Dynamic monitoring method and system for water disaster micro-seismic of working face
A dynamic monitoring and working face technology, applied in seismology, measuring devices, geophysical measurement, etc., can solve the problems of low accuracy and weak anti-interference of water damage and microseismic monitoring, and achieve quantitative analysis, high accuracy, and anti-interference. Disruptive effect
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Embodiment 1
[0039] The embodiment is basically as attached figure 1 shown, including:
[0040] The acquisition module is used for real-time acquisition of geological data and microseismic signals in the mine floor monitoring area;
[0041] A building block for performing three-dimensional geological modeling based on geological data to obtain a three-dimensional geological model of the monitoring area;
[0042] The positioning module is used to locate the microseismic signal in the monitoring area by using the natural earthquake positioning algorithm, and obtain the microseismic position of the microseismic signal in the three-dimensional geological model;
[0043] The analysis module is used to analyze the microseismic signal to obtain the damage depth of the mine floor;
[0044] The display module is used to display the microseismic position and damage depth according to the three-dimensional geological model.
[0045] In this embodiment, the acquisition module includes a stress sens...
Embodiment 2
[0053] The only difference with embodiment 1 is that in S4, the analysis module also performs quantitative analysis of the strength of the microseismic signal in the monitoring area, obtains the strength quantization value of the microseismic signal, quantitatively analyzes and evaluates the strength of the microseismic signal; the analysis module also According to the quantitative value of the intensity of the microseismic signal, the damage depth of the mine floor, and the change law of the quantity, density and energy of the microseismic signal with time, the mine floor water inrush is predicted and the probability of water inrush is obtained. Combining the quantitative value of the strength of the microseismic signal, the depth of damage to the mine floor, and the change of the number, density and energy of the microseismic signal with time, the multi-factor analysis is conducive to accurately analyzing the possibility of water inrush in the mine floor.
Embodiment 3
[0055] The only difference from Embodiment 2 is that an early warning is also performed according to the preset alarm threshold; however, the alarm threshold needs to be corrected before the early warning is performed according to the preset alarm threshold. In this embodiment, the water damage microseism is caused by the pressure and impact of groundwater on the mine floor: on the one hand, because the groundwater is in a state of continuous flow, the groundwater will have an impact on the mine floor; on the other hand, the pressure of the groundwater will also Under the influence of these two aspects, the groundwater forms a water damage micro-seismic on the mine floor.
[0056] Relevant geological exploration research results show that the groundwater in the mine floor is usually flowing, and the fine particles of the rock layer or coal seam under the mine floor will gradually melt into the groundwater. Due to the great difference in the composition of different rock layers ...
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