A type of tile cutting machine

Abstract

This utility model provides a tile cutting machine, including a tile cutting device placement platform, a support rod, a clamping component mounting frame, and an integrated alignment module, lifting module, a three-point contact support structure clamping mechanism, and a cutting blade movement screw transmission module. During operation, the alignment module automatically centers the tile using a clamp with cushioning material driven by a clamping screw motor; the lifting module partially lifts the area to be cut, forming a stable fixing structure with two supports and one pressing mechanism, effectively preventing tile displacement or breakage during cutting; the cutting module, precisely controlled by a screw transmission system, moves the blade linearly along a slide rail at a uniform speed, achieving high-precision, vibration-free cutting. This equipment has a high degree of automation, significantly improving cutting accuracy, yield, and operational safety. It is suitable for efficient batch processing of various types of tiles, especially thin slabs and large-format tiles, and has good practicality and promotional value.

Description

Technical Field

[0001] This utility model relates to the field of tile cutting technology, and more specifically, to a tile cutting machine. Background Technology

[0002] As a widely used material in building decoration, the processing precision and efficiency of ceramic tiles directly affect construction quality and schedule. In practical applications, it is often necessary to cut whole tiles according to the tiling dimensions, making tile cutting equipment a key tool on construction sites and in processing workshops. Currently, common tile cutting methods on the market mainly include manual push-blade cutters, semi-automatic rail cutters, and some CNC waterjet or diamond disc cutters.

[0003] Among them, the manual push-blade cutter is simple in structure and low in cost. The operator needs to hold the cutting handle and push the blade along the guide rail to cut the tile, and then press down the wrench to break the tile along the scratch. Although this type of equipment is easy to carry, it has obvious drawbacks: the straightness of the cut depends entirely on the operator's technique, and it is easy to produce skewing, chipping, or uneven breakage; and it is difficult to effectively cut thicker or harder tiles, resulting in low efficiency.

[0004] Although semi-automatic track-type cutting machines incorporate fixed guide rails and motor-driven blade rotation, manual pushing of the slide is still required to complete the feeding action. During operation, uneven pushing force can easily lead to uneven load on the blade, affecting the cutting quality; at the same time, the lack of an automatic clamping device makes the tile prone to slipping during cutting, posing a safety hazard, especially when processing large-sized or smooth-surfaced tiles.

[0005] While high-end CNC cutting equipment can achieve high-precision automatic cutting, it is bulky, expensive, and complex to maintain. It also requires supporting water supply, dust removal, or cooling systems, making it difficult to widely apply in small and medium-sized decoration projects or ordinary processing points.

[0006] The main shortcomings of the existing technology need to be improved: the existing equipment relies on manual pressing or simple stop block positioning, which cannot achieve automatic, synchronous and stable bidirectional clamping, resulting in tile displacement, chipping or even splashing during the cutting process, affecting accuracy and safety.

[0007] The cutting feed is mostly driven manually by the operator, which makes it difficult to ensure uniform linear motion, easily causing the cut to be crooked, the blade to wear out faster, and the labor intensity to be high and the efficiency to be low.

[0008] The existing equipment has a fixed workbench height, which makes it difficult to adapt to the cutting needs of tiles of different thicknesses, especially with poor compatibility with new thick rock slabs or composite tiles.

[0009] Clamping, cutting, and lifting are independent actions that require separate steps, making automation impossible and hindering production efficiency.

[0010] In summary, existing tile cutting equipment still has significant shortcomings in terms of automation, cutting accuracy, safety, versatility, and ease of operation. Therefore, we propose an improvement and a new tile cutting machine. Utility Model Content

[0011] The purpose of this utility model is to address the problems raised in the existing background technology. To achieve the above-mentioned purpose, this utility model provides the following technical solution: a tile cutting machine, including a tile cutting device placement platform, with support rods respectively provided at the four corners of the bottom of the tile cutting device placement platform, a clamping component mounting frame connected to the support rods, a straightening module provided on the clamping component mounting frame, a lifting module provided on the side of the straightening module, and a cutting blade moving screw transmission module provided above the lifting module, the cutting blade moving screw transmission module driving the cutting module to move, and the lifting module cooperating with a three-point contact support structure clamping mechanism.

[0012] As a preferred technical solution of this utility model, the correction module includes a tile clamping crank, a flange coupling, a hinge seat, a clamp with buffer material, a sliding base sliding shaft, and a clamping screw motor. The ceramic tile clamping crank has flange couplings at both ends, and the other end of each flange coupling has a hinge seat.

[0013] As a preferred technical solution of this utility model, there are two hinge seats, each of which is equipped with a clamp with a buffer material, and the sliding base sliding shaft is connected inside the hinge seat.

[0014] As a preferred technical solution of this utility model, a lifting module is installed on the side shaft of the clamping assembly mounting frame. The lifting module includes a tile lifting rocker, a tile rocker drive motor, and a tile rocker linkage rod. The tile rocker linkage is connected to the tile lifting rocker, and a tile rocker drive motor is installed between the two rods of the tile lifting rocker.

[0015] As a preferred technical solution of this utility model, the cutting blade moving screw transmission module includes a sliding frame slide rail, a cutting blade sliding frame, a screw motor, a screw motor shaft, a screw screw, a screw nut, a nut mounting bracket, and a screw bearing.

[0016] As a preferred technical solution of this utility model, a cutting blade sliding frame is slidably arranged on the sliding frame slide rail, the lead screw motor is connected to the lead screw motor shaft, the lead screw motor shaft is connected to the lead screw screw through a coupling, the lead screw screw is engaged with the lead screw nut, the lead screw nut is installed on the nut mounting bracket, and the end of the lead screw screw is connected to the screw bearing.

[0017] As a preferred technical solution of this utility model, a motor mounting bracket is installed below the sliding rail of the sliding frame, and a cutting module is provided at the front end of the motor mounting bracket.

[0018] As a preferred technical solution of this utility model, the cutting module includes a blade shaft, a cutting blade, and a blade drive motor.

[0019] As a preferred technical solution of this utility model, the power output end of the blade drive motor is rotatably connected to a blade shaft, and a cutting blade is provided on the blade shaft.

[0020] As a preferred technical solution of this utility model, the three-point contact support structure clamping mechanism includes a miniature electric push rod, a clamping telescopic rod, and a tile pressing and fixing component. The miniature electric push rod cooperates with the clamping telescopic rod, and the tile pressing and fixing component is provided below the clamping telescopic rod.

[0021] Compared with existing technologies, the advantages of this invention are as follows: The alignment module adopts a crank-connecting rod + synchronous sliding clamp structure. A clamping screw motor drives the tile clamping crank to rotate, causing two clamps with cushioning material to move synchronously in opposite directions along the sliding shaft, automatically pushing the tile to the center reference position. Compared to the errors of manual positioning, this module ensures that the tile is perfectly parallel and aligned with the cutting path, effectively avoiding problems such as cutting size deviations and bevels, significantly improving cutting accuracy, and meeting the high requirements for dimensional consistency during tile laying.

[0022] The lifting module uses a rocker drive motor to lift the tile, so that the tile is removed from the surface of the table, thus avoiding contact between the cutting blade and the table, which would cause blade wear or scratches on the table surface. The three-point contact support structure clamping mechanism adopts a stable structure with two points of support at the bottom and one point of pressure at the top. The tile pressing and fixing component driven by the miniature electric push rod forms a three-dimensional fixation with the lifting rocker arm, completely restricting the displacement of the tile during the cutting process. This double fixation not only ensures the straightness of the cut but also avoids the safety hazards caused by loose tiles and splashing during cutting, thus improving operational safety.

[0023] The clamping surface of the alignment module is coated with cushioning material, which avoids scratching damage to the glaze of the tile during the clamping and alignment process, and also prevents the edges and corners of brittle tiles from cracking due to excessive clamping force. Compared with the traditional method of direct contact with metal clamps, this design significantly reduces the breakage rate during tile processing and reduces raw material waste.

[0024] The cutting blade moving screw drive module adopts a high-precision screw and slide rail combination. The screw motor drives the screw to rotate through a coupling, converting the rotational motion into smooth linear motion of the cutting blade sliding frame. The low backlash characteristic of the screw drive enables micron-level control of the cutting path. It can not only complete standard linear cutting, but also adjust the running trajectory of the screw motor through programming to adapt to the cutting needs of tiles of different sizes and specifications, thus improving the versatility of the equipment.

[0025] The equipment integrates fully automated operation of alignment, fixing, cutting, and resetting, eliminating the need for manual adjustments to tile position, pressing, or manual pushing of the cutting blade. Compared to traditional manual tile cutters that rely on manual force and positioning, this equipment can reduce the cutting time of a single tile by more than 50%, and can operate continuously and stably. It is suitable for batch cutting scenarios such as decoration projects and tile processing plants, significantly improving production efficiency.

[0026] The equipment features a robust support structure at the bottom, consisting of four corner support rods and a clamping assembly mounting platform. This structure can withstand vibrations and impacts during the cutting process, preventing deformation. The cutting blade is directly connected to the drive motor via a blade shaft, minimizing power transmission loss and reducing motor energy consumption. A screw bearing at the end of the lead screw reduces rotational friction and extends the lifespan of the lead screw assembly. This overall reliable design reduces the frequency of replacing vulnerable parts, lowering long-term operating costs. Attached Figure Description

[0027] Figure 1 This is a structural schematic diagram of the present invention; Figure 2 A schematic diagram of the cutting blade moving screw transmission module provided by this utility model; Figure 3 A schematic diagram of the correction module structure provided by this utility model; Figure 4 A schematic diagram of the cutting module structure provided by this utility model; Figure 5 A schematic diagram of the three-point contact support structure clamping mechanism provided by this utility model; Figure 6 This is a schematic diagram of the structure of the ceramic tile pressing and fixing component provided by this utility model; Figure 7 A schematic diagram of the lead screw motor structure provided by this utility model; Figure 8 A schematic diagram of the lifting module structure provided by this utility model.

[0028] The image shows: 1. Tile cutting device placement platform; 2. Support rod; 3. Clamping component mounting frame; 4. Correction module; 401. Tile clamping crank; 402. Flange coupling; 403. Hinge seat; 404. Clamp with cushioning material; 405. Sliding base sliding shaft; 406. Clamping screw motor; 5. Lifting module; 501. Tile lifting rocker arm; 502. Tile rocker arm drive motor; 503. Tile rocker arm linkage rod; 6. Cutting blade moving screw drive module; 601. Sliding frame slide rail; 602. Cutting blade sliding frame; 603. Screw motor; 604. Screw motor shaft; 605. Screw screw; 606. Screw nut; 607. Nut mounting bracket; 608. Screw bearing; 7. Motor mounting bracket; 8. Cutting module; 801. Blade shaft; 802. Cutting blade; 803. Blade drive motor.

[0029] 9. Three-point contact support structure clamping mechanism; 901. Miniature electric push rod; 902. Clamping telescopic rod; 903. Tile pressing and fixing component; Detailed Implementation

[0030] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this utility model.

[0031] Therefore, the following detailed description of the embodiments of this utility model is not intended to limit the scope of the claimed utility model, but merely illustrates some embodiments of this utility model. All other embodiments obtained by those skilled in the art based on the embodiments of this utility model without inventive effort are within the scope of protection of this utility model. It should be noted that, in the absence of conflict, the embodiments and features and technical solutions in the embodiments of this utility model can be combined with each other. It should be noted that similar reference numerals and letters in the following figures indicate similar items; therefore, once an item is defined in one figure, it does not need to be further defined and explained in subsequent figures.

[0032] Example 1: A tile cutting machine includes a tile cutting device placement platform 1. Support rods 2 are respectively installed at the four corners of the bottom of the tile cutting device placement platform 1. A clamping component mounting frame 3 is connected to the support rods 2. The clamping component mounting frame 3 is equipped with a centering module 4. A lifting module 5 is installed on the side of the centering module 4. A cutting blade moving screw transmission module 6 is installed above the lifting module 5. The cutting blade moving screw transmission module 6 drives the cutting module 8 to move. The lifting module 5 cooperates with a three-point contact support structure clamping mechanism 9. The centering module 4 includes a tile clamping crank 401, a flange coupling 402, a hinge seat 403, a clamp with buffer material 404, a sliding base sliding shaft 405, and a clamping screw motor 406. The tile clamping crank 401 has flange couplings 402 connected to its two ends, and the other ends of the flange couplings 402 are connected to hinge seats 403. Two hinge seats 403 are provided, each with a clamp 404 with cushioning material, and the sliding base sliding shaft 405 is connected inside the hinge seat 403. A lifting module 5 is mounted on the side shaft of the clamping assembly mounting platform 3. The lifting module 5 includes a tile lifting rocker arm 501, a tile rocker arm drive motor 502, and a tile rocker arm linkage rod 503. The tile rocker linkage 503 connects to the tile lifting rocker 501, and the tile rocker drive motor 502 is installed between the two rods of the tile lifting rocker 501. The cutting blade moving screw transmission module 6 includes a sliding frame slide rail 601, a cutting blade sliding frame 602, a screw motor 603, a screw motor shaft 604, a screw screw 605, a screw nut 606, a nut mounting bracket 607, and a screw bearing 608.

[0033] A cutting blade sliding frame 602 is slidably mounted on the sliding frame rail 601. A lead screw motor 603 is connected to a lead screw motor shaft 604, which is connected to a lead screw screw 605 via a coupling. The lead screw screw 605 engages with a lead screw nut 606, which is mounted on a nut mounting bracket 607. The end of the lead screw screw 605 is connected to a screw bearing 608. A motor mounting bracket 7 is mounted below the sliding frame rail 601, and a cutting module 8 is located at the front end of the motor mounting bracket 7.

[0034] The cutting module 8 includes a blade shaft 801, a cutting blade 802, and a blade drive motor 803. The blade drive motor 803 is rotatably connected to the blade shaft 801 at its power output end, and the cutting blade 802 is mounted on the blade shaft 801. The three-point contact support structure clamping mechanism 9 includes a miniature electric push rod 901, a clamping telescopic rod 902, and a tile pressing and fixing component 903. The miniature electric push rod 901 cooperates with the clamping telescopic rod 902, and the tile pressing and fixing component 903 is located below the clamping telescopic rod 902.

[0035] Tile cutting machine working principle: This tile cutting machine achieves precise and stable tile cutting through a coordinated process of alignment and positioning, lifting and support, clamping and fixing, and moving and cutting. The operation of each module is as follows: I. Correction Module: Tile Position Calibration The core function of the alignment module is to adjust the tile to be cut to the preset cutting reference position to ensure cutting accuracy.

[0036] Power input: The clamping screw motor 406 starts and drives the tile clamping crank 401 to rotate through the transmission structure; Crank connecting rod linkage: The flange coupling 402 at the beginning and end of the tile clamping crank 401 converts the rotation into the sliding power of the hinge seat 403, and the hinge seat 403 slides synchronously in opposite directions along the sliding shaft 405 of the sliding base. Flexible clamping and alignment: The clamps 404 with buffer material on the two hinge seats 403 move closer to both sides of the tile synchronously as it slides. While using the buffer material to avoid damage to the tile, the tile is pushed to the center reference position to complete the position calibration.

[0037] II. Lifting module plus three-point contact support structure clamping mechanism: stable support and fixation of ceramic tiles After alignment, the lifting module works in conjunction with the three-point contact support mechanism to lift the tile off the placement platform and achieve stable three-point clamping, providing a stable working condition for cutting.

[0038] Lifting action: The tile rocker drive motor 502 starts, and through the tile rocker linkage 503, it drives the tile lifting rocker 501 to rotate around the fulcrum. The top of the tile lifting rocker 501 lifts the bottom of the tile upward, so that the tile is lifted off the surface of the placement platform 1. Three-point clamping fixation: The miniature electric push rod 901 of the three-point contact support structure clamping mechanism 9 is activated, pushing the clamping telescopic rod 902 downward to extend it, causing the tile pressing and fixing component 903 to contact the upper surface of the tile. Combined with the bottom support point of the lifting rocker, the tile forms a three-point stable structure with two bottom supports and one top pressing point, completely fixing the tile position and preventing displacement during cutting.

[0039] III. Cutting Blade Moving Screw Drive Module: Precise Control of Cutting Position This module drives the cutting blade to move precisely along the width of the tile, achieving a cut at a specified location.

[0040] Screw drive: The screw motor 603 starts and drives the screw screw 605 to rotate around the screw bearing 608 through the screw motor shaft 604 and the coupling; Sliding frame movement: The lead screw 605 and lead screw nut 606 mesh and drive the rotation of the screw into the linear motion of the lead screw nut 606; Since the lead screw nut 606 is fixed to the cutting blade sliding frame 602 through the nut mounting bracket 607, the cutting blade sliding frame 602 slides synchronously and linearly along the sliding frame slide rail 601, driving the cutting module 8 below to move to the preset cutting position.

[0041] IV. Cutting Module: Tile Cutting Execution Once the cutting position is determined, the cutting module starts and completes the tile cutting.

[0042] High-speed rotation of the blade: The blade drive motor 803 of the cutting module 8 is started, which drives the cutting blade 802 to rotate at high speed through the blade shaft 801 to obtain cutting power; Cutting completed: Combined with the linear drive of the lead screw transmission module for moving the cutting blade, the high-speed rotating cutting blade 802 moves along a preset path on the surface of the tile to cut the fixed tile, thus completing the tile cutting operation.

[0043] V. Reset Cycle After cutting is completed, each module resets in sequence: the cutting blade stops rotating and returns to its initial position with the sliding frame; the telescopic rod of the three-point clamping mechanism retracts, the lifting rocker rotates downward, and the tile falls back to the placement platform; the clamp of the alignment module slides in the opposite direction to release the tile, waiting for the next tile to be loaded.

[0044] Tile cutting machine working process: The working process of this tile cutting machine follows an automated process of feeding, alignment, lifting and clamping, cutting position adjustment, cutting, and resetting unloading as follows: Step 1: Loading the tile to be cut: The operator places the tile to be cut on the surface of the tile cutting device platform 1, ensuring that the tile is roughly within the clamping range of the alignment module 4, and completes the loading preparation.

[0045] Step 2: Start the correction module and calibrate the tile position: Start the clamping screw motor 406, and the power is transmitted to the tile clamping crank 401 through the transmission structure, so that the crank rotates around the central axis; The flange coupling 402 at the beginning and end of the crank converts the rotation into synchronous sliding power of the two hinge seats 403, and the hinge seats move in opposite directions along the sliding shaft 405 of the sliding base. As the clamp 404 with cushioning material on the hinge seat slides closer to both sides of the tile, the cushioning material prevents the tile's edges and corners from being bumped and damaged. At the same time, it pushes the tile to the preset center reference position of the equipment. After the position is corrected, the clamping screw motor stops, and the clamp remains in a light clamping state.

[0046] Step 3: The lifting module is linked with the three-point clamping mechanism to fix the tile stably: Start the tile rocker drive motor 502. The power is transmitted to the tile lifting rocker 501 through the tile rocker linkage 503, so that the rocker rotates upward around the mounting fulcrum. The top of the rocker lifts the bottom of the tile and lifts the tile off the surface of the placement platform 1 by a few millimeters. The miniature electric push rod 901 of the three-point contact support structure clamping mechanism 9 is activated simultaneously, pushing the clamping telescopic rod 902 to extend downward, causing the tile pressing and fixing part 903 to contact the center area of ​​the upper surface of the tile; at this time, the tile forms a three-point stable structure with two bottom points (the top of the lifting rocker) support plus one top point (the pressing and fixing part) pressing, which completely restricts the displacement of the tile and ensures that there is no shaking during cutting.

[0047] Step 4: Start the cutting blade moving screw transmission module and adjust the cutting position: Start the screw motor 603 of the cutting blade moving screw transmission module 6. The motor power is transmitted to the screw screw 605 through the screw motor shaft 604 and the coupling, so that the screw rotates at high speed around the screw bearing 608. The lead screw 605 meshes with the lead screw nut 606, converting the rotational motion into linear motion. The lead screw nut drives the cutting blade sliding frame 602 to slide along the sliding frame rail 601 through the nut mounting bracket 607. The motor mounting bracket 7 under the sliding frame synchronously drives the cutting module 8 to move until the cutting blade 802 is aligned with the preset cutting start line of the tile, at which point the lead screw motor stops and the cutting position is locked.

[0048] Step 5: Start the cutting module and perform tile cutting: Start the blade drive motor 803 of the cutting module 8. The motor power drives the cutting blade 802 to rotate at high speed through the blade shaft 801, so as to obtain sufficient power to cut the tile. Restart the lead screw motor 603 to drive the cutting blade sliding frame to move at a constant speed along the slide rail, so that the high-speed rotating cutting blade slowly cuts along the preset path on the surface of the tile; during the cutting process, the three-point clamping mechanism remains fixed to ensure that the tile does not shift. When the cutting blade moves to the preset cutting endpoint line of the tile, the blade drive motor shuts off, and the cutting blade stops rotating.

[0049] Step 6: Reset all modules and complete the material unloading. The miniature electric push rod of the three-point contact support structure clamping mechanism is activated in reverse, the clamping telescopic rod retracts, and the tile pressing and fixing component is removed from the upper surface of the tile. The tile rocker motor starts in reverse, the tile lifting rocker rotates downward, and the tile falls back onto the surface of the tile cutting device placement platform 1. The clamping screw motor of the correction module starts in reverse, and the tile clamping crank drives the hinge seat and clamp to slide in reverse, releasing the tile; The screw motor of the cutting blade moving screw transmission module starts in reverse, driving the cutting blade sliding frame back to the initial position; The operator removes the cut tile, completing one cutting cycle, and the machine awaits the next tile to be loaded. The above embodiments are only used to illustrate the present utility model and are not intended to limit the technical solutions described in the present utility model. Although the present utility model has been described in detail with reference to the above embodiments, the present utility model is not limited to the specific embodiments described above. Therefore, any modifications or equivalent substitutions to the present utility model, and all technical solutions and improvements that do not depart from the spirit and scope of the utility model, are covered within the scope of the claims of the present utility model.

Claims

1. A tile cutting machine, comprising a tile cutting device placement table (1), characterized in that, The tile cutting device placement platform (1) is provided with support rods (2) at the four corners of the bottom. The support rods (2) are connected to the clamping component mounting frame (3). The clamping component mounting frame (3) is provided with a straightening module (4). The straightening module (4) is provided with a lifting module (5) on its side. The lifting module (5) is provided with a cutting blade moving screw transmission module (6) above it. The cutting blade moving screw transmission module (6) drives the cutting module (8) to move. The lifting module (5) cooperates with the three-point contact support structure clamping mechanism (9).

2. A tile cutting machine according to claim 1, characterized in that, The correction module (4) includes a ceramic tile clamping crank (401), a flange coupling (402), a hinge seat (403), a clamp with buffer material (404), a sliding base sliding shaft (405), and a clamping screw motor (406). The ceramic tile clamping crank (401) has flange couplings (402) at both ends, and the other end of the flange couplings (402) has a hinge seat (403) for rotation.

3. A tile cutting machine according to claim 2, characterized in that, Two hinge seats (403) are provided, and each hinge seat (403) is equipped with a clamp (404) with a cushioning material, while the sliding base sliding shaft (405) is connected inside the hinge seat (403).

4. A tile cutting machine according to claim 3, characterized in that, The clamping assembly mounting platform (3) has a lifting module (5) mounted on its side shaft. The lifting module (5) includes a tile lifting rocker (501), a tile rocker drive motor (502), and a tile rocker linkage link (503). The tile rocker linkage link (503) is connected to the tile lifting rocker (501), and a tile rocker drive motor (502) is provided between the two rods of the tile lifting rocker (501).

5. A tile cutting machine according to claim 4, characterized in that, The cutting blade moving screw transmission module (6) includes a sliding frame slide rail (601), a cutting blade sliding frame (602), a screw motor (603), a screw motor shaft (604), a screw screw (605), a screw nut (606), a nut mounting bracket (607), and a screw bearing (608).

6. A tile cutting machine according to claim 5, characterized in that, A cutting blade sliding frame (602) is slidably mounted on the sliding frame rail (601). The lead screw motor (603) is connected to the lead screw motor shaft (604). The lead screw motor shaft (604) is connected to the lead screw screw (605) through a coupling. The lead screw screw (605) is engaged with the lead screw nut (606). The lead screw nut (606) is mounted on the nut mounting bracket (607). The end of the lead screw screw (605) is connected to the screw bearing (608).

7. A tile cutting machine according to claim 6, characterized in that, A motor mounting bracket (7) is installed below the sliding frame rail (601), and a cutting module (8) is provided at the front end of the motor mounting bracket (7).

8. A tile cutting machine according to claim 7, characterized in that, The cutting module (8) includes a blade shaft (801), a cutting blade (802), and a blade drive motor (803).

9. A tile cutting machine according to claim 8, characterized in that, The blade drive motor (803) is rotatably connected to the blade shaft (801) at its power output end, and the blade shaft (801) is provided with a cutting blade (802).

10. A tile cutting machine according to claim 9, characterized in that, The three-point contact support structure clamping mechanism (9) includes a miniature electric push rod (901), a clamping telescopic rod (902), and a tile pressing and fixing component (903). The miniature electric push rod (901) cooperates with the clamping telescopic rod (902), and the tile pressing and fixing component (903) is provided below the clamping telescopic rod (902).

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