CN211598706U - Anchoring robot suitable for complex working condition of fully mechanized excavation working face - Google Patents

Abstract

The utility model discloses an anchor robot suitable for combine and dig complicated operating mode of working face belongs to and combines and dig working face machine denso and be equipped with the field, including hanging braced system, driving system, anchor robot system, ground braced system, wall braced system quintuple. The suspension support system is fixed at the top end of the coal mining roadway through an anchor rod and provides support for the whole set of equipment; the power system is arranged at the tail end of a system main beam in the suspension support system; the anchoring robot system is arranged at the lower end of a system main beam in the suspension support system; the ground support system is fixed on a system main beam in the suspension support system above the installation position of the anchoring robot system; and the wall surface supporting system is fixed on a system main beam in the suspension supporting system above the installation position of the ground supporting system. Further, the utility model discloses overall structure is compact, and the anchor is efficient, and adopts ground braced system with wall braced system makes equipment operate steadily, the turning performance is good.

Description

Anchoring robot suitable for complex working condition of fully mechanized excavation working face

Technical Field

The utility model relates to a combine and dig working face machine denso and be equipped with the field, specifically be an anchor robot suitable for combine and dig complicated operating mode of working face belongs to the intelligent equipment scope of anchor protection.

Background

The anchoring process is one of the commonly used supporting methods for a coal mine tunnel, and the anchoring process is anchored into surrounding rocks of the tunnel through an anchor rod, so that a supporting body and the surrounding rocks form a space structure body capable of bearing pressure heavy load together, thereby preventing a top plate from falling off, maintaining the effective use space of a coal face and ensuring the safe operation of equipment. However, the roof support process of the tunnel is complicated, the degree of mechanization is not high, the operation time is more, the operation rate of the heading machine is affected, and the roof support process becomes a great obstacle to rapid heading of the tunnel.

In recent years, a common tunneling and anchoring all-in-one machine mainly installs anchoring and supporting equipment on the tunneling and anchoring machine in a two-side type, a gantry type and a folding type. The patents represented by the publication numbers 201520053096.8, 201910275708.0, 201920461381.1 and the like have the advantages that the tunneling device, the supporting device and the anchoring device are designed and installed in a module mode, so that the equipment can adapt to turning and up-and-down fluctuation in the advancing process; however, the equipment has certain requirements on the unevenness of the turning radius and the roadway bottom plate, and in a narrow roadway with a severe environment, the large equipment is low in working efficiency and even cannot be used due to the fact that the anchoring operation space is limited.

This subject group provides an application patent of combine and dig working face monorail formula anchor support cooperative machine, in order to facilitate the marching of equipment, with anchor equipment, support equipment and entry driving machine separation to adopt the mode of marcing of single track hanging, make equipment have good maneuverability, be applicable to general narrow and small tunnel. However, the equipment has higher requirements on the roadway support environment and low anchoring efficiency, and has certain defects, specifically as follows:

1) the equipment advances in a monorail crane mode and is not suitable for a soft rock coal mine roadway.

All mechanical equipment all install in the monorail and hang on, and the weight of whole equipment is great, and is higher to the tunnel rock layer hardness requirement that the monorail hung by the stock support, and some coal mine tunnel rock layers are comparatively soft, consequently, should equip only to be applicable to the better occasion of tunnel condition.

2) The linkage of the work platform of the anchoring robot is poor.

The anchor work platform that proposes in the patent adopts three-section hydraulic drive folding structure, nevertheless because folding process can receive the restriction of pneumatic cylinder mounted position and stroke, the folding position precision of platform is not high, and the stock robot is slow and unstable on its surface translation rate, influences the operating efficiency of anchor process. Meanwhile, the ground supporting hydraulic system cannot be accurately contracted, and interference can be generated on other equipment in the transportation process.

3) The buffering capacity of the anchoring operation platform is poor, and anchoring operation is not facilitated.

The anchor operation platform that proposes in the patent to two sets of ground supporting hydraulic cylinder group are as the buffer system of anchor operation, though can absorb and transmit the drilling impact force to ground at drilling in-process, under the soft operating mode of tunnel bottom plate, ground supporting hydraulic cylinder group bottom can sink, thereby leads to anchor operation platform to be unstable, is unfavorable for the anchor operation.

Disclosure of Invention

The utility model aims at overcoming the problem that the anchor is inefficient of digging, providing an anchor robot suitable for combine to dig the complicated operating mode of working face, this robot degree of automation is higher, be convenient for operation, strong adaptability, security are high, provide solution for above-mentioned background art.

The utility model discloses the technical problem that will solve adopts following technical scheme to realize:

an anchoring robot suitable for complex working conditions of a fully mechanized excavation face comprises a suspension support system, a power system, an anchoring robot system, a ground support system and a wall support system; the suspension support system is fixed at the top end of the coal mining roadway through an anchor rod and provides support for the anchor support robot; the power system is arranged at the tail end of a system main beam in the suspension support system; the anchoring robot system is arranged at the lower end of a system main beam in the suspension support system; and the ground supporting system and the wall surface supporting system are both fixed on a system main beam in the suspension supporting system above the installation position of the anchoring robot system.

The suspension support system comprises a system main beam, a top beam, a support piece, a track and a rectangular pin; the system main beam is arranged on the track through a bearing trolley; the top beam is provided with four holes for fixing the top beam on the top end of the coal mining roadway by using anchor rods; the upper end of the supporting piece is connected with the top beam through a long square pin, and the lower end of the supporting piece is connected with the track through a long square pin.

The power system comprises a bearing trolley, a motor base, a gear transmission system and a power connecting device; the motor is arranged on the motor base through a bolt; the motor base is arranged on the lower bottom surface of the bearing trolley through bolts; the bearing trolley is arranged on the surface of the track and is characterized by being capable of sliding on the surface of the track; an input shaft in the gear transmission system is connected with the motor through a coupler, and an output gear is installed in a matching manner with a rack in the track; one end of the power connecting device is welded on the gear transmission system, and the other end of the power connecting device is connected with the main beam of the system through a pin.

The anchoring robot system comprises a beam arm hydraulic cylinder group, an anchoring robot connecting assembly, an anchor rod storage device, an anchoring robot working platform and an anchoring robot; the anchoring robot connecting assembly comprises an upper connecting arm, a lower connecting arm and a connecting hydraulic cylinder group; the upper end of the anchoring robot connecting assembly is connected with the system main beam through a pin; the tail end of the anchoring robot connecting assembly is connected with the anchoring robot working platform through a pin; the anchoring robot working platform comprises a middle working platform, an arm platform connecting hydraulic cylinder, a folding hydraulic cylinder, a connecting rod A, a ground supporting hydraulic cylinder, a connecting rod B, a sliding block, a connecting rod C and a boundary working platform; the anchoring robot working platform is composed of three sections, and can realize a folding function; the mechanism at the bottom end of the anchoring robot and the anchoring robot working platform form a linear motor; the anchor rod storage device comprises a support rotating motor and an anchor rod storage support; the anchoring robot comprises a driving mechanism, a rotary table base, a large arm and an actuator; the driving mechanism can drive the rotary table base to rotate so as to meet the requirements of different stations of the actuator; the large arm is connected with the turntable base and can swing relatively; the large arm and the actuator form a four-bar linkage mechanism which can control the rotation angle of the actuator; the actuator comprises an anchor rod drilling machine guide rail, a propelling motor, an anchor rod drilling machine and a chain; the propulsion motor is arranged at the front end of the guide rail of the jumbolter; the jumbolter is arranged on a sliding rod of the jumbolter guide rail through holes on two sides; the propulsion motor drives the jumbolter to move in the jumbolter guide rail by driving the chain.

The ground support system comprises a support main beam, a support platform, a rear steering track, a steering mechanism, a support device and a front steering track; the ground support system is symmetrically arranged about a system main beam in the suspension support system; the rear steering track comprises a small roller A, a large roller A and a chute mechanism A; the small roller A is arranged at the upper end of a groove-shaped opening of the chute mechanism A; the steering mechanism comprises a small roller C, a large roller C, a fixing groove, a steering hydraulic cylinder A, a fixing piece A, a pushing hydraulic cylinder A, a supporting sleeve, a fixing piece B, a steering hydraulic cylinder B, a pushing hydraulic cylinder B, a connecting block A and a connecting block B; three groups of same supporting devices are arranged on one side of the ground supporting system; the supporting device comprises a front-end ground supporting hydraulic cylinder, a middle ground supporting hydraulic cylinder, a rear-end ground supporting hydraulic cylinder and a supporting seat; the front steering track is similar to the rear steering track and comprises a small roller B, a large roller B and a chute mechanism B; the small roller B is arranged at the upper end of a groove-shaped opening of the sliding groove mechanism B; the supporting platform is matched with the small roller A and the large roller A on the rear steering track, the small roller C and the large roller C on the steering mechanism, and the small roller B and the large roller B on the front steering track in a rolling manner, so that the rear steering track, the steering mechanism and the front steering track can roll on the supporting platform.

The wall surface supporting system comprises a side surface supporting main beam, a side surface supporting platform, a propelling hydraulic cylinder and a side surface supporting mechanism; the wall surface supporting systems are symmetrically arranged relative to a system main beam in the suspension supporting system; the side surface supporting mechanism comprises an upper roller, a lower roller, a fixed table, a front end wall supporting hydraulic cylinder, a rear end wall supporting hydraulic cylinder and a wall surface supporting seat; the upper roller is arranged at the upper end of the groove-shaped opening of the fixed table; the lower roller is arranged in a groove of the groove-shaped opening of the fixed table; the upper roller and the lower roller can be buckled with the upper surface and the lower surface of the side supporting platform to realize rolling fit; the upper ends of the front end wall supporting hydraulic cylinder and the rear end wall supporting hydraulic cylinder are fixed with the fixed table, and the lower ends of the front end wall supporting hydraulic cylinder and the rear end wall supporting hydraulic cylinder are connected with the wall surface supporting seat through pins; the two groups of side supporting mechanisms are connected through the pushing hydraulic cylinder; two ends of the pushing hydraulic cylinder are respectively fixed on the fixed tables of the two groups of side supporting mechanisms.

Including the current patent that an all-in-one of digging anchor and this paper mentioned (one kind combine and dig working face monorail formula anchor support cooperative machine), compare with prior art, the beneficial effects of the utility model are that:

1) the utility model discloses a marching type is marchd, and the maneuverability is good, is applicable to the coal mine tunnel of complicated operating mode.

The utility model discloses carry out reasonable improvement to the walking support mode, use the single track to hang the walking of this robot and guide to utilize ground braced system to undertake entire system's load, improved and equipped stability and the security at the removal in-process, and ground braced system has certain turn function, makes and equips transportation and work that can be steady in the rock tunnel of different hardness.

2) The utility model discloses a link mechanism makes anchor robot work platform contract and expand steadily, and control accuracy is high.

The utility model discloses an anchor robot work platform lower extreme passes through connecting rod slider mechanism can realize the work platform of both sides and prop ground pneumatic cylinder shrink simultaneously and expand, has improved work platform's position precision to it is more steady to make anchor robot move on its surface.

3) The utility model discloses in have a plurality of braced systems, provide stable work platform for the anchor operation.

The utility model discloses a wall braced system both prevented to equip and control the rocking in the transportation to undertake the partial weight of equipment. Meanwhile, in the anchoring operation process, the system and the ground supporting hydraulic cylinder jointly form a buffer system, so that the drilling impact force is absorbed and transmitted to the surface of the roadway, and the stability of the anchoring robot working platform is ensured.

4) The utility model discloses compact structure, space utilization is high.

The utility model discloses a principal components all can realize expanding and shrink under different operational environment, compact structure, and the space is small. And simultaneously, the utility model discloses two sets of anchor robots of installation on well anchor robot work platform carry out the anchor operation jointly, have improved anchor work efficiency. Furthermore, because the utility model discloses shared tunnel space is small, provides the space for the operation of other equipment.

Drawings

FIG. 1 is a schematic view of the overall structure of the present invention;

FIG. 2 is a schematic view of a suspension support system of the present invention;

FIG. 3 is a schematic view of a system main beam of the present invention;

FIG. 4 is a schematic view of a power system of the present invention;

FIG. 5 is a schematic view of the connection relationship between the main beam and the anchoring robot system;

FIG. 6 is a schematic view of the anchoring robot system in a non-operating state;

fig. 7 is a schematic view of the working state of the anchoring robot system of the present invention;

FIG. 8 is a schematic view of the working platform of the anchoring robot of the present invention;

FIG. 9 is a schematic view of a ground support system of the present invention;

FIG. 10 is a schematic view of a rear steering track of the ground support system of the present invention;

FIG. 11 is a schematic view of a steering mechanism of the ground support system of the present invention;

FIG. 12 is a schematic view of a support platform of the ground support system of the present invention;

fig. 13 is a schematic view of a front steering track of the ground support system of the present invention;

FIG. 14 is a schematic view of a wall support system of the present invention;

fig. 15 is a schematic view of a supporting mechanism of the wall supporting system of the present invention.

The reference numerals in the figures denote: 1. a suspension support system; 2. a power system; 3. anchoring the robotic system; 4. a ground support system; 5. a wall support system; 1-1, top beam; 1-2. a support; 1-3. track; 1-4, rectangular pin; 1-5, a system main beam; 2-1, a load-bearing trolley; 2-2. a motor base; 2-3. a motor; 2-4. a gear transmission system; 2-5. a power connection device; 3-1, a beam arm hydraulic cylinder group; 3-2, anchoring the robot connecting component; 3-3, anchoring the robot working platform; 3-4, anchoring the robot; 3-5, storing the anchor rod; 3-2-1, an upper connecting arm; 3-2-2. a lower connecting arm; 3-2-3, connecting the hydraulic cylinder group; 3-3-1. a middle working platform; 3-3-2, connecting the arm platform with a hydraulic cylinder; 3-3-3. folding hydraulic cylinder; 3-3-4. connecting rod A; 3-3-5. a ground supporting hydraulic cylinder; 3-3-6, connecting rod B; 3-3-7. a sliding block; 3-3-8, connecting rod C; 3-3-9. a boundary working platform; 3-4-1. a driving mechanism; 3-4-2. a rotary table base; 3-4-3, big arm; 3-4-4, actuator; 3-4-4-1. a chain; 3-4-4-2. a jumbolter; 3-4-4-3, a propulsion motor; 3-4-4-4 roofbolter guide rails; 3-5-1, storing the anchor rod in a bracket; 3-5-2. a bracket rotating motor; 4-1, supporting the main beam; 4-2, supporting the platform; 4-3, turning to a track; 4-4. a steering mechanism; 4-5, a supporting device; 4-6. front steering track; 4-3-1, a small roller A; 4-3-2, a large roller A; 4-3-3, a chute mechanism A; 4-4-1, small roller C; 4-4-2, a big roller C; 4-4-3, fixing groove; 4-4-4, steering hydraulic cylinder A; 4-4-5, connecting block A; 4-4-6, pushing the hydraulic cylinder A; 4-4-7, a support sleeve; 4-4-8, fixing part A; 4-4-9, fixing part B; 4-4-10. a steering hydraulic cylinder B; 4-4-11, pushing the hydraulic cylinder B; 4-4-12, connecting block B; 4-5-1. a supporting seat; 4-5-2. a rear end ground support hydraulic cylinder; 4-5-3, supporting the hydraulic cylinder on the middle ground; 4-5-4. front end ground support hydraulic cylinder; 4-6-1, small roller B; 4-6-2, a big roller B; 4-6-3, a chute mechanism B; 5-1, laterally supporting the main beam; 5-2, supporting the platform at the side; 5-3, a side supporting mechanism; 5-4, a propelling hydraulic cylinder; 5-3-1, mounting a roller; 5-3-2. a fixed station; 5-3-3. wall surface supporting seat; 5-3-4. a front end wall supporting hydraulic cylinder; 5-3-5. a rear end supporting wall hydraulic cylinder; 5-3-6, lower roller.

Detailed Description

In order to make the technical means, the creation features, the achievement purposes and the functions of the present invention easy to understand, the present invention will be described in further detail with reference to the accompanying drawings and the detailed description. It should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.

Referring to fig. 1, an anchoring robot suitable for complex working conditions of a fully mechanized excavation face comprises a suspension support system 1, a power system 2, an anchoring robot system 3, a ground support system 4 and a wall support system 5; the suspension support system 1 is fixed at the top end of a coal mining roadway through an anchor rod and provides support for the whole set of equipment; the power system 2 is arranged at the tail end of a system main beam 1-5 in the suspension support system 1; the anchoring robot system 3 is arranged at the lower end of a system main beam 1-5 in the suspension support system 1; the ground support system 4 is fixed on system main beams 1-5 in the suspension support system 1 above the installation position of the anchoring robot system 3; the wall surface supporting system 5 is fixed on system main beams 1-5 in the suspension supporting system 1 above the installation position of the ground supporting system 4. The anchoring robot suitable for the complex working condition of the fully mechanized excavation face is characterized in that when the anchoring robot walks and works, the ground supporting system 4 and the wall surface supporting system 5 are used for supporting the dead weight of the whole anchoring robot together, and the stability and the safety of the work are greatly improved.

Referring to fig. 2 and 3, the suspension support system 1 comprises a top beam 1-1, a support member 1-2, a track 1-3, a rectangular pin 1-4 and a system main beam 1-5; the system main beam 1-5 is arranged on the track 1-3 through a bearing trolley 2-1; the top beam 1-1 is provided with four holes for fixing the top beam on the top end of a coal mining roadway by using anchor rods; the upper end of the supporting piece 1-2 is connected with the top beam 1-1 through the rectangular pin 1-4, and the lower end is connected with the track 1-3 through the rectangular pin 1-4.

Referring to fig. 4, the power system 2 comprises a bearing trolley 2-1, a motor 2-3, a motor base 2-2, a gear transmission system 2-4 and a power connecting device 2-5; the motor 2-3 is arranged on the motor base 2-2 through a bolt, and the motor base 2-2 is arranged on the lower bottom surface of the bearing trolley 2-1 through a bolt; the bearing trolley 2-1 is arranged on the track 1-3, and is characterized in that the bearing trolley 2-1 can slide on the surface of the track 1-3; an input shaft in the gear transmission system 2-4 is connected with the motor 2-3 through a coupler, an output gear in the gear transmission system 2-4 is installed in a matched mode with a rack in the track 1-3, one end of the power connection device 2-5 is welded to the gear transmission system 2-4, and the other end of the power connection device is connected with the system main beam 1-5 through a pin.

Referring to fig. 5, 6, 7 and 8, the anchoring robot system 3 comprises a beam arm hydraulic cylinder group 3-1, an anchoring robot connecting assembly 3-2, an anchoring robot working platform 3-3, an anchoring robot 3-4 and an anchor rod storage device 3-5; the anchoring robot connecting assembly 3-2 comprises an upper connecting arm 3-2-1, a lower connecting arm 3-2-2 and a connecting hydraulic cylinder group 3-2-3; the upper connecting arm 3-2-1 is connected with the system main beam 1-5 through a pin; one end of the beam arm hydraulic cylinder group 3-1 is connected with the system main beam 1-5 through a pin, the other end of the beam arm hydraulic cylinder group is connected with the upper connecting arm 3-2-1 through a pin, and two sets of beam arm hydraulic cylinder groups 3-1 are uniformly distributed on two sides of the system main beam 1-5; the upper connecting arm 3-2-1 is connected with the lower connecting arm 3-2-2 through a pin; one end of the connecting hydraulic cylinder group 3-2-3 is connected with the upper connecting arm 3-2-1 through a pin, and the other end of the connecting hydraulic cylinder group is connected with the lower connecting arm 3-2-2 through a pin; the lower connecting arm 3-2-2 is connected with the anchoring robot working platform 3-3 through a pin; the anchoring robot working platform 3-3 comprises a middle working platform 3-3-1, an arm platform connecting hydraulic cylinder 3-3-2, a folding hydraulic cylinder 3-3-3, a connecting rod A3-3-4, a ground supporting hydraulic cylinder 3-3-5, a connecting rod B3-3-6, a sliding block 3-3-7, a connecting rod C3-3-8 and a boundary working platform 3-3-9; one end of the arm platform connecting hydraulic cylinder 3-3-2 is connected with the middle position of the tail end of the lower connecting arm 3-2-2 through a pin, and the other end of the arm platform connecting hydraulic cylinder is connected with the middle position of the bottom of the middle working platform 3-3-1 through a pin; the boundary working platforms 3-3-9 on both sides are symmetrically arranged about the middle working platform 3-3-1, which will be described with one side; one end of the folding hydraulic cylinder 3-3-3 is connected with the middle working platform 3-3-1 through a pin, and the other end of the folding hydraulic cylinder is connected with one end of the connecting rod A3-3-4 and one end of the connecting rod B3-3-6 through a pin; the lower end of the boundary working platform 3-3-9 is connected with the connecting rod A3-3-4 through a pin; the sliding blocks 3-3-7 are matched with the groove-shaped structures on the lower sides of the boundary working platforms 3-3-9 to realize translation; the lower end of the slider 3-3-7 is connected with one end of the connecting rod B3-3-6 and one end of the connecting rod C3-3-8 through pins; the connecting rod C3-3-8 is connected with the ground supporting hydraulic cylinder 3-3-5 through a pin; the anchoring robot working platform 3-3 and the mechanism at the bottom end of the anchoring robot 3-4 form a linear motor; the anchor rod storage device 3-5 comprises an anchor rod storage support 3-5-1 and a support rotating motor 3-5-2; the bracket rotating motor 3-5-2 is arranged on the inner side surface of the anchoring robot connecting component 3-2; the anchor rod storage support 3-5-1 is arranged on the outer side surface of the anchoring robot connecting assembly 3-2; the anchoring robot 3-4 comprises a driving mechanism 3-4-1, a rotary table base 3-4-2, a large arm 3-4-3 and an actuator 3-4-4; the driving mechanism 3-4-1 can drive the rotary table base 3-4-2 to rotate so as to meet the requirements of the actuator 3-4-4 on different stations; the large arm 3-4-3 is connected with the rotary table base 3-4-2 and can swing relatively; the large arm 3-4-3 and the actuator 3-4-4 form a four-bar linkage mechanism which can control the rotation angle of the actuator 3-4-4; the actuator 3-4-4 comprises a chain 3-4-4-1, an anchor rod drilling machine 3-4-4-2, a propulsion motor 3-4-4-3 and an anchor rod drilling machine guide rail 3-4-4-4; the propulsion motor 3-4-4-3 is arranged at the front end of the actuator 3-4-4; the jumbolter 3-4-4-2 is arranged on the jumbolter guide rail 3-4-4 through holes on two sides; the propulsion motor 3-4-4-3 drives the jumbolter 3-4-4-2 to move on the jumbolter guide rail 3-4-4-4 by driving the chain 3-4-4-1.

Referring to fig. 9, 10, 11, 12 and 13, the ground support system 4 includes a support main beam 4-1, a support platform 4-2, a rear steering rail 4-3, a steering mechanism 4-4, a support device 4-5 and a front steering rail 4-6; the ground support system 4 is symmetrically arranged about the system main beams 1-5 in the suspension support system 1; the following description will take the ground support system 4 as an example on one side. One end of each of three groups of support main beams 4-1 at one side of a system main beam 1-5 in the suspension support system 1 is fixed on the system main beam 1-5 in the suspension support system 1 through a bolt, and the other end of each of the three groups of support main beams is fixed on the support platform 4-2 through a bolt; the rear steering track 4-3 comprises a small roller A4-3-1, a large roller A4-3-2 and a chute mechanism A4-3-3; one side of the ground support system 4 comprises three identical sets of the support devices 4-5; the supporting device 4-5 comprises a supporting seat 4-5-1, a rear-end ground supporting hydraulic cylinder 4-5-2, a middle ground supporting hydraulic cylinder 4-5-3 and a front-end ground supporting hydraulic cylinder 4-5-4; the lower end of the rear ground support hydraulic cylinder 4-5-2 is connected with the support seat 4-5-1 through a pin; the small roller A4-3-1 is arranged at the upper end of a groove opening of the chute mechanism A4-3-3; the large roller A4-3-2 is arranged in a groove of the chute mechanism A4-3-3 groove-shaped opening; the small roller A4-3-1 and the big roller A4-3-2 can be buckled with the upper surface and the lower surface of the supporting platform 4-2 to realize rolling fit; the steering mechanism 4-4 comprises a small roller C4-4-1, a large roller C4-4-2, a fixing groove 4-4-3, a steering hydraulic cylinder A4-4-4, a fixing piece A4-4-8, a pushing hydraulic cylinder A4-4-6, a supporting sleeve 4-4-7, a fixing piece B4-4-9, a steering hydraulic cylinder B4-4-10, a pushing hydraulic cylinder B4-4-11, a connecting block A4-4-5 and a connecting block B4-4-12; the small roller C4-4-1 is arranged at the upper end of the groove-shaped opening of the fixed groove 4-4-3; the large roller C4-4-2 is arranged in a groove of the groove-shaped opening of the fixed groove 4-4-3; the small roller C4-4-1 and the big roller C4-4-2 can be buckled with the upper surface and the lower surface of the supporting platform 4-2 to realize rolling fit; the upper bottom end of the fixing groove 4-4-3 is fixed at the upper end of the hydraulic cylinder; the fixing piece A4-4-8 is sleeved on the middle ground support hydraulic cylinder 4-5-3; one side of the fixing piece A4-4-8 is provided with the steering hydraulic cylinder A4-4-4, and the other side is provided with the pushing hydraulic cylinder A4-4-6; one end of the connecting block A4-4-5 is sleeved on the pushing hydraulic cylinder A4-4-6, and the other end of the connecting block A4-4-5 is connected with one end of the steering hydraulic cylinder A4-4-4; the fixing piece B4-4-9 is sleeved on the middle ground supporting hydraulic cylinder 4-5-3 on the lower side of the fixing piece A4-4-8; one side of the fixing piece B4-4-9 is provided with the steering hydraulic cylinder B4-4-10, and the other side is provided with the pushing hydraulic cylinder B4-4-11; one end of the connecting block B4-4-12 is sleeved on the pushing hydraulic cylinder B4-4-11, and the other end of the connecting block B4-4-12 is connected with one end of the steering hydraulic cylinder B4-4-10; the supporting sleeve 4-4-7 is arranged on the middle ground supporting hydraulic cylinder 4-5-3 at the lower side of the fixing piece A4-4-8; two legs of the supporting sleeve 4-4-7 are respectively fixed on the fixing piece A4-4-8 and the fixing piece B4-4-9; the front steering track 4-6 is similar to the rear steering track 4-3 and comprises a small roller B4-6-1, a large roller B4-6-2 and a chute mechanism B4-6-3; the small roller B4-6-1 is arranged at the upper end of a groove-shaped opening of the chute mechanism B4-6-3; the big roller B4-6-2 is arranged in a groove of a groove-shaped opening of the chute mechanism B4-6-3; the small roller B4-6-1 and the big roller B4-6-2 can be buckled with the upper surface and the lower surface of the supporting platform 4-2 to realize rolling fit; the pushing hydraulic cylinder A4-4-6 is connected with the rear end ground support hydraulic cylinder 4-5-2 at the rear end of the support device 4-5 through a pin; the pushing hydraulic cylinder B4-4-11 is connected with the front end ground support hydraulic cylinder 4-5-4 at the front end of the support device 4-5 through a pin; the supporting platform 4-2, the small roller A4-3-1 and the large roller A4-3-2 on the rear steering track 4-3, the small roller C4-4-1 and the large roller C4-4-2 on the steering mechanism 4-4, and the small roller B4-6-1 and the large roller B4-6-2 on the front steering track 4-6 are matched in a rolling manner, so that the rear steering track 4-3, the steering mechanism 4-4 and the front steering track 4-6 can roll on the supporting platform 4-2.

Referring to fig. 14 and 15, the wall surface supporting system 5 comprises a side surface supporting main beam 5-1, a side surface supporting platform 5-2, a pushing hydraulic cylinder 5-4 and a side surface supporting mechanism 5-3; the wall surface support systems 5 are symmetrically arranged relative to system main beams 1-5 in the suspension support system 1; the following description will be made by taking the ground support system 4 on one side as an example; one ends of two groups of side supporting main beams 5-1 at one side of the system main beams 1-5 in the suspension supporting system 1 are fixed on the system main beams 1-5 in the suspension supporting system 1 through bolts, and the other ends of the two groups of side supporting main beams are fixed on the side supporting platform 5-2 through bolts. The side supporting mechanism 5-3 comprises an upper roller 5-3-1, a lower roller 5-3-6, a fixed table 5-3-2, a wall surface supporting seat 5-3-3, a front end wall supporting hydraulic cylinder 5-3-4 and a rear end wall supporting hydraulic cylinder 5-3-5; the upper roller 5-3-1 is arranged at the upper end of a groove-shaped opening of the fixed table 5-3-2; the lower roller 5-3-6 is arranged in a groove of the groove-shaped opening of the fixed table 5-3-2; the upper roller 5-3-1 and the lower roller 5-3-6 can be buckled with the upper surface and the lower surface of the side supporting platform 5-2 to realize rolling fit; the upper ends of the front end wall supporting hydraulic cylinder 5-3-4 and the rear end wall supporting hydraulic cylinder 5-3-5 are respectively fixed with the fixed table 5-3-2, and the lower ends are respectively connected with the wall surface supporting seat 5-3-3 through pins; the two groups of side supporting mechanisms 5-3 are connected through the pushing hydraulic cylinders 5-4; two ends of the propulsion hydraulic cylinder 5-4 are respectively fixed on the fixed tables 5-3-2 of the two groups of side supporting mechanisms 5-3; the wall surface supporting system 5 is characterized in that the propelling hydraulic cylinder 5-4 can realize that the two side surface supporting mechanisms 5-3 roll on the side surface supporting platform 5-2 alternately.

An anchoring robot suitable for complex working conditions of a fully mechanized excavation face is characterized by comprising the following steps:

s1: mounting the whole set of equipment on the laid suspension support system 1;

s2: when the motor 2-3 works, the power system 2 moves on the track 1-3 through the gear transmission system 2-4 to push the system main beam 1-5 connected with the power system to move, so that the support platform 4-2 and the side support platform 5-2 are driven to move together;

s3: a ground support system 4 and a wall support system 5 are respectively arranged on two sides of a system main beam 1-5, the working processes of the systems on the two sides are completely synchronous, and the working process on one side is taken as an example for description. At the beginning of the operation of the whole set of equipment, a front-end ground support hydraulic cylinder 4-5-4, a middle ground support hydraulic cylinder 4-5-3 and a rear-end ground support hydraulic cylinder 4-5-2 in a support device 4-5 are simultaneously supported on a roadway bottom plate; the front end wall supporting hydraulic cylinder 5-3-4 and the rear end wall supporting hydraulic cylinder 5-3-5 are simultaneously supported on the wall surface of the roadway, and the pushing hydraulic cylinder B4-4-11 and the pushing hydraulic cylinder 5-4 are in a contraction state. During operation, the front-end ground support hydraulic cylinder 4-5-4 and the front-end wall support hydraulic cylinder 5-3-4 are contracted, the front steering rail 4-6 connected with the front-end ground support hydraulic cylinder 4-5-4 is pushed to move forwards to a specified position along the support platform 4-2 under the action of the pushing hydraulic cylinder B4-4-11, and meanwhile, the side support mechanism 5-3 connected with the front-end wall support hydraulic cylinder 5-3-4 is pushed to move forwards to a specified position along the side support platform 5-2 under the action of the pushing hydraulic cylinder 5-4. Then, the front end ground support hydraulic cylinder 4-5-4 extends to be supported on the bottom plate of the roadway, and meanwhile, the front end wall support hydraulic cylinder 5-3-4 extends to be supported on the wall surface of the roadway;

s4: the middle ground support hydraulic cylinder 4-5-3 is contracted, then the pushing hydraulic cylinder B4-4-11 is contracted, meanwhile, the pushing hydraulic cylinder A4-4-6 is expanded, the two cylinders act together to enable the chute mechanism A4-3-3 connected with the middle ground support hydraulic cylinder 4-5-3 to move forwards to a designated position along the side support platform 5-2, and then the middle ground support hydraulic cylinder 4-5-3 is expanded to be supported on the roadway bottom plate;

s5: the rear end ground support hydraulic cylinder 4-5-2 and the rear end wall support hydraulic cylinder 5-3-5 are contracted, the rear steering rail 4-3 connected with the rear end ground support hydraulic cylinder 4-5-2 is pulled to move forwards to a specified position along the support platform 4-2 under the action of the pushing hydraulic cylinder A4-4-6, and meanwhile, the rear end wall support hydraulic cylinder 5-3-5 is pulled to move forwards to a specified position along the side support mechanism 5-3 under the action of the pushing hydraulic cylinder 5-4. Then, the rear end ground support hydraulic cylinder 4-5-2 extends to be supported on the bottom plate of the roadway, and meanwhile, the rear end wall support hydraulic cylinder 5-3-5 is supported on the wall surface of the roadway, so that one end of the whole set of equipment is moved; the continuous advance of the whole set of equipment can be realized by repeating the steps.

An anchoring robot suitable for complex working conditions of a fully mechanized excavation face is characterized by comprising the following steps in a turning process:

s1: when the turning function of the whole set of equipment is realized, the front-end ground supporting hydraulic cylinder 4-5-4 is contracted, and the front-end ground supporting hydraulic cylinder 4-5-4 can be driven to swing in the front steering track 4-6 under the action of the telescopic action of the steering hydraulic cylinder B4-4-10, so that the front-end ground supporting hydraulic cylinder 4-5-4 is not positioned on the connecting line of the middle ground supporting hydraulic cylinder 4-5-3 and the rear-end ground supporting hydraulic cylinder 4-5-2, and then the front-end ground supporting hydraulic cylinder 4-5-4 is extended and supported on a roadway bottom plate;

s2: the rear end ground support hydraulic cylinder 4-5-2 contracts and can drive the rear end ground support hydraulic cylinder 4-5-2 to swing in the rear steering track 4-3 under the telescopic action of the steering hydraulic cylinder A4-4-4, so that the rear end ground support hydraulic cylinder 4-5-2, the middle ground support hydraulic cylinder 4-5-3 and the front end ground support hydraulic cylinder 4-5-4 are on the same straight line, and then the front end ground support hydraulic cylinder 4-5-4 extends and is supported on a roadway bottom plate to realize the turning action.

The anchoring robot suitable for the complex working condition of the fully mechanized excavation face is characterized by comprising the following steps of:

s1: an anchoring robot working platform 3-3 in the anchoring robot system 3 descends to a certain height and keeps parallel to the ground under the combined action of an anchoring robot connecting assembly 3-2, a folding hydraulic cylinder 3-3-3 and a ground supporting hydraulic cylinder 3-3-5 to complete supporting action;

s2: the position and posture of the anchoring robot 3-4 and the anchor rod storage bracket 3-5-1 are adjusted simultaneously, so that one anchor rod in the anchor rod storage bracket 3-5-1 is loaded on the anchor rod drilling machine 3-4-4-2 to finish the action of loading the anchor rod;

s3: the two groups of anchoring robots 3-4 adjust different poses, anchoring operation of the anchor rod drilling machine 3-4-4-2 on different positions of the side face and the top plate of the roadway can be realized, and roadway supporting operation is completed.

Finally, it should be noted that the above embodiments are only used for illustrating the technical solutions of the present invention and not for limiting, and although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention can be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should be covered by the scope of the claims of the present invention.

Claims (6)

1. The utility model provides an anchor robot suitable for combine and dig working face complex operating mode which characterized by: comprises a suspension support system, a power system, an anchoring robot system, a ground support system and a wall support system; the suspension support system is fixed at the top end of the coal mining roadway through an anchor rod and provides support for the anchor support robot; the power system is arranged at the tail end of a system main beam in the suspension support system; the anchoring robot system is arranged at the lower end of a system main beam in the suspension support system; and the ground supporting system and the wall surface supporting system are both fixed on a system main beam in the suspension supporting system above the installation position of the anchoring robot system.

2. The anchoring robot suitable for the complex working conditions of the fully mechanized excavation face of claim 1, wherein: the anchoring robot system comprises a beam arm hydraulic cylinder group, an anchoring robot connecting assembly, an anchor rod storage device, an anchoring robot working platform and an anchoring robot; the anchoring robot connecting assembly comprises an upper connecting arm, a lower connecting arm and a connecting hydraulic cylinder group; the upper end of the anchoring robot connecting assembly is connected with the system main beam through a pin; the tail end of the anchoring robot connecting assembly is connected with the anchoring robot working platform through a pin; the anchoring robot working platform comprises a middle working platform, an arm platform connecting hydraulic cylinder, a folding hydraulic cylinder, a connecting rod A, a ground supporting hydraulic cylinder, a connecting rod B, a sliding block, a connecting rod C and a boundary working platform; the anchoring robot working platform is composed of three sections and can realize a folding function.

3. The anchoring robot suitable for the complex working conditions of the fully mechanized excavation face of claim 1, wherein: the ground support system comprises a support main beam, a support platform, a rear steering track, a steering mechanism, a support device and a front steering track; the ground support system is symmetrically arranged about a system main beam in the suspension support system; the rear steering track comprises a small roller A, a large roller A and a chute mechanism A; the small roller A is arranged at the upper end of a groove-shaped opening of the chute mechanism A; the steering mechanism comprises a small roller C, a large roller C, a fixing groove, a steering hydraulic cylinder A, a fixing piece A, a pushing hydraulic cylinder A, a supporting sleeve, a fixing piece B, a steering hydraulic cylinder B, a pushing hydraulic cylinder B, a connecting block A and a connecting block B; and three groups of same supporting devices are arranged on one side of the ground supporting system.

4. The anchoring robot suitable for the complex working conditions of the fully mechanized excavation face of claim 3, wherein: the supporting device comprises a front-end ground supporting hydraulic cylinder, a middle ground supporting hydraulic cylinder, a rear-end ground supporting hydraulic cylinder and a supporting seat; the front steering track is similar to the rear steering track and comprises a small roller B, a large roller B and a chute mechanism B; the small roller B is arranged at the upper end of a groove-shaped opening of the sliding groove mechanism B; the supporting platform is matched with the small roller A and the large roller A on the rear steering track, the small roller C and the large roller C on the steering mechanism, and the small roller B and the large roller B on the front steering track in a rolling manner, so that the rear steering track, the steering mechanism and the front steering track can roll on the supporting platform.

5. The anchoring robot suitable for the complex working conditions of the fully mechanized excavation face of claim 1, wherein: the wall surface supporting system comprises a side surface supporting main beam, a side surface supporting platform, a propelling hydraulic cylinder and a side surface supporting mechanism; the wall support system is symmetrically arranged with respect to a system main beam in the suspension support system.

6. The anchoring robot suitable for the complex working conditions of the fully mechanized excavation face of claim 5, wherein: the side surface supporting mechanism comprises an upper roller, a lower roller, a fixed table, a front end wall supporting hydraulic cylinder, a rear end wall supporting hydraulic cylinder and a wall surface supporting seat; the upper roller is arranged at the upper end of the groove-shaped opening of the fixed table; the lower roller is arranged in a groove of the groove-shaped opening of the fixed table; the upper roller and the lower roller can be buckled with the upper surface and the lower surface of the side supporting platform to realize rolling fit; the upper ends of the front end wall supporting hydraulic cylinder and the rear end wall supporting hydraulic cylinder are fixed with the fixed table, and the lower ends of the front end wall supporting hydraulic cylinder and the rear end wall supporting hydraulic cylinder are connected with the wall surface supporting seat through pins; the two groups of side supporting mechanisms are connected through the pushing hydraulic cylinder; two ends of the pushing hydraulic cylinder are respectively fixed on the fixed tables of the two groups of side supporting mechanisms.

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