CN109162699B - Self-advancing peeping probe suitable for different drill hole diameters and peeping method - Google Patents

Self-advancing peeping probe suitable for different drill hole diameters and peeping method Download PDF

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Publication number
CN109162699B
CN109162699B CN201811305508.7A CN201811305508A CN109162699B CN 109162699 B CN109162699 B CN 109162699B CN 201811305508 A CN201811305508 A CN 201811305508A CN 109162699 B CN109162699 B CN 109162699B
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China
Prior art keywords
probe
peeping
rocker arm
rocker
drill hole
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Expired - Fee Related
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CN201811305508.7A
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CN109162699A (en
Inventor
冯晓巍
张农
谢正正
刘洋
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China University of Mining and Technology CUMT
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China University of Mining and Technology CUMT
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Priority to CN201811305508.7A priority Critical patent/CN109162699B/en
Publication of CN109162699A publication Critical patent/CN109162699A/en
Priority to AU2019375583A priority patent/AU2019375583B2/en
Priority to PCT/CN2019/075872 priority patent/WO2020093623A1/en
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Publication of CN109162699B publication Critical patent/CN109162699B/en
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    • EFIXED CONSTRUCTIONS
    • E21EARTH DRILLING; MINING
    • E21BEARTH DRILLING, e.g. DEEP DRILLING; OBTAINING OIL, GAS, WATER, SOLUBLE OR MELTABLE MATERIALS OR A SLURRY OF MINERALS FROM WELLS
    • E21B47/00Survey of boreholes or wells
    • E21B47/002Survey of boreholes or wells by visual inspection
    • EFIXED CONSTRUCTIONS
    • E21EARTH DRILLING; MINING
    • E21BEARTH DRILLING, e.g. DEEP DRILLING; OBTAINING OIL, GAS, WATER, SOLUBLE OR MELTABLE MATERIALS OR A SLURRY OF MINERALS FROM WELLS
    • E21B47/00Survey of boreholes or wells
    • E21B47/12Means for transmitting measuring-signals or control signals from the well to the surface, or from the surface to the well, e.g. for logging while drilling
    • E21B47/13Means for transmitting measuring-signals or control signals from the well to the surface, or from the surface to the well, e.g. for logging while drilling by electromagnetic energy, e.g. radio frequency

Abstract

The invention discloses a self-advancing peeping probe suitable for different drill hole diameters and a method. This peep probe realizes peeping the function of advancing by oneself of probe in the drilling through inside power, driving motor, video processing module, control module, WIFI module and outside control host computer. This peep probe has the drilling and peeps the advantage that the operation in-process is placed in the middle, advance by oneself, the operation number is few, has reduced the complexity in the operation is peeped in traditional drilling, has got rid of push rod and video transmission line, and the auxiliary fitting significantly reduces, peeps through the drilling in order to confirm the broken condition of rock mass and provide a new solution for underground works.

Description

Self-advancing peeping probe suitable for different drill hole diameters and peeping method
Technical Field
The invention relates to a peeping probe and a method, in particular to a self-advancing peeping probe and a peeping method which are suitable for the fields of geotechnical engineering, mine engineering and geological exploration and are adaptive to different drill hole diameters.
Background
In geotechnical engineering, mine engineering and geological exploration work, the condition in the rock stratum is relatively hidden, and details such as cracks, abscission layers, broken areas and the like in the rock stratum are difficult to find through visual observation and experience analogy. Based on this, the engineer often uses a borehole speculum to detect the formation in the rock formation. In addition, the drilling peeping instrument can detect the loosening range and the change condition of the surrounding rock of the roadway, test the displacement change of the surrounding rock stratum in the stress process, detect the lithology and the thickness of the coal bed and the top plate stratum of the coal bed, and detect the separation, the fracture, the damage condition and the like of the top plate of the roadway.
The currently used drilling peeping instrument mainly comprises a peeping host, a peeping probe, a stainless steel push rod, a connecting wire and other accessories. In the actual operation process, the peeping probe is connected with the upper push rod and then pushed into the drill hole, and then the peeping probe is sequentially connected with the subsequent push rods and gradually pushed into the drill hole. In the advancing process, the image monitored by the peeping probe is displayed on the peeping host in real time, and the advancing speed and the advancing amplitude of the pushing rod are controlled by the drilling shape displayed on the peeping host.
However, the following problems are present in the background of the above steps: firstly, the pushing speed and the pushing amplitude of the pushing rod are limited by manual operation, so that the key position image of the inner wall of a drill hole is not clear easily; secondly, when the drilling depth is large, the stability of the push rod is difficult to control, and especially in the roof drilling peeking process, the push rod is easily blocked by the cracked rock blocks in the drilling broken zone, so that the push is difficult sometimes; thirdly, the peeping probe is difficult to center in the drill hole, which causes poor imaging precision, the edge of the front end of the peeping probe is easy to scratch by the inner wall of the drill hole, rock debris is accumulated on the peeping probe, and the imaging effect is deteriorated; fourthly, the diameter of the drill hole is strictly required in the peeping process, different diameter drill holes are required to be provided with different diameter peeping probes, the operation process is complex, and the equipment cost is increased.
Disclosure of Invention
The technical problem is as follows: the invention aims to overcome the defects in the prior art and provides the self-advancing peeping probe and the peeping method which are simple in structure, simplified in operation process, strong in stability and good in peeping effect and can adapt to different drill hole diameters.
The technical scheme is as follows: in order to achieve the above object, the self-propelled peeping probe suitable for different drilling diameters comprises a cylindrical peeping probe main body, wherein a convex camera is arranged at the top of the peeping probe main body, a directional WIFI receiving line interface connected with a directional WIFI receiving line and an emergency rope connecting column connected with an emergency rope are arranged at the bottom of the peeping probe main body, a lens, a video processing module, a battery bin, a control module and a WIFI module are sequentially arranged in the peeping probe main body below the camera, a group of symmetrically arranged side wall grooves are respectively arranged at the upper part and the lower part of the peeping probe main body, the positions of the two groups of symmetrically arranged side wall grooves at the upper part and the lower part are mutually vertical, a telescopic swinging device which synchronously acts is arranged in each group of side wall grooves, the telescopic swinging device comprises a rocker arm and a travelling wheel, the rocker arm is hinged on the inner wall of the probe main body through a main vertical shaft, the, one end of a torsion spring is lapped on an auxiliary vertical shaft A in the peeping probe main body, the other end of the torsion spring is lapped on an auxiliary vertical shaft B in the rocker arm, the main vertical shaft is simultaneously hinged with a gas spring, and the other end of the gas spring is hinged on a rocker arm vertical shaft positioned on the lower pendulum in the rocker arm; a driving motor connected with the travelling wheel is arranged in the rocker arm, the connecting end of the rocker arm and the travelling wheel is an arc-shaped section, the arc-shaped section is matched with the edge of the travelling wheel, a rocker arm end detection contact piece is adhered to the outer edge of the connecting end of the rocker arm and the peeping probe main body, and a probe main body end detection contact piece is arranged at the position of the peeping probe main body corresponding to the rocker arm end detection contact piece when the rocker arm reaches the maximum opening angle; the outer side of the rocker arm is provided with a square rocker arm locking hole, and a rocker arm locking block when the rocker arm is at the minimum opening angle is arranged on the side of a groove in the side wall of the peeping probe main body corresponding to the locking hole.
The diameter of the cylindrical peeping probe main body is 35-45 mm, and the height is 300-400 mm.
The length of the emergency rope is 6-20 m, and a length label is attached to the emergency rope in meters.
The length of the directional WIFI receiving line is 2-3 m, and the length of the directional WIFI transmitting line is 2-4 m.
The distance between the upper side wall groove and the lower side wall groove of the peeping probe main body is 90-120 mm, the top of the side wall groove is a right angle, the bottom of the side wall groove is inclined, and the inclination angle is 10 degrees.
The connecting end of the rocker arm and the peeping probe body 1 is a circular arc-shaped section, and the outer edge of the connecting end is in linear transition with the outer edge of the connecting end of the walking wheel.
The opening angle of the rocker arm under the double action of the torsion spring and the gas spring is up to 30 degrees at most.
A peeping method using the self-propelled peeping probe suitable for different drill hole diameters comprises the following steps:
a. firstly, measuring the gas content of a peeping area by using a gas measuring instrument, ensuring that no gas is distributed in the peeping area, selecting a position to be peeped on the periphery of a roadway, then drilling a rock stratum, wherein in order to enable a travelling wheel connected to a rocker arm to be well jointed with the inner wall of a drilled hole, the diameter of the drilled hole is smaller than the linear distance corresponding to the outer diameter of the travelling wheel when the rocker arms are symmetrically arranged at the two sides at the maximum opening angle, so that the travelling wheel is prevented from being separated from the inner wall of the drilled hole or idling during the travelling process of a peeping probe;
b. the directional WIFI receiving wire interface and the emergency rope connecting column at the bottom of the peeping probe are connected with a directional WIFI receiving wire and an emergency rope with a length label attached in a meter unit, firstly, a group of rocker arms at the upper part of the peeping probe main body are loosened, a rocker arm locking block at the side surface of a groove of a side wall is pushed to be unlocked with a rocker arm locking hole, then the rocker arms are released, the group of rocker arms at the upper part of the peeping probe main body are pressed and contracted, then the peeping probe is pushed into a drill hole, a group of rocker arms at the front part of the drill hole are slowly expanded outwards under the double actions of a torsion spring and a gas spring to abut against the side wall around the drill hole, then a group of rocker arms at the lower part of the peeping probe main body are loosened, the rocker arm locking block is pushed to release the rocker arms in the same way as the group of rocker arms, the rocker, the rocker arms and the front group of rocker arms form a cross support and lean against the side wall around the drill hole;
c. continuously pushing the peeping probe into the drill hole, fixing and orienting the WIFI transmitting line at a position 5-10 cm away from the hole opening of the drill hole by using an adhesive tape, enabling the WIFI transmitting line to be tightly attached to the inner wall of the drill hole, connecting the other end of the WIFI transmitting line with an operation host, and controlling and monitoring the working state of the peeping probe main body by using the operation host;
d. the electronic control signal is transmitted through a directional WIFI receiving line and a directional WIFI transmitting line between the control host and the peeping probe main body, the receiving end is the peeping probe main body, the transmission path is the directional WIFI receiving line, the transmitting end is the control host, and the transmission path is the directional WIFI transmitting line; the peeping probe body acquires signals and stores a peeping video, and the peeping video is compared and checked with the advancing distance of the peeping probe displayed by the operating personnel handheld control host by referring to a length label attached to the emergency rope in a meter unit;
e. when the peeking probe advances and meets a rock stratum crushing area, the peeking probe body (1) advances or retreats by operating the host and matching with the emergency rope, and the emergency rope is pulled), so that the peeking probe body can retreat quickly;
f. when the peeping probe encounters a drilling hole diameter increasing area in the advancing process, the rocker arm expands under the dual effects of the torsion spring and the gas spring, when the rocker arm expands to the maximum angle, the detection contact piece at the end of the rocker arm is connected with the detection contact piece at the end of the probe main body, a warning signal is fed back, a directional WIFI transmission line is transmitted to the handheld control host, and an operator takes measures immediately;
g. when the diameter of the peeping probe is reduced due to the deformation of the drill hole in the advancing process, the rocker arm is contracted and presses the torsion spring and the gas spring, so that the overall effective diameter of the peeping probe is reduced, and the peeping probe is adapted to a deformed drill hole area and penetrates through the area.
In the broken serious region of drilling, when peeping the probe main part because cracked rock leads to the card dead phenomenon to take place, the emergent rope of pulling and adjustment makes the rocking arm retract toward the direction of recess, can avoid taking place to peep the unable condition emergence of rolling back of probe main part.
Has the advantages that: due to the adoption of the technical scheme, the self-advancing peeping probe is suitable for self-advancing peeping with different drilling diameters, the connecting end of the rocker arm and the peeping probe main body is of a circular arc-shaped section, and the outer edge of the connecting end is in linear transition with the outer edge of the connecting end of the walking wheel. Through rocking arm locking hole and rocking arm locking piece, accomplish the peep operation back, when external force pressed into peep probe outside recess with the rocking arm, got into rocking arm locking hole through promoting rocking arm locking piece, can avoid the rocking arm secondary to pop out, convenient storage. The opening angle of the rocker arm under the dual action of the torsion spring and the gas spring reaches 30 degrees at most, and the opening and closing angle of the rocker arm and the damping property in the opening and closing angle process are ensured through the torsion spring and the gas spring. In addition, torsion spring and air spring can guarantee the dynamics of opening and shutting of rocking arm, can make the probe adaptation of peeping the drilling of different diameters, guarantee at the in-process travelling wheel of marcing and the buckling power of drilling inner wall, prevent the pine from taking off the idle running situation. Compared with the prior art, the method has the following advantages:
1) can adapt to different drilling diameters. The diameter of a traditional peeping probe cannot be changed, and a special peeping probe is needed for a special drilling diameter. The rocker arm can be opened and closed within a certain angle by matching with a torsion spring and an air spring in the rocker arm, so that the rocker arm is suitable for different drilling diameters. The damping performance of the rocker arm in the opening and closing process is guaranteed by the gas spring, the grabbing force of the wheel on the inner wall of the drilled hole is guaranteed by the torsion spring, and the wheel is prevented from sliding;
2) avoid lengthening the propelling movement pole, alleviate work intensity for peep the operating efficiency. The problem that in the traditional peeping operation, in order to enable the peeping probe to reach a specific position in a rock stratum, a pushing rod needs to be continuously lengthened, and the pushing speed is difficult to control is solved, the peeping probe can advance at a uniform speed, and the advancing speed can be reduced by observing a broken and separation region in the rock stratum; the whole area can be accelerated; backward observation and re-acquisition of an observed region can be realized;
3) the number of workers is reduced. In the operation is peeied at in traditional drilling, need three position operating personnel generally, an operating personnel top push rod, the supplementary extension push rod of an operating personnel, the host computer is controlled in the operation of last operating personnel. The emergency rope pulling device can reduce the number of operators to one, one operator needs to be additionally added when the emergency rope needs to be pulled in emergency, and in most cases, one operator can complete operation;
4) the centering of the peeping drill bit is ensured, and the situations that the peeping probe cuts the inner wall of the drilled hole and rock debris adheres to the probe are avoided;
5) and the directional WIFI transmitting line and the directional WIFI receiving line ensure the directivity of signal transmission. The directional WIFI receiving line connected with the directional WIFI receiving line interface at the bottom of the peeping probe and the directional WIFI transmitting line connected with the control host ensure the continuity, the directivity and the stable gain characteristic of signal transmission, and one end of the directional WIFI transmitting line is attached to the position 5-10 cm away from the hole opening on the inner wall of the drill hole, so that the transmission effect is enhanced;
6) and emergency measures are perfected. The emergency rope connecting column at the bottom of the peeping probe is connected with the emergency rope, so that the peeping probe can be withdrawn in an emergency; meanwhile, a length label is attached to the emergency rope in a meter unit, and the advancing distance of the peeping probe can be checked with the handheld control host of an operator in real time according to the label of the emergency rope.
Drawings
FIG. 1 is a schematic perspective view of an endoscopic probe according to the present invention;
FIG. 2 is a schematic view of the rocker arm construction of FIG. 1;
FIG. 3 is an enlarged schematic view of the rotating portion of the rocker arm structure of FIG. 2;
FIG. 4 is a schematic cross-sectional view of FIG. 1;
FIG. 5 is an enlarged schematic view of the rocker arm structure of FIG. 4 in the vicinity of the connection with the probe body;
fig. 6 is a schematic structural view of the probe for peeping in practical application.
In the figure: 1-peeping probe body, 2-camera, 3-walking wheel, 4-rocker arm, 5-side wall groove, 6-rocker arm locking block, 7-rocker arm locking hole, 8-driving motor, 9-detection contact wire, 10-rocker arm end detection contact piece, 11-probe body end detection contact piece, 12-torsion spring, 13-main vertical shaft, 14-auxiliary vertical shaft A, 15-auxiliary vertical shaft B, 16-gas spring, 17-rocker arm vertical shaft, 18-lens, 19-video processing module, 20-battery chamber, 21-control module, 22-WIFI module, 23-directional WIFI receiving wire interface, 24-emergency rope connecting post, 25-drilling hole, 26-rock stratum, 27-emergency rope, 28-directional WIFI receiving wire, 29-directional WIFI transmission line, 30-control host.
Detailed Description
The invention will be further described with reference to examples in the drawings to which:
as shown in fig. 1, the self-advancing peeping probe suitable for different drill hole diameters comprises a cylindrical peeping probe main body 1, wherein a convex camera 2 is arranged at the top of the peeping probe main body 1, a directional WIFI receiving line interface 23 connected with a directional WIFI receiving line 28 and an emergency rope connecting post 24 connected with an emergency rope 27 are arranged at the bottom of the peeping probe main body 1, the diameter of the cylindrical peeping probe main body 1 is 35-45 mm, and the height of the cylindrical peeping probe main body is 300-400 mm; the advancing control of the peeping probe body 1 in the drill hole 25 is completed by a control host 30, and a directional WIFI transmitting line 29 is connected to the control host, as shown in fig. 6; the length of the directional WIFI receiving line 28 is 2-3 m, and the length of the directional WIFI transmitting line 29 is 2-4 m; the length of the emergency rope 27 is 6-20 m, and a length label is attached to the emergency rope in meters. As shown in fig. 4, a lens 18, a video processing module 19, a battery compartment 20, a control module 21 and a WIFI module 22 are sequentially disposed below the camera 2 inside the peeking probe body 1, a set of symmetrically-arranged side wall grooves 5 are respectively disposed at the upper and lower portions of the peeking probe body 1, the two sets of symmetrically-arranged side wall grooves 5 are perpendicular to each other, a synchronously-acting telescopic swing device is disposed in each set of side wall grooves 5, the distance between the upper and lower side wall grooves 5 of the peeking probe body 1 is 90-120 mm, the top of each side wall groove is a right angle, the bottom of each side wall groove is inclined, and the inclination angle is 10 °. As shown in fig. 5, the telescopic swing device comprises a rocker arm 4 hinged on the inner wall of the probe main body 1 through a main vertical shaft 13 in a sleeved mode and a walking wheel 3 connected to the rocker arm 4, a driving motor 8 connected with the walking wheel 3 is arranged in the rocker arm 4, the connecting end of the rocker arm 4 and the peeping probe main body 1 is an arc-shaped section, the rocker arm 4 and the peeping probe main body 1 are overlapped and sleeved together through the main vertical shaft fixed inside the peeping probe main body 1, and the outer edge of the connecting end of the rocker arm 4 and the peeping probe main body 1 is. A torsion spring 12 is sleeved on the outer ring of the main vertical shaft 13, as shown in fig. 2, one end of the torsion spring 12 is lapped on an auxiliary vertical shaft A14 in the peeping probe body 1, the other end is lapped on an auxiliary vertical shaft B15 in the rocker arm, the main vertical shaft 13 is simultaneously hinged with a gas spring 16, and the other end of the gas spring 16 is hinged on a rocker arm vertical shaft 17 in the rocker arm 4 and positioned at the lower hem; the torsion spring 12 and the gas spring 16 open up to a maximum of 30 ° in the double action rocker arm 4. As shown in fig. 2, the connecting end of the rocker arm 4 and the road wheel 3 is an arc-shaped section, the arc-shaped section is matched with the edge of the road wheel 3, a rocker arm end detection contact piece 10 is adhered to the outer edge of the connecting end of the rocker arm 4 and the peeping probe body 1, a probe body end detection contact piece 11 is arranged at the position of the peeping probe body 1 corresponding to the rocker arm end detection contact piece 10 when the rocker arm 4 reaches the maximum opening angle, namely when the rocker arm 4 reaches the maximum opening angle, the rocker arm end detection contact piece 10 is just connected with the probe body end detection contact piece 11 fixed in the probe body 1; the outer side of the rocker arm 4 is provided with a square rocker arm locking hole 7, a rocker arm locking block 6 is arranged on the side of a side wall groove 5 of the peeping probe main body 1 corresponding to the locking hole 7 when the rocker arm 4 is at the minimum opening angle, and the rocker arm locking block 6 can be embedded into the rocker arm locking hole 7.
A peeking method using the self-propelled peeking probe suitable for different drill hole diameters is shown in fig. 6, and comprises the following specific steps:
a. firstly, measuring the gas content of a peeping area by using a gas measuring instrument, ensuring that no gas is distributed in the peeping area, selecting a position to be peeped on the periphery of a roadway, then drilling a rock stratum 26, and in order to ensure that the travelling wheels 3 connected to the rocker arms 4 can be well jointed with the inner wall of the drill hole 25, wherein the diameter of the drill hole 25 is smaller than the linear distance corresponding to the outer diameter of the travelling wheels 3 when the rocker arms 4 are opened at the maximum angle symmetrically at two sides, so that the travelling wheels 3 are prevented from possibly being separated from the inner wall of the drill hole 25 or idling in the advancing process of a peeping probe;
b. a directional WIFI receiving wire 28 and an emergency rope 27 with a length label attached in a meter unit are connected to a directional WIFI receiving wire interface 23 and an emergency rope connecting post 24 at the bottom of the peeping probe, firstly, a group of rocker arms 4 at the upper part of a peeping probe body 1 are loosened, a rocker arm locking block 6 at the side surface of a side wall groove 5 is pushed to be unlocked with a rocker arm locking hole 7, then, the rocker arms 4 are released, a group of rocker arms 4 at the upper part of the peeping probe body 1 are pressed to be contracted, then, the peeping probe is pushed into a drill hole 25, a group of rocker arms 4 at the front part of the drill hole 25 slowly expand outwards under the double effects of a torsion spring 12 and an air spring 16, the rocker arms 4 abut against the side wall around the drill hole 25, then, a group of rocker arms 4 at the lower part of the peeping probe body 1 are loosened, the rocker arm locking block 6 is pushed to release the rocker arms 4 in, the rear group of rocker arms entering the drill hole 25 has the same action as the front group of rocker arms, and is supported in a cross manner with the front group of rocker arms to abut against the side wall around the drill hole 25;
c. continuously pushing the peeping probe into the drill hole 25, fixing and orienting the WIFI transmitting line 29 at a position 5-10 cm away from the hole opening of the drill hole 25 by using an adhesive tape, enabling the WIFI transmitting line 29 to be tightly attached to the inner wall of the drill hole 25, connecting the other end of the WIFI transmitting line 29 with the control host 30, and controlling and monitoring the working state of the peeping probe main body 1 through the control host 30;
d. the electronic control signal is transmitted through a directional WIFI receiving line 28 and a directional WIFI transmitting line 29 between the control host 30 and the peeping probe body 1, the receiving end is the peeping probe body 1, the transmission path is the directional WIFI receiving line 28, the transmitting end is the control host 30, and the transmission path is the directional WIFI transmitting line 29; the peeking probe body 1 collects signals and stores peeking videos, and compares and checks the peeking probe advancing distance displayed by the operating personnel holding the operating host 30 by referring to the length label attached to the emergency rope 27 in a meter unit, and the advancing operation of the peeking probe body 1 is completed by the operating host 30;
e. when the peeking probe advances and meets a rock stratum crushing area, the peeking probe body 1 advances or retreats by operating the host 30 and matching with the emergency rope 27, and the peeking probe body 1 can be quickly retreated by pulling the emergency rope 27;
f. when the peeping probe encounters an area with the diameter of the drill hole 25 increased in the advancing process, the rocker arm 4 expands under the dual actions of the torsion spring 12 and the gas spring 16, when the probe expands to the maximum angle, the rocker arm end detection contact piece 10 is connected with the probe body end detection contact piece 11, a warning signal is fed back and transmitted to the handheld control host 30 through the directional WIFI transmission line 29, and an operator takes measures immediately; in the serious broken region of the drill hole 25, when the peeping probe main body 1 is jammed due to broken rocks, the emergency rope 27 is pulled and adjusted to enable the rocker arm 4 to retract towards the groove 5, so that the situation that the peeping probe main body 1 cannot retract can be avoided; the probe body 1 is observed to advance by the walking wheel 3, and the diameter of the walking wheel 3 is 10 mm, and the height is 20 mm.
g. When the diameter of the peep probe becomes smaller due to the deformation of the drill hole 25 during the advancing process, the rocker arm 4 will contract and press the torsion spring 12 and the gas spring 16, so that the overall effective diameter of the peep probe becomes smaller, and the peep probe is adapted to and passes through the deformed drill hole area.

Claims (9)

1. The utility model provides a probe is peeied at to advance by oneself of adaptation different drilling diameters which characterized in that: it includes columniform peeps probe main part (1), the top of peeping probe main part (1) is equipped with bellied camera (2), and the bottom is equipped with directional WIFI receive line interface (23) of connecting directional WIFI receive line (28) and connects emergent rope spliced pole (24) of emergent rope (27), and the inside that is located camera (2) of peeping probe main part (1) is equipped with lens (18) in proper order, video processing module (19), battery compartment (20), control module (21) and WIFI module (22), is equipped with a set of symmetrical arrangement's lateral wall recess (5) respectively in the upper and lower part of peeping probe main part (1), and two sets of lateral wall recess (5) positions mutually perpendicular of upper and lower part symmetrical arrangement all are equipped with the flexible pendulous device of synchronization action in every lateral wall recess (5), flexible pendulous device includes rocking arm (4) that articulates on probe main part (1) inner wall through main vertical scroll (13) suit, The walking wheel (3) is connected to the rocker arm (4), a torsion spring (12) is sleeved on the outer ring of the main vertical shaft (13), one end of the torsion spring (12) is lapped on an auxiliary vertical shaft A (14) in the peeping probe body (1), the other end of the torsion spring is lapped on an auxiliary vertical shaft B (15) in the rocker arm, the main vertical shaft (13) is simultaneously hinged with a gas spring (16), and the other end of the gas spring (16) is hinged on a rocker arm vertical shaft (17) which is arranged in the rocker arm (4) and is positioned at the lower hem; a driving motor (8) connected with the traveling wheel (3) is arranged in the rocker arm (4), the connecting end of the rocker arm (4) and the traveling wheel (3) is of an arc-shaped section, the arc-shaped section is matched with the edge of the traveling wheel (3), a rocker arm end detection contact piece (10) is adhered to the outer edge of the connecting end of the rocker arm (4) and the peeping probe main body (1), and a probe main body end detection contact piece (11) is arranged at the position, corresponding to the rocker arm end detection contact piece (10), of the peeping probe main body (1) when the rocker arm (4) reaches the maximum opening angle; the probe is characterized in that a square rocker locking hole (7) is formed in the outer side of the rocker (4), and a rocker locking block (6) when the rocker (4) is at the minimum opening angle is arranged on the side of a side wall groove (5) of the peeping probe main body (1) corresponding to the locking hole (7).
2. The self-propelled speculum probe of claim 1, which accommodates different borehole diameters, wherein: the diameter of the cylindrical peeping probe main body (1) is 35-45 mm, and the height is 300-400 mm.
3. The self-propelled speculum probe of claim 1, which accommodates different borehole diameters, wherein: the length of the emergency rope (27) is 6-20 m, and a length label is attached to the emergency rope in a meter unit.
4. The self-propelled speculum probe of claim 1, which accommodates different borehole diameters, wherein: the length of the directional WIFI receiving line (28) is 2-3 m, and the length of the directional WIFI transmitting line (29) is 2-4 m.
5. The self-propelled speculum probe of claim 1, which accommodates different borehole diameters, wherein: the interval between the upper side wall groove (5) and the lower side wall groove (5) of the peeping probe main body (1) is 90-120 mm, the top of the side wall groove is a right angle, the bottom of the side wall groove is inclined, and the inclination angle is 10 degrees.
6. The self-propelled speculum probe of claim 1, which accommodates different borehole diameters, wherein: the connecting end of the rocker arm (4) and the peeping probe main body (1) is a circular arc-shaped section, and the outer edge of the connecting end is in linear transition with the outer edge of the connecting end of the walking wheel (3).
7. The self-propelled speculum probe of claim 1, which accommodates different borehole diameters, wherein: the opening angle of the rocker arm (4) under the double action of the torsion spring (12) and the gas spring (16) is up to 30 degrees at most.
8. A method of peeking using the self-propelled peeking probe of claim 1 to accommodate different borehole diameters, comprising the steps of:
a. firstly, measuring the gas content of a peeping area by using a gas measuring instrument, ensuring that the peeping area has no gas distribution, selecting a position to be peeped on the periphery of a roadway, then drilling a rock stratum (26), and in order to ensure that a travelling wheel (3) connected to a rocker arm (4) can be well jointed with the inner wall of a drilling hole (25), wherein the diameter of the drilling hole (25) is smaller than the linear distance corresponding to the outer diameter of the travelling wheel (3) when the rocker arms (4) are symmetrical at the opening maximum angle, so that the travelling wheel (3) is prevented from possibly separating from the inner wall of the drilling hole (25) or idling during the advancing process of a peeping probe;
b. a directional WIFI receiving wire interface (23) and an emergency rope connecting post (24) at the bottom of the peeping probe are connected with a directional WIFI receiving wire (28) and an emergency rope (27) with a length label attached in a meter unit, firstly, a group of rocker arms (4) at the upper part of a peeping probe main body (1) are loosened, a rocker arm locking block (6) at the side surface of a side wall groove (5) is pushed to be unlocked with a rocker arm locking hole (7), then, the rocker arms (4) are released, a group of rocker arms (4) at the upper part of the peeping probe main body (1) are pressed and contracted, then, the peeping probe is pushed into a drill hole (25), a group of rocker arms (4) at the front part of the drill hole (25) slowly expand outwards under the double actions of a torsion spring (12) and a gas spring (16), the rocker arms (4) abut against the side wall around the drill hole (25), and then, a group of rocker arms (4) at the lower part, the rocker arm locking block (6) is pushed to release the rocker arm (4) in the same way as the rocker arms in the groups, the rocker arm (4) is pushed and then pushed into the drill hole (25), the action of the rocker arms in the rear group entering the drill hole (25) is the same as that of the rocker arms in the front group, and the rocker arms in the rear group and the rocker arms in the front group are supported and abutted against the side wall around the drill hole (25) in a cross manner;
c. continuously pushing the peeping probe into the drill hole (25), fixing and orienting a WIFI transmitting line (29) at a position 5-10 cm away from the hole opening of the drill hole (25) by using an adhesive tape, enabling the WIFI transmitting line to cling to the inner wall of the drill hole (25), connecting the other end of the WIFI transmitting line (29) with an operation host (30), and controlling and monitoring the working state of the peeping probe main body (1) through the operation host (30);
d. the electronic control signal is transmitted by controlling a directional WIFI receiving line (28) and a directional WIFI transmitting line (29) between a host (30) and a peeping probe body (1), the receiving end is the peeping probe body (1), the transmission path is the directional WIFI receiving line (28), the transmitting end is the control host (30), and the transmission path is the directional WIFI transmitting line (29); the peeping probe main body (1) collects signals and stores a peeping video, and a length label attached to the emergency rope (27) in a meter unit is referred to, and the forward distance of the peeping probe displayed by an operating personnel handheld control host (30) is compared and checked;
e. when the peeping probe moves forwards and meets a rock stratum crushing area, the peeping probe body (1) moves forwards or backwards by operating the host (30) and matching with the emergency rope (27), and the peeping probe body (1) can move backwards quickly by pulling the emergency rope (27);
f. when the peeping probe encounters an area with the diameter increased by a drill hole (25) in the advancing process, the rocker arm (4) expands under the dual actions of the torsion spring (12) and the gas spring (16), when the probe expands to the maximum angle, the rocker arm end detection contact piece (10) is connected with the probe body end detection contact piece (11), a warning signal is fed back, a directional WIFI transmission line (29) is transmitted to the handheld control host (30), and an operator takes measures immediately;
g. when the diameter of the peeping probe is reduced due to the deformation of the drill hole (25) in the advancing process, the rocker arm (4) contracts and presses the torsion spring (12) and the gas spring (16), so that the overall effective diameter of the peeping probe is reduced, and the peeping probe is adapted to a deformed drill hole area and passes through the area.
9. The peeking method of claim 8 using the self-propelled peeking probe of claim 1 adapted for different borehole diameters, wherein: in the serious broken region of drilling (25), when peeping probe main part (1) because cracked rock leads to the card phenomenon to take place, pulling and adjusting emergent rope (27), make rocking arm (4) retract towards the direction of recess (5), can avoid taking place to peep the unable condition emergence of rolling back of probe main part (1).
CN201811305508.7A 2018-11-05 2018-11-05 Self-advancing peeping probe suitable for different drill hole diameters and peeping method Expired - Fee Related CN109162699B (en)

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AU2019375583A AU2019375583B2 (en) 2018-11-05 2019-02-22 Self-propelled peeping probe adapted to different diameters of drill holes and peeping method
PCT/CN2019/075872 WO2020093623A1 (en) 2018-11-05 2019-02-22 Self-propelled peeping probe adapted to different diameters of drill holes and peeping method

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