CN103472499B - Detection and positioning method for mine underground water diversion tectonic zone - Google Patents

Detection and positioning method for mine underground water diversion tectonic zone Download PDF

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CN103472499B
CN103472499B CN201310429644.8A CN201310429644A CN103472499B CN 103472499 B CN103472499 B CN 103472499B CN 201310429644 A CN201310429644 A CN 201310429644A CN 103472499 B CN103472499 B CN 103472499B
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predeterminable range
layer
permeable structure
tunnel
structure band
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CN103472499A (en
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何磊
张连恒
马银
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China Huaye Group Co Ltd
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China Huaye Group Co Ltd
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Abstract

The present invention provides a kind of detection and positioning method for mine underground water diversion tectonic zone, including: use seismic reflection method, at tunnel work surface, the permeable structure band in the predeterminable range of tunnel carries out forward probe, and the development degree of the permeable structure band in the predeterminable range of tunnel is carried out classification, labelling;Predeterminable range includes that the first spy layer and second visits layer, uses transient electromagnetic method to visit the permeable structure band in layer at tunnel work surface to first and carries out forward probe, and the first permeable structure band visited in layer is carried out watery classification, labelling;Use geological radar and infrared detecting water instrument to visit layer at tunnel work surface to second and carry out forward probe, the water zone in the second spy layer of forecast simultaneously, and be marked;Above-mentioned labelling is depicted as prognostic chart, positions permeable structure band.Utilize the above-mentioned detection and positioning method for mine underground water diversion tectonic zone provided according to the present invention, it is possible to be accurately positioned permeable structure band, reduce the forward probe time, improve speed of application, ensure underground construction safety.

Description

Detection and positioning method for mine underground water diversion tectonic zone
Technical field
The present invention relates to mine down-hole advanced detection technology field, more specifically, relate to a kind of mine well The detecting and positioning method of lower permeable structure band.
Background technology
Water damage is one of principal element causing underground metal mine major accident.For flood mine, lane Suffer from gushing water during road opening driving to threaten, therefore before roadway excavation, the most first permeable structure is brought into Row forward probe.At present, traditional forward probe method includes following several:
(1) boring detecting water by pilot hole method, drilling design arranges the key being to detect front geological condition, boring Detection does not finds retention of excessive fluid, and after tunnelling, the situation of broke-out diseases occurs often, and therefore, the method is bored Hole detection has bigger blindness, it is impossible to being accurately positioned permeable structure band, cloth hole number is more, impact Construction speed, personal safety there is no guarantee that.
(2) seismic reflection method, the method detection range length (about about 200 meters), but can not be accurate The watery of detection front permeable structure band.
(3) transient electromagnetic method, the method quick construction, in detection range long (about about 60 meters), but It is blind area in the range of about tens meters near driving face, orientation, the location of permeable structure band is existed Uncertain.
(4) geological radar combines infrared detecting water instrument probe technique, the method spy to permeable structure band watery Survey effective, but detection range shorter (about about 20 meters), construction speed is slow.
Accordingly, it would be desirable to the detection method of a kind of new mine down-hole permeable structure band.
Summary of the invention
In view of the above problems, the detection that it is an object of the invention to provide a kind of mine down-hole permeable structure band is fixed Method for position, to solve the problem that prior art can not position mine down-hole permeable structure band accurately and fast.
The present invention provides a kind of detection and positioning method for mine underground water diversion tectonic zone, including:
Seismic reflection method is used at tunnel work surface, the permeable structure band in the predeterminable range of tunnel to be surpassed Front detection, and the development degree of the permeable structure band in the predeterminable range of tunnel is carried out classification, labelling;Lane Road predeterminable range include the first spy layer predeterminable range and second visit layer predeterminable range, first visit layer preset away from From interior, second spy layer predeterminable range is carried out forward probe;
Transient electromagnetic method is used at tunnel work surface, the first permeable structure band visited in layer predeterminable range to be carried out Forward probe, and the first permeable structure band visited in layer predeterminable range is carried out watery classification, labelling;
Use geological radar and infrared detecting water instrument to visit layer predeterminable range at tunnel work surface to second to carry out in advance Detection, the water zone in the second spy layer predeterminable range of forecast simultaneously, and be marked;
By the labelling of development degree of the permeable structure band in the predeterminable range of tunnel, the first spy layer predeterminable range The labelling of the watery classification of interior permeable structure band and second visits the mark of the water zone in layer predeterminable range Note is depicted as prognostic chart, positions permeable structure band.
The above-mentioned detection and positioning method for mine underground water diversion tectonic zone provided according to the present invention is provided, passes through Seismic reflection method, transient electromagnetic method, geological radar is used to combine three kinds of methods of infrared detecting water instrument probe technique, Cooperating and detect, it is possible to be accurately positioned permeable structure band, reduce the forward probe time, raising is executed Work speed, ensures underground construction safety.
In order to realize above-mentioned and relevant purpose, one or more aspects of the present invention include below will be in detail The feature illustrating and being particularly pointed out in the claims.Description below and accompanying drawing are described in detail this Some bright illustrative aspects.But, the principle that only can use the present invention of these aspects instruction Some modes in various modes.Additionally, it is contemplated that include all these aspect and they etc. Jljl.
Accompanying drawing explanation
By with reference to below in conjunction with the explanation of accompanying drawing and the content of claims, and along with to the present invention Be more fully understood from, other purpose of the present invention and result will be more apparent and should be readily appreciated that.In the accompanying drawings:
Fig. 1 is the flow chart of the detection and positioning method for mine underground water diversion tectonic zone according to the present invention;
Fig. 2 is the flow process of the detection and positioning method for mine underground water diversion tectonic zone according to the embodiment of the present invention Figure.
The most identical label indicates similar or corresponding feature or function.
Detailed description of the invention
In the following description, for purposes of illustration, complete in order to provide one or more embodiments Foliation solution, elaborates many details.It may be evident, however, that these details can also there is no In the case of realize these embodiments.In other example, for the ease of describing one or more embodiments, Known structure and equipment illustrate in block form an.
Below with reference to accompanying drawing, the specific embodiment of the present invention is described in detail.
The problem can not being accurately positioned for mine down-hole permeable structure band, the present invention is by combining three kinds Detection method cooperates and detects, and the probe result of multiple detection method is mutually authenticated, is depicted as Exploratory forecast figure such that it is able to detect the position of permeable structure band accurately and fast.
Fig. 1 shows the flow process of the detection and positioning method for mine underground water diversion tectonic zone according to the present invention.
As it is shown in figure 1, first, use seismic reflection method at tunnel work surface in the predeterminable range of tunnel Permeable structure band carry out forward probe, and the development degree to the permeable structure band in the predeterminable range of tunnel Carry out classification, labelling;Tunnel predeterminable range includes that the first spy layer predeterminable range and second visits layer predeterminable range, In first visits layer predeterminable range, visit layer predeterminable range to second carry out forward probe (step S100);Secondly, Transient electromagnetic method is used at described tunnel work surface, the first permeable structure band visited in layer predeterminable range to be carried out Forward probe, and the permeable structure band in the first spy layer predeterminable range is carried out watery classification, labelling (step Rapid S110);Then, use geological radar and infrared detecting water instrument tunnel work surface visit second layer preset away from From carrying out forward probe, the water zone in the second spy layer predeterminable range of forecast simultaneously, and it is marked (step Rapid S120);Finally, by the labelling of development degree of the permeable structure band in the predeterminable range of tunnel, the first spy The labelling of the watery classification of the permeable structure band in layer predeterminable range and second visits containing in layer predeterminable range The labelling of aqua region is depicted as prognostic chart, location permeable structure band (step S130).
It should be noted that tunnel predeterminable range, the first spy layer predeterminable range and second visit layer predeterminable range It is mobile, moves forward along with the progress of driving, and second visits layer predeterminable range at the first spy layer Move in predeterminable range, when second visit layer predeterminable range front critical point move to the first spy layer preset away from When the critical point in front, first visits layer predeterminable range starts to move forward, and second visits layer predeterminable range again Move forward, until the first critical point visiting layer predeterminable range front moves to predeterminable range front, tunnel Critical point, moves predeterminable range further along, and circulation above-mentioned steps is until having detected the preset length in tunnel.
In order to the mine down-hole permeable structure band according to the present invention that the present invention provides is described in more detail Detecting and positioning method, Fig. 2 shows the detection of mine down-hole permeable structure band according to embodiments of the present invention The flow process of localization method.
As in figure 2 it is shown, the detection and positioning method for mine underground water diversion tectonic zone of the embodiment of the present invention, bag Include:
S200: use seismic reflection method that tunnel work surface front region is carried out forward probe.
In a specific embodiment of the present invention, use seismic reflection method to work surface front, tunnel Region in 200 meters detects, and detection is to (i.e. tunnel predeterminable range) in 200 meters of work surface front, tunnel Geological condition, emphasis detection is the development degree of permeable structure band in geological condition.
S210: the development degree of the permeable structure band in 200 meters of work surface front, tunnel is tentatively divided Level.
In a specific embodiment of the present invention, the development degree of permeable structure band is divided into Three Estate, Including: grow region, general growth region and aplasia region;Wherein, with redness, yellow, blueness The grade of marker configurations band development degree respectively, it is simple to distinguish, red expression growth region, yellow represents Typically grow region, blue expression aplasia region.
S220: use transient electromagnetic method that tunnel work surface front region is carried out forward probe.
In a specific embodiment of the present invention, use transient electromagnetic method to work surface front, tunnel 60 In rice, the region of (i.e. first visits layer predeterminable range) detects, permeable structure band in territory, focus detecting area Watery.
S230: the watery of the permeable structure band in 60 meters of work surface front, tunnel is carried out classification.
In a specific embodiment of the present invention, the watery of permeable structure band is divided into high, medium and low Three Estate, with black, Lycoperdon polymorphum Vitt, the watery grade of Green Marker permeable structure band, watery grade It is respectively black, Lycoperdon polymorphum Vitt and green from high to low.
S240: use geological radar and infrared detecting water instrument that tunnel work surface front region is carried out forward probe.
In a specific embodiment of the present invention, use geological radar and infrared detecting water instrument to tunnel work In face of work, in 20 meters, side, the region of (i.e. second visits layer predeterminable range) detects.
S250: the water zone in forecast region, 20 meters of work surface front, tunnel.
In a specific embodiment of the present invention, with region, 20 meters of work surface front, white marking tunnel Interior water zone.
It should be noted that geological radar can only detect the crushed zone in region, 20 meters of work surface front, tunnel, Rich water situation, comprises how many water zone in can not detecting 20 meters of regions, so needing to coordinate red Outer spy water instrument detects together, first forecasts water zone with infrared detecting water instrument, then goes out with geologic radar detection The rich water situation of water zone.
S260: be mutually authenticated by markd for institute result of detection, is depicted as prognostic chart, positions permeable structure Band.
Wherein, it was predicted that on figure, black, redness, white intersection are that permeable structure band emphasis investigates district, green Color, blue region are comparatively safe district, and blue and Lycoperdon polymorphum Vitt is that district typically investigated by permeable structure band.
S270: according to prognostic chart, is arranged in emphasis investigation district, typically investigation appropriate cloth hole, district by boring, Comparatively safe district arranges a small amount of cloth hole.
On the other hand, in conjunction with mine down-hole permeable structure band to the embodiment of the present invention of the progress of tunnelling Detecting and positioning method be described in detail.
S300: use seismic reflection method to implement detection at tunnel work surface, to 200 meters of work surface front Interior geological condition carries out preliminary classification, represents structural belt development degree with red, yellow, Lan Sanse.Red table Showing that structural belt grows region, yellow represents typically grows region, blue expression aplasia region.
When S310: tunnel often tunnels 50 meters, tunnel work surface is detected by application transient electromagnetic method, right In region, 60 meters of front, permeable structure band carries out watery classification, represents rich water with black, Lycoperdon polymorphum Vitt, green Property is from high to low.
When S320: tunnel often tunnels 20 meters, use geological radar to detect at work surface, analyze front Crushed zone in 20 meters of regions, rich water situation, the detection of application infrared detecting water instrument, represents pre-by white simultaneously Report water zone.
It should be noted that the detection and positioning method for mine underground water diversion tectonic zone of the embodiment of the present invention with Based on geological radar and the detection of infrared detecting water instrument, using geological radar and infrared detecting water instrument to work surface After front 20 meters of inner regions detection terminates, start digging laneway, often driving 20 meters use geological radars and 20 meters of work surface front inner region is detected by infrared detecting water instrument, until the distance of driving is close to transient electrical Magnetic method detection distance time, then use transient electromagnetic method detect forward 60 meters, then use geological radar and Infrared detecting water instrument detects forward, tunnels further along, is recycled to the distance of driving close to seismic reflection always The distance of method detection, uses seismic reflection method to detect forward 200 meters, until having detected presetting of tunnel Till length.
When there is bending place in tunnel, tunnel is divided into Liang Gezhi lane section and is respectively adopted the method for the present invention and carries out Detection, and bending place can only individually use transient electromagnetic method or geological radar and infrared detecting water instrument method to carry out Detection.
Mine down-hole permeable structure according to the present invention is described in an illustrative manner above with reference to Fig. 1 and Fig. 2 The detecting and positioning method of band.It will be understood by those skilled in the art, however, that carried for the invention described above The detection and positioning method for mine underground water diversion tectonic zone gone out, it is also possible at the base without departing from present invention Various improvement is made on plinth.Therefore, protection scope of the present invention should be by appending claims Appearance determines.

Claims (1)

1. a detection and positioning method for mine underground water diversion tectonic zone, including:
Step S1: use seismic reflection method at tunnel work surface to the permeable structure in the predeterminable range of tunnel Band carries out forward probe, and the development degree of the permeable structure band in the predeterminable range of tunnel is carried out classification, Labelling;Wherein, the development degree of described permeable structure band is divided into growth region, general grow region and Aplasia region Three Estate;Described tunnel predeterminable range includes that the first spy layer predeterminable range and second visits layer Predeterminable range, visits layer predeterminable range to described second in described first visits layer predeterminable range and visits in advance Survey;Wherein, described tunnel predeterminable range is 200 meters, and described first spy layer predeterminable range is 60 meters, institute Stating the second spy layer predeterminable range is 20 meters;
Step S2: use transient electromagnetic method to visit leading in layer predeterminable range at described tunnel work surface to first Water structural belt carries out forward probe, and the first permeable structure band visited in layer predeterminable range is carried out watery Classification, labelling;Wherein, described permeable structure band watery is divided into high, medium and low Three Estate;
Step S3: use geological radar and infrared detecting water instrument to visit layer at described tunnel work surface to described second Predeterminable range carries out forward probe, forecasts that described second visits the water zone in layer predeterminable range simultaneously, and It is marked;
Step S4: by the labelling of development degree of the permeable structure band in the predeterminable range of tunnel, described first The labelling and described second visiting the watery classification of the permeable structure band in layer predeterminable range visits layer predeterminable range The labelling of interior water zone is depicted as prognostic chart, positions permeable structure band;Wherein, by different face The labelling of the development degree of the permeable structure band in the predeterminable range of described tunnel, described first spy layer are divided in zone The labelling of the watery classification of the permeable structure band in predeterminable range and described second is visited in layer predeterminable range The labelling of water zone, and,
When there is bending place in tunnel, described tunnel is divided into two tunnel predeterminable ranges respectively according to step S1-S4 detects, and bending place uses transient electromagnetic method or geological radar and infrared detecting water instrument method to visit Survey.
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CN103901503A (en) * 2014-03-25 2014-07-02 中冶集团武汉勘察研究院有限公司 Comprehensive detection method for front unfavorable geologic bodies in mine underground roadway tunneling
CN104267441A (en) * 2014-10-10 2015-01-07 中国矿业大学(北京) Real-time forecasting method and warning system for water disaster in front of excavation roadway
CN110320576A (en) * 2019-07-22 2019-10-11 中铁第四勘察设计院集团有限公司 Method for forecasting advanced geology, device and storage medium
CN110359895B (en) * 2019-07-24 2021-06-08 陕西煤业化工技术研究院有限责任公司 Water exploration and drainage method for staged fracturing of horizontal well of heterogeneous huge and thick sandstone
CN110609335A (en) * 2019-09-17 2019-12-24 太原理工大学 Multi-means-based residual mining area complex condition detection method

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US5903153A (en) * 1994-04-18 1999-05-11 Court Services Limited Apparatus and method for detecting underground liquids
JPH10153666A (en) * 1996-11-25 1998-06-09 Kumagai Gumi Co Ltd Prediction method for geology of crust in face front in tunnel
CN102322294B (en) * 2011-05-31 2014-06-18 中铁二十局集团第一工程有限公司 Comprehensive geological prediction method for karst tunnel construction
CN102419454A (en) * 2011-06-30 2012-04-18 中国科学院地质与地球物理研究所 Method for carrying out transient electromagnetic forecasting on long-distance water-containing target body in front of tunnel face
CN102495434A (en) * 2011-11-25 2012-06-13 成都畅达通地下工程科技发展有限公司 Advanced geological prediction method for underground engineering

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