Abstract: Disclosed is a detachable modularized test platform. The detachable modularized test platform includes a gantry, a control box and a jig box, where a test area is arranged on the jig box, an air cylinder is arranged on the gantry, a control assembly is mounted in the control box, and a test assembly is mounted in the jig box; during testing, a sample to be tested is placed on the test area, and the upper computer sends an instruction to control the air cylinder to extend a driving rod to move to the sample to be tested; and the upper computer sends the instruction to the control assembly in the control box, to complete testing of the sample, and output and upload test data to a server for saving. The present invention employs a modularized structure, which reduces a size, detection is convenient, and applicability is high.

Abstract: Disclosed is a test box with circuit boards assembled by means of guide rails. The test box includes a box body, a guide rail assembly, a main circuit board, functional circuit boards and an adapter circuit board are arranged in the box body, the functional circuit boards and the main circuit board are perpendicularly in snap fit with the guide rail assembly and are in plug-in connection to the main circuit board by means of terminals, and the adapter circuit board is installed on the inner side wall of the box body and is in plug-in connection to the functional circuit boards by means of terminals. According to the invention, the circuit boards are installed by means of the guide rails, installation procedures are simplified, assembly efficiency is improved, assembly difficulty is reduced, and a space utilization rate is improved.

Abstract: A man-machine interaction controlling method and applications thereof are provided. A user performs user permitted micro-actions to control a self-role in a virtual environment to perform a virtual permission action plan on an operation position. The method includes steps of: 1) creating the self-role in the virtual environment; 2) performing micro-actions without leaving the position where the user stays; 3) tracing and recognizing the micro-action permitted by the user to enable the user need not leave away the position where the user stays when performing any micro-actions; 4) enabling the self-role to enlarge the micro-action of the user.

Abstract: A man-machine interaction controlling method and applications thereof are provided. A user performs user permitted micro-actions to control a self-role in a virtual environment to perform a virtual permission action plan on an operation position. The method includes steps of: 1) creating the self-role in the virtual environment; 2) performing micro-actions without leaving the position where the user stays; 3) tracing and recognizing the micro-action permitted by the user to enable the user need not leave away the position where the user stays when performing any micro-actions; 4) enabling the self-role to enlarge the micro-action of the user.