Brick surface anti-cracking beveling device

Abstract

The invention relates to the technical field of tile surface beveling, in particular to a tile surface anti-cracking beveling device which comprises a tile clamping mechanism, a width adapting mechanism arranged on the tile clamping mechanism, two sets of inclined plane rotating coordination mechanisms arranged on the width adapting mechanism and a tile sawing mechanism arranged in the two sets of inclined plane rotating coordination mechanisms. The width adapting mechanism comprises a frame plate and two bearing frames movably mounted in the frame plate; and the rotating inclined plane coordination mechanism comprises a fastener arranged outside the bearing frame. The top face of a large brick is used as a reference platform, the brick clamping mechanism is fixed to the top face of the large brick, at the moment, the brick clamping mechanism can provide an effective supporting platform for the width adapting mechanism and the two sets of rotating slope coordination mechanisms, and the width adapting mechanism descends according to the set inclination angle; the two sets of rotating inclined plane coordination mechanisms which are pressed to descend at the same speed can carry the tightened rope saw to conduct beveling treatment on the bricks, and therefore the problem that the bricks are fractured due to the fact that the bricks are pressed too much in the beveling process is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of brick surface bevel cutting, and specifically to a brick surface anti-cracking bevel cutting device. Background Technique

[0002] Bricks are a common building material, made of clay, concrete limestone or other materials. Traditional small bricks can be directly split with a masonry knife, but with the gradual optimization of modern building materials, large bricks need to be cut with specific cutting equipment. Therefore, a safe and effective cutting device is required for large bricks.

[0003] Currently, the bevel cutting of large bricks mainly relies on equipment such as cutting discs or electric saws. However, these cutting devices will cause relatively large cutting seams on the bricks, and during cutting, the force applied by the worker to the equipment will be counteracted on the bricks. Once the cutting device shows a tendency to deviate from the cutting trajectory, the cut part of the brick will break due to external forces. At the same time, due to the length limitations of the cutting disc and the electric saw, it is difficult to completely bevel cut large bricks.

[0004] In view of this, a brick surface anti-cracking bevel cutting device is designed to solve the above problems. Summary of the Invention

[0005] The present invention aims to solve one of the technical problems existing in the prior art or related technologies.

[0006] To this end, the technical solution adopted by the present invention is as follows: A brick surface anti-cracking bevel cutting device, comprising a brick clamping mechanism, a width adaptation mechanism arranged on the brick clamping mechanism, two rotating inclined plane coordination mechanisms arranged on the width adaptation mechanism, and a brick sawing mechanism arranged in the two rotating inclined plane coordination mechanisms; the width adaptation mechanism includes a frame plate and two load-bearing frames movably installed in the frame plate; the rotating inclined plane coordination mechanism includes fasteners arranged outside the load-bearing frame, two vertical plates arranged outside the fasteners, sub-support plates arranged at the bottom of the vertical plates, steering rollers movably installed inside the two sub-support plates, guiding rollers movably installed in the middle of the two vertical plates, two protective rollers movably installed inside the two vertical plates, a horizontal shaft installed in the two vertical plates, a force arm movably installed outside the horizontal shaft, a rope binding sleeve installed at the bottom of the force arm, a sleeve installed at the top of the force arm, a sliding column movably installed inside the sleeve, and a propulsion shaft movably installed inside the sleeve, and the number of rope binding sleeves is two; the brick sawing mechanism includes a wire saw clamped in the two rope binding sleeves.

[0007] In a preferred embodiment, the present invention can be further configured as follows: The brick clamping mechanism includes two stability-enhancing outer plates, two first chucks mounted on the two stability-enhancing outer plates, a cross rail movably mounted outside the first chucks, two traction frames movably connected to the two first chucks, an end plate movably mounted on the tops of the two traction frames, a lead screw disposed inside the end plate, and the bottom end of the lead screw is movably mounted inside the cross rail, a beam rod movably mounted inside the two stability-enhancing outer plates, a track plate mounted in the middle of the beam rod, and two first springs disposed outside the beam rod.

[0008] In a preferred embodiment, the present invention can be further configured as follows: The rotating inclined plane coordination mechanism further includes two third bolts disposed on the vertical plate, a sliding sleeve disposed outside the vertical plate and fixed by the two third bolts, a third spring disposed inside the sliding sleeve, and a first bolt penetrating into the inside of the sliding sleeve; A rectangular clamping block is provided at the top of the sub-support plate, and the rectangular clamping block is adapted to penetrate into the sliding sleeve. The top end of the third spring is connected to the rectangular clamping block, and the first bolt is adapted to penetrate into the rectangular clamping block.

[0009] In a preferred embodiment, the present invention can be further configured as follows: The brick clamping mechanism further includes two clamping plates fixedly mounted inside the cross rail, a second combined bolt movably mounted inside the two clamping plates, and a support plate movably mounted outside the second combined bolt; A second spring and a sliding plate are disposed inside the track plate, and the sliding plate is disposed at the top of the second spring and a first combined bolt movably mounted at the outer end of the sliding plate; The top end of the support plate is used to provide effective support for the inclination of the track plate.

[0010] In a preferred embodiment, the present invention can be further configured as follows: The width adaptation mechanism further includes a guide plate movably mounted outside the first combined bolt, and the guide plate is fixed to the frame plate, two cushion members disposed on the top of the frame plate, a screw rod fixedly mounted on the top of the load-bearing frame, a nut disposed on the threaded section of the screw rod, and two grip rods fixedly mounted outside the guide plate, and the screw rod is adapted to penetrate outside the cushion member.

[0011] In a preferred embodiment, the present invention can be further configured as follows: The rotating inclined plane coordination mechanism further includes a chassis fixedly mounted on the outer sides of the tops of the two vertical plates, a motor mounted inside the chassis, and a first gear mounted on the transmission shaft inside the motor; The rotating inclined plane coordination mechanism further includes a baffle and a sleeve plate fixedly mounted inside the two vertical plates, a bearing mounted inside the sleeve plate, and the propulsion shaft is mounted inside the bearing, and a second gear is mounted at the top end of the propulsion shaft; The first gear is adapted to mesh with the second gear.

[0012] In a preferred embodiment, the present invention can be further configured as follows: the rotating inclined plane coordination mechanism further includes two second bolts arranged on the outer wall of the vertical plate, a deviation correction clamping member inserted inside the two vertical plates, and an anti - detachment clamping member inserted inside the two sub - support plates.

[0013] In a preferred embodiment, the present invention can be further configured as follows: the rope - binding sleeve is integrally in an L - shaped structure, and a through - hole for guiding the rope saw is provided inside the rope - binding sleeve, and a pre - tightening bolt is arranged at the bottom of the rope - binding sleeve for fixing the rope saw.

[0014] In a preferred embodiment, the present invention can be further configured as follows: the brick - sawing mechanism further includes cushion feet arranged outside the two second bolts, and the number of the cushion feet is two, and a winding roller is movably installed inside the two cushion feet; The rope saw is wound around the winding roller.

[0015] In a preferred embodiment, the present invention can be further configured as follows: both the guiding roller and the turning roller are composed of a first guide rod and an I - shaped roller sleeve; The protective roller is composed of a second guide rod and a cylindrical roller sleeve.

[0016] By adopting the above - mentioned technical solutions, the beneficial effects obtained by the present invention are as follows: 1. By taking the top surface of the large brick as a reference platform and fixing the brick - clamping mechanism on the top surface of the brick, the brick - clamping mechanism will provide an effective support platform for the width - adapting mechanism and the two groups of rotating inclined plane coordination mechanisms. As the width - adapting mechanism descends at a set inclination angle, the two groups of rotating inclined plane coordination mechanisms that are pressed and descend at the same speed will carry the tightened rope saw to perform oblique cutting on the brick, thereby avoiding the problem of brick fracture due to excessive pressure during oblique cutting.

[0017] 2. The present invention controls the width between the two groups of rotating inclined plane coordination mechanisms through the width - adapting mechanism. When the large brick is flipped and the width of its top surface changes, the two groups of rotating inclined plane coordination mechanisms with adjusted spacing can quickly adapt to the top surface of the flipped brick, and the length of the rope saw will also be further fine - tuned according to the width of the top surface of the brick, so as to quickly cut the end faces with different widths after the brick is flipped.

[0018] 3. By regulating the cutting depth of the rotating inclined plane coordination mechanism, when the height difference between the top surface of the flipped brick and the ground increases, the length of the vertical plate and the sub - support plate is increased to adapt to the actual height after the brick is flipped. At this time, the depth between the two groups of rotating inclined plane coordination mechanisms can be further increased, so as to increase the inclination angle to perform deep cutting on the brick. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram when the present invention is in use; Figure 2 The upward view schematic diagram of the present invention; Figure 3 The exploded schematic diagram of the brick clamping mechanism of the present invention; Figure 4 For the present invention Figure 3 The enlarged schematic diagram of part A in the present invention; Figure 5 For the present invention Figure 3 The enlarged schematic diagram of part B in the present invention; Figure 6 The schematic diagram of the width adaptation mechanism of the present invention; Figure 7 The schematic diagram of the brick sawing mechanism of the present invention; Figure 8 The schematic diagram of the rotating inclined plane coordination mechanism of the present invention; Figure 9 For the present invention Figure 8 The enlarged schematic diagram of part C in the present invention; Figure 10 For the present invention Figure 8 The enlarged schematic diagram of part D in the present invention; Figure 11 For the present invention Figure 8 The partial schematic diagram of the present invention.

[0020] Reference numerals: 100, brick clamping mechanism; 110, stability-enhancing outer plate; 1101, beam rod; 1102, first spring; 120, first chuck; 130, track plate; 1301, second spring; 1302, sliding plate; 1303, first combination bolt; 140, cross rail; 1401, clamping plate; 1402, second combination bolt; 1403, support plate; 150, traction frame; 160, end plate; 170, lead screw; 200, width adaptation mechanism; 210, guide plate; 220, frame plate; 230, cushioning piece; 240, screw rod; 250, nut; 260, load-bearing frame; 270, grip bar; 300, rotating inclined plane coordination mechanism; 310, vertical plate; 3101, second bolt; 3102, fastener; 3103, protective roller; 3104, guiding roller; 3105, deviation correction clamping part; 3106, steering roller; 3107, anti-disengagement clamping part; 3108, third bolt; 320, machine box; 3201, motor; 3202, first gear; 330, sliding sleeve; 340, third spring; 350, first bolt; 360, sub-support plate; 370, baffle plate; 3701, sleeve plate; 3702, bearing; 3703, propulsion shaft; 3704, second gear; 3705, sleeve; 3706, sliding column; 380, horizontal shaft; 3801, lever arm; 3802, cable clamping sleeve; 400, brick sawing mechanism; 410, foot pad; 420, winding roller; 430, wire saw. Detailed implementation manners

[0021] To make the objectives, technical solutions and advantages of the present invention clearer and more understandable, the present invention will be further described in detail below in combination with specific implementation manners and with reference to the accompanying drawings. It should be noted that, without conflict, the embodiments of the present invention and the features in the embodiments may be combined with each other.

[0022] It should be understood that these descriptions are only exemplary and are not intended to limit the scope of the present invention.

[0023] The following describes a brick surface anti-cracking bevel cutting device provided by some embodiments of the present invention with reference to the accompanying drawings. Embodiment 1:

[0024] Combined with Figures 1 to 11 As shown, a brick surface anti-cracking bevel cutting device provided by the present invention includes a brick clamping mechanism 100, a width adaptation mechanism 200 arranged on the brick clamping mechanism 100, two sets of rotating inclined plane coordination mechanisms 300 arranged on the width adaptation mechanism 200, and a brick sawing mechanism 400 arranged in the two sets of rotating inclined plane coordination mechanisms 300. The brick clamping mechanism 100 is used for clamping the end faces of large bricks with different widths and providing a bevel cutting bearing platform for the width adaptation mechanism 200. The width adaptation mechanism 200 is used for adjusting the lateral distance between the two sets of rotating inclined plane coordination mechanisms 300. After the width is adjusted, the two sets of rotating inclined plane coordination mechanisms 300 cooperate with the brick sawing mechanism 400 to perform bevel cutting on large bricks.

[0025] The width adaptation mechanism 200 includes a frame plate 220, two load-bearing frames 260 movably installed in the frame plate 220, a guide plate 210 movably installed outside a first combined bolt 1303, and the guide plate 210 is fixed on the frame plate 220. Two cushion members 230 are arranged on the top of the frame plate 220. A screw rod 240 is fixedly installed on the top of the load-bearing frame 260. A nut 250 is arranged on the threaded section of the screw rod 240. And two grip rods 270 are fixedly installed outside the guide plate 210, and the screw rod 240 is adapted to penetrate through the outside of the cushion member 230; The inclined surface rotation coordination mechanism 300 includes a fastener 3102 disposed outside the load-bearing frame 260, two vertical plates 310 disposed outside the fastener 3102, a sub-support plate 360 disposed at the bottom of the vertical plates 310, a steering roller 3106 movably installed inside the two sub-support plates 360, a guiding roller 3104 movably installed in the middle of the two vertical plates 310, two protective rollers 3103 movably installed inside the two vertical plates 310, a transverse shaft 380 installed inside the two vertical plates 310, a force arm 3801 movably installed outside the transverse shaft 380, a rope binding sleeve 3802 installed at the bottom of the force arm 3801, a sleeve 3705 disposed at the top of the force arm 3801, a sliding column 3706 movably installed inside the sleeve 3705, and a propulsion shaft 3703 movably installed inside the sleeve 3705, and the number of the rope binding sleeves 3802 is two; Two third bolts 3108 disposed on the vertical plates 310, a sliding sleeve 330 disposed outside the vertical plates 310 and fixed by the two third bolts 3108, a third spring 340 disposed inside the sliding sleeve 330, and a first bolt 350 penetrating into the sliding sleeve 330, a chassis 320 fixedly installed on the outer sides of the tops of the two vertical plates 310, a motor 3201 installed inside the chassis 320, and a first gear 3202 installed on the transmission shaft inside the motor 3201, a baffle 370 and a bushing plate 3701 fixedly installed inside the two vertical plates 310, a bearing 3702 installed inside the bushing plate 3701, and the propulsion shaft 3703 is installed inside the bearing 3702, and a second gear 3704 is installed at the top end of the propulsion shaft 3703, two second bolts 3101 disposed on the outer walls of the vertical plates 310, a deviation correction card member 3105 inserted inside the two vertical plates 310, and an anti-disengagement card member 3107 inserted inside the two sub-support plates 360; A rectangular block is disposed at the top end of the sub-support plate 360, and the rectangular block is adapted to penetrate into the sliding sleeve 330, the top end of the third spring 340 is connected to the rectangular block, and the first bolt 350 is adapted to penetrate into the rectangular block; The first gear 3202 is adapted to be meshed with the second gear 3704; Both the guiding roller 3104 and the steering roller 3106 are composed of a first guide rod and an I-shaped roller sleeve; The protective roller 3103 is composed of a second guide rod and a cylindrical roller sleeve; The brick sawing mechanism 400 includes a wire saw 430 clamped inside the two rope binding sleeves 3802.

[0026] When there is a gap between the width of the placed top surface of the large brick after flipping and the spacing of the two sets of rotating inclined plane coordination mechanisms 300 in the initial state, by loosening the two nuts 250 and controlling the two load-bearing frames 260 to relatively extend along the inner side of the frame plate 220, at this time, the two load-bearing frames 260 will relatively expand centered on the guide plate 210, and finally the two sets of rotating inclined plane coordination mechanisms 300 installed at the outer ends of the two load-bearing frames 260 will be adapted to the placed top surface of the large brick after flipping; After the two sets of rotating inclined plane coordination mechanisms 300 are adapted to the placed top surface of the brick, the two nuts 250 can be tightened. Then, the user can manually press the two grip rods 270. At this time, the guide plate 210 and the slide plate 1302 fixed at an angle by the first set of bolts 1303 will stably slide along the inside of the track plate 130. The width-adjusting mechanism 200 with a fixed inclination angle will carry the two sets of rotating inclined plane coordination mechanisms 300 and move uniformly towards the placed top surface of the brick, and the part of the wire saw 430 exposed between the two sets of rotating inclined plane coordination mechanisms 300 can perform oblique cutting on the brick; When further oblique cutting treatment is required inside the brick, only the inclination angle between the guide plate 210 and the slide plate 1302 needs to be adjusted, and at the same time, the tilting angle of the track plate 130 is adjusted. After the double-angle adjustment, the width-adjusting mechanism 200 and the two sets of rotating inclined plane coordination mechanisms 300 can carry the wire saw 430 to freely change along the internal oblique angle of the brick; When the height difference between the placed top surface of the large brick and the ground changes, by loosening the first bolt 350 to adjust the length of the sub-support plate 360 extending inside the sliding sleeve 330 until the length between the sub-support plate 360 and the vertical plate 310 extends to the maximum state, and using the first bolt 350 to fix the sub-support plate 360 inside the sliding sleeve 330. At this time, the two sets of rotating inclined plane coordination mechanisms 300 with adjusted length can cooperate with the wire saw 430 to effectively cut the large brick. Embodiment 2:

[0027] Combined with Figures 1 to 5 As shown, on the basis of Embodiment 1, the brick clamping mechanism 100 includes two stability-enhancing outer plates 110, two first chucks 120 installed on the two stability-enhancing outer plates 110, a cross rail 140 movably installed outside the first chucks 120, two traction frames 150 movably connected to the two first chucks 120, an end plate 160 movably installed on the tops of the two traction frames 150, a lead screw 170 arranged inside the end plate 160, and the bottom end of the lead screw 170 is movably installed inside the cross rail 140, a beam rod 1101 movably installed inside the two stability-enhancing outer plates 110, a track plate 130 installed in the middle of the beam rod 1101, two first springs 1102 arranged outside the beam rod 1101, two clamping plates 1401 fixedly installed on the inner side of the cross rail 140, a second set of bolts 1402 movably installed inside the two clamping plates 1401, and a support plate 1403 movably installed outside the second set of bolts 1402; Inside the track slab 130, a second spring 1301 and a sliding plate 1302 are provided, and the sliding plate 1302 is arranged at the top of the second spring 1301 and a first combined bolt 1303 is movably installed at the outer end of the sliding plate 1302; The top end of the supporting plate 1403 is used to effectively support the inclination of the track slab 130.

[0028] Preferably, an anti-slip rubber layer is provided on the inner side of the stability-enhancing outer plate 110, and the beam rod 1101 is fixedly installed inside the track slab 130; Among them, two sliding grooves are provided inside the cross rail 140, and the two first chucks 120 respectively penetrate into the two sliding grooves; After the bottom surface of the cross rail 140 fits against the top surface of the brick, by rotating the lead screw 170, at this time the end plate 160 will rise and fall uniformly along the threaded section of the lead screw 170, and the two traction frames 150 movably installed at both ends of the end plate 160 will apply a lateral traction force to the two first chucks 120. Finally, this mechanism can adaptively clamp the top surfaces of bricks with different widths; After the two stability-enhancing outer plates 110 are perpendicular to the top surface of the brick, by adjusting the second combined bolt 1402 to control the inclination angle of the supporting plate 1403, at this time, after the supporting plate 1403 is inclined, it will push the track slab 130 to roll over laterally towards the width adaptation mechanism 200. At this time, the track slab 130 will provide an actively lifting support platform for the width adaptation mechanism 200 and the two groups of inclined plane coordination mechanisms 300. Embodiment 3:

[0029] Combined Figures 7 to 11 As shown, in the above embodiment, the brick sawing mechanism 400 further includes foot pads 410 arranged outside the two second bolts 3101, and the number of the foot pads 410 is two, and a winding roller 420 is movably installed inside the two foot pads 410; The wire saw 430 is wound around the winding roller 420; The rope bundling sleeve 3802 is integrally in an L-shaped structure, and a through hole for guiding the wire saw 430 is provided inside the rope bundling sleeve 3802, and a pre-tightening bolt is provided at the bottom of the rope bundling sleeve 3802 for fixing the wire saw 430.

[0030] Preferably, the foot pad 410 is in a T-shaped structure, and the column heads at both ends of the winding roller 420 respectively penetrate into the grooves inside the two foot pads 410; After the distance between the two sets of rotating inclined plane coordination mechanisms 300 is adjusted, according to the different widths of the top surfaces of the large bricks after flipping, first loosen the pre-tightening bolts at the bottoms of the two cable tie sleeves 3802, and then stretch the wire saw 430 outwards along the through holes inside the two cable tie sleeves 3802 until the exposed part of the wire saw 430 between the two sub-plates 360 matches the width of the top surface of the large brick, and then tighten the two pre-tightening bolts; At this time, the wire saw 430 in the tensioned state will perform a bevel cutting operation on the brick with the lowest loss under the action of high-frequency stretching.

[0031] The working principle and usage process of the present invention: First, reverse the rotation of the lead screw 170. At this time, the end plate 160 will descend along the threaded section of the lead screw 170. Finally, the end plate 160 will push the two traction frames 150 to expand outwards, and the first chuck 120 and the stability-enhancing outer plate 110 pushed by the traction frames 150 will expand outwards until there is a large enough gap between the two stability-enhancing outer plates 110. Then pre-install the two stability-enhancing outer plates 110 outside the brick until the cross rail 140 fits against the top of the brick. Then rotate the lead screw 170 forward. After the end plate 160 rises along the threaded section of the lead screw 170, the two traction frames 150 being pulled will quickly tighten the two stability-enhancing outer plates 110, and the two stability-enhancing outer plates 110 will be fixed outside the brick; Loosen the nut inside the second combination bolt 1402, and then tilt the support plate 1403 according to the requirements of brick bevel cutting until the top end of the support plate 1403 pushes the track plate 130 to reverse towards the two sets of rotating inclined plane coordination mechanisms 300. At this time, the brick clamping mechanism 100 as a whole will provide a sufficiently stable support platform for the width adaptation mechanism 200 and the two sets of rotating inclined plane coordination mechanisms 300; Then loosen the two nuts 250 and control the two load-bearing frames 260 to expand outwards until the two sets of rotating inclined plane coordination mechanisms 300 match the width of the brick. At this time, it is necessary to tighten the two nuts 250, and then adjust the inclination angle of the guide plate 210 by controlling the first combination bolt 1303 until the bottoms of the two sets of rotating inclined plane coordination mechanisms 300 form an effective inclination angle with the brick. After the inclination angle between the bottoms of the two sets of rotating inclined plane coordination mechanisms 300 and the brick is selected, it is necessary to tighten the first combination bolt 1303 again; Then, start two motors 3201. As the two motors 3201 operate, the two first gears 3202 that rotate accordingly will drive the two second gears 3704 to rotate correspondingly. After the two second gears 3704 are orderly assisted in rotation according to the rules, the two propulsion shafts 3703 in the clamping state will control the two sliding columns 3706 to reciprocate along the vertical grooves inside the two sleeves 3705 during rotation. At this time, the lever 3801 supported by the cross shaft 380 will be pulled to reciprocate and extend. Finally, the bottom end of the lever 3801 and the rope binding sleeve 3802 will drive the wire saw 430 to extend frequently. As the wire saw 430 located in the gap between the two groups of rotating inclined plane coordination mechanisms 300 continuously approaches the brick until it fits, the wire saw 430 in the high-frequency extension state will perform an oblique cutting operation on the brick at a specified inclination angle; When the worker presses down the two grip rods 270, the entire width-adjusting mechanism 200 will push the two groups of rotating inclined plane coordination mechanisms 300 to descend smoothly. Finally, while reducing the internal force on the brick, the wire saw 430 can quickly perform an oblique cut on the brick; Thereby effectively avoiding the phenomenon that the brick breaks due to the extrusion of the cutting assembly during cutting.

[0032] Although the embodiments of the present invention have been shown and described, those of ordinary skill in the art can understand that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and purposes of the present invention. The scope of the present invention is defined by the claims and their equivalents.

Claims

1. A brick surface anti-crack beveling device, comprising a brick clamping mechanism (100), characterized in that: It also includes a width adjustment mechanism (200) arranged on the brick clamping mechanism (100), two sets of bevel rotation coordination mechanisms (300) arranged on the width adjustment mechanism (200), and a brick sawing mechanism (400) arranged in the two sets of bevel rotation coordination mechanisms (300); The width-adjusting mechanism (200) comprises a frame plate (220) and two load-bearing frames (260) movably mounted in the frame plate (220); The inclined plane coordination mechanism (300) comprises a fastener (3102) arranged outside the load-bearing frame (260), two vertical plates (310) arranged outside the fastener (3102), a sub-supporting plate (360) arranged at the bottom of the vertical plates (310), a steering roller (3106) movably mounted inside the two sub-supporting plates (360), a guide roller (3104) movably mounted in the middle of the two vertical plates (310), and two protective rollers (3106) movably mounted inside the two vertical plates (310). 3) a transverse shaft (380) installed in two vertical plates (310), a lever arm (3801) movably installed outside the transverse shaft (380), a rope clamp (3802) installed at the bottom of the lever arm (3801), a sleeve (3705) arranged at the top of the lever arm (3801), a sliding column (3706) movably installed in the sleeve (3705), and a propulsion shaft (3703) movably installed inside the sleeve (3705), and the number of the rope clamp (3802) is two; The brick sawing mechanism (400) comprises a rope saw (430) clamped in two rope binding sleeves (3802).

2. A brick surface anti-crack beveling device according to claim 1, characterized in that: The brick clamping mechanism (100) comprises two stabilizing outer plates (110), two first clamps (120) mounted on the two stabilizing outer plates (110), a cross rail (140) movably mounted outside the first clamps (120), two traction frames (150) movably connected to the two first clamps (120), an end plate (160) movably mounted on the top of the two traction frames (150), a screw rod (170) arranged inside the end plate (160), and the bottom end of the screw rod (170) is movably mounted inside the cross rail (140), a beam rod (1101) movably mounted inside the two stabilizing outer plates (110), a track plate (130) mounted in the middle of the beam rod (1101), and two first springs (1102) arranged outside the beam rod (1101).

3. A brick surface anti-crack beveling device according to claim 1, characterized in that: The inclined plane coordination mechanism (300) further comprises two third bolts (3108) arranged on the vertical plate (310), a sliding sleeve (330) arranged outside the vertical plate (310) and fixed by the two third bolts (3108), a third spring (340) arranged inside the sliding sleeve (330), and a first bolt (350) penetrating into the interior of the sliding sleeve (330); A rectangular block is provided at the top of the sub-supporting plate (360), and the rectangular block is adapted to penetrate into the sliding sleeve (330), the top of the third spring (340) is connected to the rectangular block, and the first bolt (350) is adapted to penetrate into the rectangular block.

4. A brick surface anti-crack beveling device according to claim 2, characterized in that: The brick clamping mechanism (100) further comprises two clamping plates (1401) fixedly mounted on the inner side of the cross rail (140), a second assembly bolt (1402) movably mounted inside the two clamping plates (1401), and a support plate (1403) movably mounted outside the second assembly bolt (1402); The track plate (130) is provided with a second spring (1301) and a slide plate (1302) inside, and the slide plate (1302) is provided at the top end of the second spring (1301) and a first assembly bolt (1303) is movably mounted on the outer end of the slide plate (1302); The top end of the support plate (1403) is used to provide effective support for the inclination of the track plate (130).

5. The brick surface anti-crack beveling device according to claim 1, characterized in that: The width adjustment mechanism (200) further comprises a guide plate (210) movably mounted on the outside of the first assembly bolt (1303), wherein the guide plate (210) is fixed on the frame plate (220), two cushions (230) arranged on the top of the frame plate (220), a screw rod (240) fixedly mounted on the top of the load-bearing frame (260), a nut (250) arranged on the threaded section of the screw rod (240), and two gripping rods (270) fixedly mounted on the outside of the guide plate (210), wherein the screw rod (240) is adapted to penetrate the outside of the cushions (230).

6. A brick surface anti-crack beveling device according to claim 1, characterized in that: The inclined plane coordination mechanism (300) further comprises a chassis (320) fixedly mounted on the outer sides of the tops of the two vertical plates (310), a motor (3201) mounted inside the chassis (320), and a first gear (3202) mounted on a transmission shaft inside the motor (3201); The inclined plane coordination mechanism (300) further comprises a baffle (370) and a shaft sleeve plate (3701) fixedly mounted inside the two vertical plates (310), a bearing (3702) mounted inside the shaft sleeve plate (3701), a propulsion shaft (3703) mounted inside the bearing (3702), and a second gear (3704) mounted on the top end of the propulsion shaft (3703); The first gear (3202) is adapted to mesh with the second gear (3704).

7. A brick surface anti-crack beveling device according to claim 1, characterized in that: The inclined plane coordination mechanism (300) further comprises two second bolts (3101) arranged on the outer wall of the vertical plate (310), a deviation correction clamp (3105) plugged into the inner sides of the two vertical plates (310), and an anti-drop clamp (3107) plugged into the inner sides of the two sub-support plates (360).

8. The brick surface anti-crack beveling device according to claim 1, characterized in that: The rope tying sleeve (3802) is of an L-shaped structure as a whole, and a through hole for guiding the rope saw (430) is provided inside the rope tying sleeve (3802), while a pre-tightening bolt is provided at the bottom of the rope tying sleeve (3802) for fixing the rope saw (430).

9. A brick surface anti-crack beveling device according to claim 1, characterized in that: The brick sawing mechanism (400) further comprises a pad foot (410) arranged outside the two second bolts (3101), and the number of the pad foot (410) is two, and a winding roller (420) is movably installed inside the two pad feet (410); The rope saw (430) is wound around the winding roller (420).

10. A brick surface anti-crack beveling device according to claim 1, characterized in that: The guide roller (3104) and the steering roller (3106) are both composed of a first guide rod and an I-shaped roller sleeve; The protective roller (3103) is composed of a second guide rod and a cylindrical roller sleeve.

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