Anti-offset diamond saw blade

Abstract

The utility model discloses an anti-deviation diamond saw blade. The anti-deviation diamond saw blade comprises a pair of saw blade positioning frames, a pair of base body connecting blocks and an operation base body. The utility model relates to the technical field of cutting saw blades, according to the saw blade, a diamond sheet is accurately restrained between a pair of saw blade positioning frames through a saw blade fixing sleeve frame structure, the stability and the accuracy of operation of the saw blade are ensured, and further, through the synergistic effect of secondary anti-deviation assemblies on the pair of saw blade positioning frames, the saw blade is more stable in operation. Any deviation tendency of the diamond piece in the rotating operation process is effectively restrained fundamentally, so that the cutting operation effect is optimized to the maximum extent, and a solid guarantee is provided for safety of a user.

Description

Technical Field

[0001] This utility model relates to the field of cutting saw blade technology, specifically an anti-deviation diamond saw blade. Background Technology

[0002] Diamond saw blades, highly efficient cutting tools, are structurally composed of a matrix and a cutting head. The matrix provides stable support, while the cutting head is embedded with diamond microparticles tightly encapsulated in a metal matrix. Designed for precise friction cutting, diamond saw blades excel in processing hard and brittle materials such as concrete, refractory materials, stone, and ceramics due to their exceptional hardness and wear resistance. They are also suitable for cutting non-ferrous metals, non-metallic materials, and high-density, high-hardness sheets such as particleboard and MDF. Diamond saw blades come in various types, including cold-pressed and hot-pressed sintered types, brazed and laser-welded types, and electroplated (including brazing) types. Despite their high price, their superior cutting efficiency and precision make them a preferred choice in many industrial fields. However, when cutting hard materials, the resistance during cutting can easily interfere with the saw blade's trajectory. Once it deviates, it can lead to material damage or even endanger the operator's safety. While existing technologies may already address these issues, this paper aims to provide an alternative or replacement solution. Utility Model Content

[0003] To achieve the above objectives, this utility model provides the following technical solution: an anti-deviation diamond saw blade, comprising: a pair of saw blade positioning frames, a pair of base connecting blocks, and a rotating base. The pair of base connecting blocks are respectively mounted on the saw blade positioning frames, and the pair of saw blade positioning frames are interconnected. The rotating base is respectively connected to the pair of base connecting blocks. A saw blade retaining frame structure is installed on the saw blade positioning frames. The saw blade retaining frame structure includes: a pair of frame alignment keys, several frame locking keys, a pair of frame locking bolts, a pair of drive shaft constraint frames, a diamond blade, and a saw blade drive shaft.

[0004] A pair of frame alignment keys are respectively installed on a pair of saw blade positioning frames. A pair of meshing grooves are respectively provided on the pair of saw blade positioning frames. The pair of frame alignment keys are respectively connected to the pair of saw blade positioning frames through the pair of meshing grooves. A plurality of frame locking keys are respectively installed on the pair of saw blade positioning frames. A pair of frame locking bolts are respectively inserted into the plurality of frame locking keys. A pair of drive shaft constraint frames are respectively installed on the pair of saw blade positioning frames. The diamond blade is fixedly mounted on the saw blade drive shaft. The saw blade drive shaft is respectively inserted into the pair of drive shaft constraint frames through bearings. The saw blade drive shaft is connected to the operating base. Secondary anti-deviation components are respectively installed on the saw blade positioning frames.

[0005] It should be noted that, as described above, the diamond blade and a pair of saw blade positioning frames are combined with each other via the saw blade drive shaft. A pair of drive shaft constraint frames fully constrain the saw blade drive shaft, and a pair of base connecting blocks connect the saw blade positioning frames to the operating base. Furthermore, a pair of frame locking bolts fix multiple frame locking keys together. Combined with the frame alignment keys on the saw blade positioning frames, the pair of saw blade positioning frames are perfectly aligned and do not easily loosen. In this way, the diamond saw blade is assembled. When the operating base is driven, the saw blade drive shaft is driven, which in turn causes the diamond blade to rotate. The diamond blade then cuts the material below through the wavy cutting teeth on it while rotating.

[0006] Preferably, the secondary anti-deviation component includes: a pair of on-plate grooves, a plurality of limiting component mounting blocks, and a plurality of saw blade limiting heads;

[0007] The diamond sheet has a pair of on-sheet grooves, and a plurality of saw blade limiting heads are respectively inserted into the pair of on-sheet grooves. A plurality of limiting component mounting blocks are respectively installed on the pair of saw blade positioning frames, and a plurality of saw blade limiting heads are respectively installed on a plurality of limiting component mounting blocks.

[0008] It should be noted that, as described above, when the diamond blade rotates, the four saw blade limiting heads on the four limiting component mounting blocks are attached to the surface of the diamond blade. Relying on the ball bearings set on the saw blade limiting heads, and in conjunction with a pair of grooves on the diamond blade, the diamond blade can run smoothly in real time. Even if it is subjected to pressure and deviates, it will be firmly held in place, thereby fundamentally preventing the diamond saw blade from deviating.

[0009] Preferably, a wear-resistant coating layer is provided on the groove on the chip;

[0010] Preferably, the saw blade limiting head is provided with a fitting ball bearing;

[0011] Preferably, the frame locking bolt is provided with a hexagonal screw hole;

[0012] Preferably, the diamond sheet is provided with wavy cutting serrations. Beneficial effects

[0013] This invention provides an anti-deviation diamond saw blade. Compared to existing technologies, this anti-deviation diamond saw blade, through its saw blade retaining frame structure, precisely constrains the diamond blade between a pair of saw blade positioning frames, ensuring stable and accurate operation. Furthermore, through the synergistic effect of secondary anti-deviation components on these two saw blade positioning frames, it fundamentally and effectively suppresses any tendency of the diamond blade to deviate during rotational operation, thereby maximizing the cutting effect and providing a solid guarantee for user safety. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the front cross-sectional structure of the anti-offset diamond saw blade of this utility model.

[0015] Figure 2 This is a side view of the anti-deviation diamond saw blade of this utility model.

[0016] Figure 3 for Figure 1 A magnified view of the letter "A" in the diagram.

[0017] In the diagram: 1. Saw blade positioning frame; 2. Base connecting block; 3. Operating base; 4. Frame alignment key; 5. Frame locking key body; 6. Frame locking bolt body; 7. Drive shaft constraint frame; 8. Diamond blade; 9. Saw blade drive shaft; 10. Groove on the blade; 11. Limiting component placement block; 12. Saw blade limiting head. Detailed Implementation

[0018] Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

[0019] Those skilled in the art should connect all electrical components and their compatible power supplies in this case via wires. Appropriate controllers and encoders should be selected according to the actual situation to meet control requirements. The specific connection and control sequence should refer to the working principle described below, where the electrical components are connected in sequence. The detailed connection methods are well-known in the art. The following mainly introduces the working principle and process, and will not describe the electrical control further. Example

[0020] The present invention will now be described in detail with reference to the accompanying drawings, such as... Figure 1-3As shown, an anti-deviation diamond saw blade includes: a pair of saw blade positioning frames 1, a pair of base connecting blocks 2, and a rotating base 3. The pair of base connecting blocks 2 are respectively mounted on the saw blade positioning frames 1, and the pair of saw blade positioning frames 1 are interconnected. The rotating base 3 is respectively connected to the pair of base connecting blocks 2. A saw blade retaining frame structure is installed on the saw blade positioning frames 1. The saw blade retaining frame structure includes: a pair of frame alignment keys 4, a plurality of frame locking keys 5, a pair of frame locking bolts 6, a pair of drive shaft constraint frames 7, a diamond blade 8, and a saw blade drive shaft 9. The pair of frame alignment keys 4 are respectively mounted on the pair of saw blade positioning frames 1. A pair of meshing grooves are respectively opened on the pair of saw blade positioning frames 1. The pair of frame alignment keys 4 are respectively connected to the pair of saw blade positioning frames 1 through the pair of meshing grooves. The plurality of frame locking keys 5 are respectively mounted on the pair of saw blade positioning frames 1. A pair of frame locking bolts 6 are respectively inserted into a plurality of frame locking keys 5, a pair of drive shaft constraint frames 7 are respectively installed on a pair of saw blade positioning frames 1, a diamond blade 8 is fixedly fitted onto a saw blade drive shaft 9, the saw blade drive shaft 9 is respectively inserted into a pair of drive shaft constraint frames 7 through bearings, and the saw blade drive shaft 9 is connected to the operating base 3, and a secondary anti-deviation component is respectively installed on the saw blade positioning frame 1; the secondary anti-deviation component includes: a pair of on-plate grooves 10, a plurality of limit component mounting blocks 11, and a plurality of saw blade limit heads 12; a pair of on-plate grooves 10 are formed on the diamond blade 8, a plurality of saw blade limit heads 12 are respectively inserted into a pair of on-plate grooves 10, a plurality of limit component mounting blocks 11 are respectively installed on a pair of saw blade positioning frames 1, and a plurality of saw blade limit heads 12 are respectively installed on a plurality of limit component mounting blocks 11.

[0021] According to the appendix Figure 1-3It is concluded that by combining the diamond blade 8 with a pair of saw blade positioning frames 1 via the saw blade drive shaft 9, and by using a pair of drive shaft constraint frames 7 to fully constrain the saw blade drive shaft 9, and by connecting a pair of base connecting blocks 2 to the saw blade positioning frame 1 and the operating base 3, and by combining a pair of frame locking bolts 6 to fix multiple frame locking keys 5 together, and by using the frame alignment keys 4 on the saw blade positioning frame 1, the pair of saw blade positioning frames 1 will fit together tightly after alignment, making it difficult for them to loosen. In this way, the diamond saw blade is assembled. When the operating base 3 is driven, the saw blade drive shaft will... 9 is driven, which in turn causes the diamond blade 8 to rotate. The diamond blade 8 cuts the material below it through the wavy cutting saw teeth on it while rotating. When the diamond blade 8 rotates, the four saw blade limiting heads 12 on the four limiting component mounting blocks 11 are attached to the surface of the diamond blade 8. With the help of the ball bearings on the saw blade limiting heads 12 and the pair of grooves 10 on the diamond blade 8, the diamond blade 8 can run smoothly in real time. Even if it is deviated by pressure, it will be firmly resisted, thus fundamentally preventing the diamond saw blade from deviating.

[0022] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An anti-walk diamond saw blade comprising: A pair of saw blade positioning frames, a pair of base body connecting blocks and a running base body, a pair of the base body connecting blocks are respectively installed on the saw blade positioning frames, a pair of the saw blade positioning frames are connected with each other, the running base body is connected with a pair of the base body connecting blocks, the saw blade positioning frame is provided with a saw blade retaining sleeve frame structure, characterized in that the saw blade retaining sleeve frame structure comprises a pair of frame alignment keys, a plurality of frame locking key bodies, a pair of frame locking bolt bodies, a pair of driving shaft constraint frames, a diamond blade and a saw blade driving shaft; A pair of the frame alignment keys are respectively installed on a pair of the saw blade positioning frames, a pair of engagement grooves are respectively formed in a pair of the saw blade positioning frames, a pair of the frame alignment keys are connected with a pair of the saw blade positioning frames through a pair of the engagement grooves, a plurality of the frame locking key bodies are respectively installed on a pair of the saw blade positioning frames, a pair of the frame locking bolt bodies are respectively inserted into a plurality of the frame locking key bodies, a pair of the driving shaft constraint frames are respectively installed on a pair of the saw blade positioning frames, the diamond blade is fixedly sleeved on the saw blade driving shaft, the saw blade driving shaft is inserted into a pair of the driving shaft constraint frames through bearings, and the saw blade driving shaft is connected with the running base body, and the saw blade positioning frame is respectively provided with a secondary anti-deviation assembly.

2. A run-out resistant diamond saw blade according to claim 1, characterized in that The secondary anti-deviation assembly comprises a pair of on-blade grooves, a plurality of limiting component mounting blocks and a plurality of saw blade limiting heads. A pair of the on-blade grooves are formed in the diamond blade, a plurality of the saw blade limiting heads are respectively inserted into a pair of the on-blade grooves, a plurality of the limiting component mounting blocks are respectively installed on a pair of the saw blade positioning frames, and a plurality of the saw blade limiting heads are respectively installed on a plurality of the limiting component mounting blocks.

3. A run-out resistant diamond saw blade according to claim 2, wherein, The on-blade groove is provided with a wear-resistant plating film layer.

4. A run-out resistant diamond saw blade according to claim 3, wherein, The saw blade limiting head is provided with a matched ball.

5. A run-out resistant diamond saw blade according to claim 4, wherein, The frame locking bolt body is provided with a hexagonal screw port.

6. A run-out resistant diamond saw blade according to claim 5, wherein, The diamond blade is provided with a wave-shaped cutting sawtooth port.

Images