53results about How to "Installation adaptation" patented technology

The invention discloses a high-anti-interference fan-shaped laser wireless settlement gauge and a monitoring method thereof. The high-anti-interference fan-shaped laser wireless settlement gauge comprises a case, a CIS photosensitive image sensor, a processor, a laser emitter, a suspension frame, a wireless signal transceiver and a power supply battery, wherein the CIS photosensitive image sensor, the processor, the laser emitter, the suspension frame, the wireless signal transceiver and the power supply battery are arranged inside the case; the CIS photosensitive image sensor and the laser emitter are arranged at the two opposite sides of the case; a light sensing plate assembly of the CIS photosensitive image sensor consists of a light sensing plate, an attenuation film, an optical filter and a polarizing film in sequential arrangement from inside to outside; the light sensing plate is provided with a light guide hole; the CIS photosensitive image sensor is in communication connection with the processor; the processor is in communication connection with the wireless signal transceiver. The high-anti-interference fan-shaped laser wireless settlement gauge provided by the invention has the advantages that the principle of a constructible system is simple; the deployment is facilitated; connected pipelines and cables do not exist; the construction is convenient; the comprehensive cost is low; the continuous work can be realized; high measurement stability and precision are realized; the convenient cascade connection can be realized; the high-anti-interference fan-shaped laser wireless settlement gauge is particularly suitable for monitoring the roadbed, bridge and tunnel surface settlement.

The invention relates to an automatically-rotated feeding material device for glass-tube fusing blanking. The device includes a float clamping mechanism that is installed with a dabber and a glass tube tightly nested on the dabber, an automatic feeding mechanism for glass tube feeding that moves horizontally along the axis with a driving dabber, a rotation mechanism that drives the glass tube to self-rotate around the dabber, a feed driving mechanism that drives the automatic feeding mechanism, a feed driving mechanism that drives the automatic feeding mechanism, and a rack. The present invention has such advantages as simple in structure, reducing the labor intensity of operating worker, increasing the manufacturing efficiency of glass tube, and lowering production cost. Automatic rotation and automatic material feeding of glass tube are achieved, increasing the automation degrees. The present invention belongs to the technical field of automatic processing of glass tube.

An IDC connector mounting structure disclosed by the present invention comprises a connector main body, an anti-skid block is mounted at the front end of the connector main body, a positioning plate is mounted on one side of the connector main body, a mounting plate is mounted on one side, away from the anti-skid block, of the positioning plate, and a connecting disc is arranged on one side, away from the positioning plate, of the mounting plate. Bolts are mounted at the ends, away from the positioning plates, of the mounting plates. According to the mounting structure of the IDC connector, the output line on the connecting disc and the connector main body are mounted through threaded connection of the bolt and the connecting disc, time and labor are saved during mounting, the output line and the connector main body are conveniently fixed and clamped through movement and positioning of the two clamping plates after being mounted, and the phenomenon that the output line is damaged when the output line is pulled by external force is prevented. The condition that the output line is easily separated from the connector main body is avoided, the normal use of the connector main body is ensured, the connector is suitable for the installation of different types of output lines, and the use requirement is met.