Quick ripped-rock section detection system and detection method thereof

Abstract

The invention relates to a quick ripped-rock section detection system and a detection method thereof. The quick ripped-rock section detection system and the detection method thereof can directly monitor a forming process of a ripped-rock section in a rock ripping process when serving as a control and detection measure for ripped-rock construction, so that the quality problem of under-ripping or super-ripping can be solved. The quick ripped-rock section detection system consists of a depth measurer, a GPS (global positioning system) positioner, a motor, a mounting bracket, a guide rail, a wireless emission device, a computer and a wireless receiving device, wherein the mounting bracket is arranged on the guide rail through rollers of four instrument mounting platforms at the bottom of a mounting bracket; the motor is arranged on the mounting bracket; the instrument mounting platforms are arranged on the top of an instrument mounting bracket; a power socket, a UPS (uninterrupted power supply), the depth measurer, the wireless emission device, the GPS positioner and a GPS differential antenna are arranged on the instrument mounting platforms; a GPS satellite antenna is arranged at the upper part of a fixed bracket; a depth measurer probe is arranged at the lower part of the fixed bracket; the computer and the wireless receiving device are arranged in a control room on a rock ripping boat; the wireless receiving device is connected with the computer through a data wire.

Description

technical field [0001] The present invention relates to a rapid detection system and detection method for riprap section. As a means of control and detection for riprap construction, it can monitor the formation process of riprap section directly during the process of riprap, avoiding under-throwing Or the quality problem of overthrowing. Background technique [0002] The current riprap elevation detection technology basically needs to wait for the riprap ship to leave the required measurement area first, to leave enough space for the measurement, and then arrange another survey ship and 1-2 surveyors to measure and determine the riprap. Cross-sectional situation. After the on-site measurement is completed, and then return to the shore foundation, the surveyor will process the on-site measurement results to generate a construction section diagram, and analyze the situation of the riprap section. The entire process from arranging on-site measurement to feedback of measureme...

AI Technical Summary

Problems solved by technology

The entire process from arranging on-site measurement to feedback of measurement results to the riprap ship takes 2-3 days, and small survey ships are easily affected by wind and waves

In addition, this detection technology cannot quickly respond to the construction quality control situation during the construction process, and it is prone to under throw or over throw

In case of under-throwing, the riprap ship needs to return to the under-throwing area for re-throwing, which greatly affects the construction progress and efficiency

If there is over-throwing, it will increase the construction cost, which is not conducive to the control of construction benefits

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