Abstract:
Intelligent terminal equipment and information transmission method and system using the same are disclosed. The method includes that intelligent terminal equipment reads the local contact information, generates a signature to be an original signature which has a corresponding terminal identifier based on the local contact information, and transmits the original signature and the terminal identifier to the server for saving the original signature and the terminal identifier in the server. The method further includes that intelligent terminal equipment captures the information transmission request, accesses the original signature generated by the local contact information, and transmits a processing information to the server to compare with the saved signature in the server for an identification process, in which the processing information includes the terminal identifier, the transmission information and the original signature. The present invention can improve the security of the information transmission for the intelligent terminal equipment.
Abstract:
A system of rapid prototyping, comprises a calculate controller, a stage, a deliver, a frame former, a filler and a forming machine. A board material was disposed on the stage by the deliver. The frame former heats up the board material to melt the board material and then forms at least a space on the board material. The filler fills a solidable liquid into the space. The deliver disposes another board material on the board material filled with solidable liquid and repeats the abovementioned steps until the plurality of spaces constitute the target article. And then the forming machine heats up the board materials to melt the board materials, meanwhile, the solidable liquid is solidified to form the target article. Wherein the calculate controller connects and operates the deliver, the frame former, the filler and the forming machine.
Abstract:
An adjustable printing-height three-dimensional printer includes a base, an elevating module, a working platform, a nozzle bracket, a printing nozzle, and a driver. The elevating module is disposed on the base. The working platform is located proximal to the base. The nozzle bracket is operably engaged with the first elevating module. The printing nozzle is operably engaged with the nozzle bracket and is configured to print on the working platform. The driver is configured to drive the elevating module to move the nozzle bracket along an axial direction, so as to make the printing nozzle to move toward or away from the working platform.
Abstract:
A multiaxial robot includes a first rotation module, a second rotation module, and an elevator member. The first rotation module includes a base and a plurality of arms. The arms are configured to rotate parallel to a first plane relative to the base. The second rotation module includes at least one wrist. The wrist is connected to the farthest arm arranged from the base in the first rotation module and configured to rotate parallel to a second plane relative to the first rotation module. The elevator member is pivotally connected to the base and connected to an adjacent one of the arms, or is connected between adjacent two of the arms and the wrist. The elevator member is configured to elevate components of the multiaxial robot arranged after the elevator member relative to the base in an elevating direction.
Abstract:
An unmanned aerial vehicle (UAV) and a landing method thereof are provided. The landing method includes the following steps. Firstly, a depth image of a scene is obtained. Next, a landing position is determined in accordance with the depth image. Next, a height information of the landing position is obtained. Next, a plurality of relative distances of the landing gears relative to the landing position are adjusted in accordance with the height information to make the relative distances substantially the same. Then, the UAV lands on the landing position.
Abstract:
A method for printing a multi-color three dimensional (3D) object includes the following steps. A 3D object is layered to configure multiple layer-printing documents. The multiple layer-printing documents are integrated into a model printing document of the 3D object. The 3D object is printed according to the model printing document.
Abstract:
A mode switching method of wearable equipment and the wearable equipment are disclosed. The method comprising: confirming a current mode being a sleep mode, detecting an accumulated time of a motion state, judging whether the accumulated time is greater than a first predetermined time period and switching to a fake sleep mode if it is; and detecting an accumulated footsteps and a sleep state, which by judging whether the accumulated footsteps in a second predetermined time period is greater than a threshold footsteps and switching to the motion state if it is; and judging whether the second predetermined time period is experienced in the sleep state and switching to the sleep mode if it is. The present invention can improve the accuracy, while reducing power consumption.
Abstract:
A dual power-source testing apparatus for testing a communication board and communication testing method thereof are disclosed. The communication testing apparatus comprises a main body, a first power supply module, and a second power supply module. The main body has a communication testing area with a first port and a second port for supplying power, wherein the board is to be placed in the communication testing area. The first power supply module is configured to provide first power to the communication board through the communication testing area while performing a charging operation to the second power supply module. The communication testing method is to be performed similarly in a communication testing apparatus using dual power sources. Using the present invention may keep good qualities of communication testing operations being performed to the communication board.
Abstract:
An adjustable printing-height three-dimensional printer includes a base, an elevating module, a working platform, a nozzle bracket, a printing nozzle, and a driver. The elevating module is disposed on the base. The working platform is located proximal to the base. The nozzle bracket is operably engaged with the first elevating module. The printing nozzle is operably engaged with the nozzle bracket and is configured to print on the working platform. The driver is configured to drive the elevating module to move the nozzle bracket along an axial direction, so as to make the printing nozzle to move toward or away from the working platform.
Abstract:
A three-dimensional printing modeling apparatus for hand-written characters and a method thereof are disclosed. Based on the fact that hand-written characters can be finished in one stroke, the present disclosure includes identifying linking feature information of strokes inside or between the hand-written characters, forming a curve linked between the strokes inside or between the hand-written characters according to the linking feature information, and performing three-dimensional modeling of the hand-written characters to obtain a three-dimensional printing object.