color materials.

Abstract: A temperature control method of printing and a device thereof are provided, wherein the method and the device is adapted to a 3D printer which has a discharge nozzle. The control method includes the following steps. A temperature rule table is provided, and the temperature rule table is formed by a printing speed parameter and a discharge speed parameter of the 3D printer. At least one printing speed information and at least one discharge speed information are received. Corresponding temperature information is obtained from the temperature rule table according to the printing speed information and the discharge speed information. Further, a temperature of the discharge nozzle is adjusted according to the printing speed information, the discharge speed and the at least one temperature information.