Fishbone spliced floor grooving machine

Abstract

The fishbone spliced floor grooving machine comprises a conveying assembly used for conveying floors, the conveying assembly comprises a first conveying belt assembly and a second conveying belt assembly, a first stock bin assembly is arranged on the longitudinal rear side of the first conveying belt assembly, and a second stock bin assembly is arranged on the longitudinal front side of the second conveying belt assembly; the first cabin body moves back and forth in the longitudinal direction relative to the first base, and the second cabin body moves back and forth in the transverse direction relative to the second base; the first bin assembly is in transverse sliding connection with the first bin body, the second bin assembly is in transverse sliding connection with the second bin body, and the distance between the first bin assembly and the second bin assembly in the longitudinal direction is adjusted when the first bin body moves front and back in the longitudinal direction; and when the second cabin body moves back and forth in the transverse direction, the first stock bin assembly and the second stock bin assembly are adjusted to be in different or same transverse positions. The fishbone spliced floor grooving machine can be suitable for various types of floors.

Description

Technical Field

[0001] The invention relates to the technical field of floor grooving machines, in particular to a herringbone floor grooving machine. Background Art

[0002] At present, the floor is in various forms, such as Figure 5 The conventional floor is a right-angle floor. Figure 6 Figure 7 The figure also shows the beveled floor which can be assembled into a fishbone floor. Conventional slotting machines can generally only process right-angled floor or beveled floor alone. Therefore, it is necessary to improve the feeding part of the slotting machine so that it can be applied to various types of floors. Summary of the invention

[0003] The technical problem to be solved by the present invention is to provide a herringbone floor grooving machine which can be applicable to various forms of floors.

[0004] The technical solution adopted by the present invention to solve the above-mentioned technical problems is: a herringbone floor grooving machine, including a transmission component for transmitting floors, the transmission component including a first conveyor belt component and a second conveyor belt component that can form a certain spacing in the longitudinal direction, and the transverse direction is the forward transportation direction of the floor; a first silo component is arranged on the longitudinal rear side of the first conveyor belt component, and a second silo component is arranged on the longitudinal front side of the second conveyor belt component; the grooving machine includes a first base and a second base; the first cabin moves forward and backward in the longitudinal direction relative to the first base, and the second cabin moves forward and backward in the transverse direction relative to the second base; the first silo component forms a transverse sliding connection with the first cabin, and the second silo component forms a transverse sliding connection with the second cabin, and the first cabin adjusts the longitudinal spacing between the first silo component and the second silo component when the first cabin moves forward and backward in the longitudinal direction; the second cabin adjusts the first silo component and the second silo component to be in different or the same transverse positions when the second cabin moves forward and backward in the transverse direction.

[0005] Preferably, the floor comprises sides in the length direction and sides in the width direction, the sides in the width direction form a certain acute angle or obtuse angle with the sides in the length direction, or the sides in the width direction are at a right angle with the sides in the length direction.

[0006] Preferably, the first cabin or the second cabin includes a cabin seat; Cabin body includes Lower base, On the top plate, Multiple connecting columns connected between the upper top plate and the lower base, A cutter assembly for grooving the side edge of the floor is disposed on one of the connecting columns; The lower base of the first cabin body moves forward and backward in the longitudinal direction relative to the first base, and the lower base of the second cabin body moves forward and backward in the transverse direction relative to the second base.

[0007] Preferably, the first silo assembly and the second silo assembly are used to support the two ends of the floor respectively, and the first silo assembly and the second silo assembly move in the lateral direction so that the two ends of the supported floor are located at different or the same lateral positions; The first silo assembly or the second silo assembly comprises: A silo guide rail plate, on which the first guide rail is fixed; The silo slider plate is pushed by the first screw rod assembly to move forward and backward in the longitudinal direction, and a first slider matched with the first guide rail is installed at the bottom of the silo slider plate; A silo baffle plate, the front end of which is provided with an opening for the end of the floor to extend into, and the silo baffle plate is fixed to the front side of the silo slider plate; The first bracket seat is used to support the seat body of the first push rod assembly, The first push rod assembly has a push rod portion connected to a seat body of the second push rod assembly. The push rod portion of the first push rod assembly pushes the seat body of the second push rod assembly to move up and down. The push rod part of the second push rod assembly is connected to the floor connecting plate used for supporting the end of the floor, and the push rod part of the second push rod assembly pushes the floor connecting plate to move forward and backward in the longitudinal direction.

[0008] Preferably, a second slider is fixed at the bottom of the silo guide rail plate of the first silo assembly or the second silo assembly, and a second guide rail is fixed on a transversely arranged crossbar of the side bracket seat, and the second slider cooperates with the second guide rail to move in the transverse direction so that the first silo assembly or the second silo assembly moves in the transverse direction; The side bracket seat which forms a transverse sliding connection with the first silo assembly is fixed to the first cabin body, and the side bracket seat which forms a transverse sliding connection with the second silo assembly is fixed to the second cabin body.

[0009] Preferably, the slotting machine further comprises a silo top plate assembly, the silo top plate assembly is located between the first conveyor belt assembly and the second conveyor belt assembly, and the silo top plate assembly comprises: A top guide rail plate is vertically fixed, and a second guide rail is fixed on the front side of the top guide rail plate; A top plate slider plate, a slider matched with the second guide rail is arranged at the rear side of the top plate slider plate; a supporting plate for supporting the floor is arranged at the top of the top plate slider plate; The third push rod assembly has a base fixed to the top plate guide plate, and when the push rod is working, it pushes the top plate slider plate to move up and down in the vertical direction; when the push rod pushes the top plate slider plate to move in the vertical direction, it is used to lift up the floor stored between the first silo assembly and the second silo assembly, and when the push rod pushes the top plate slider plate to move downward in the vertical direction, the two ends of the floor are respectively placed on the first conveyor belt assembly and the second conveyor belt assembly.

[0010] Preferably, the first conveyor belt assembly or the second conveyor belt assembly has a conveyor belt assembly, which includes a chain plate, a polyurethane block, and a push block. The push block has a protrusion that matches the side of the floor to be transmitted. When several floors are on the conveyor belt assembly, they are located on the polyurethane block, and the protrusion of the push block pushes the bottom floor so that the bottom floor is transmitted forward together with the polyurethane block of the conveyor belt assembly.

[0011] Preferably, the slotting machine further comprises a silo baffle assembly, and the silo baffle assembly comprises: A baffle fixing plate is placed above the conveyor belt assembly and forms a gap for a single floor to pass through with the polyurethane block on the conveyor belt assembly; A baffle mounting plate, the front end of which is fixed with the baffle fixing plate, and is pushed by the push rod of the fourth push rod assembly to move forward and backward in the lateral direction; The base of the fourth push rod assembly is slidably connected to the second mounting plate of the baffle in a transverse direction; The baffle mounting plate is slidably connected to the baffle second mounting plate in a transverse direction.

[0012] Preferably, a connecting plate is fixed below the second mounting plate of the baffle, a third mounting block is installed on the front side of the connecting plate, a fourth mounting block forms a certain elastic connection with the third mounting block, and a limit block is arranged on the fourth mounting block.

[0013] Preferably, a supporting wheel assembly and a pressure wheel assembly are arranged in the spacing formed by the first transmission belt assembly and the second transmission belt assembly, and a gap for a single floor to pass through is formed between the supporting wheel assembly and the pressure wheel assembly. The rotatable roller of the supporting wheel assembly is used to support the bottom surface of the floor, and the rotatable pressure wheel of the pressure wheel assembly is pressed on the surface of the floor.

[0014] The beneficial effects of the present invention are as follows: the slotting machine is provided with a first silo assembly and a second silo assembly, and the positions of the first silo assembly and the second silo assembly in the transverse direction are adjusted so that the upper side and the lower side in the width direction are in different or the same transverse positions in the transverse direction. When the push rod of the third push rod assembly pushes the top plate slider plate to move in the vertical direction, the floor stored between the first silo assembly and the second silo assembly is lifted up, and when the push rod of the third push rod assembly pushes the top plate slider plate to move downward in the vertical direction, the two ends of the floor are placed on the first conveyor belt assembly and the second conveyor belt assembly respectively. The herringbone floor slotting machine of the present invention can be applied to various forms of floors, especially herringbone floors. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the positional relationship among the first conveyor belt assembly, the second conveyor belt assembly, the first silo assembly, the second silo assembly, the silo top plate assembly, and the silo baffle assembly of the present invention; Figure 2 It is a schematic diagram of the installation of the first silo assembly and the first cabin body of the present invention; Figure 3 It is a structural schematic diagram of the silo top plate assembly of the present invention; Figure 4 It is a structural schematic diagram of the silo baffle assembly of the present invention; Figure 5 It is a schematic diagram of the transmission of floor 1 on the slotting machine; Figure 6 It is a schematic diagram of the transmission of floor 2 on the slotting machine; Figure 7 It is a schematic diagram of the transmission of floor three on the slotting machine; Figure 8 It is a schematic diagram of laying the floor 2 and floor 3 together to form a herringbone floor; Among them, 100, the first conveyor belt assembly; 200, the second conveyor belt assembly; 301, the silo guide plate; 302, the silo slider plate; 303, the silo baffle; 304, the first bracket seat; 305, the first push rod assembly; 306, the second push rod assembly; 307, the floor connecting plate; 401, the second slider; 402, the side bracket seat; 403, the cross bar; 404, the second guide rail; 501, the top plate guide plate; 502, the top plate slider plate; 503, the third push rod assembly; 504, the supporting plate; 601, the polyurethane block; 602, the push block; 701, the baffle fixing plate; 702, the baffle mounting plate; 703, the fourth push rod assembly; 704, the baffle second mounting plate; 705, the connecting plate; 706, the third mounting block; 707, the fourth mounting block; 708, the limit block; 8, the floor. Implementation

[0016] The present invention will now be described in further detail in conjunction with the accompanying drawings and preferred embodiments. These drawings are simplified schematic diagrams, which only illustrate the basic structure of the present invention in a schematic manner, and therefore only show the components related to the present invention.

[0017] like Figure 1-Figure 4 As shown, a herringbone floor grooving machine includes a transmission component for transmitting floors, the transmission component includes a first conveyor belt component 100 and a second conveyor belt component 200 that can form a certain spacing in the longitudinal direction, and the transverse direction is the forward transportation direction of the floor; a first silo component is arranged on the longitudinal rear side of the first conveyor belt component 100, and a second silo component is arranged on the longitudinal front side of the second conveyor belt component 200; the grooving machine includes a first base and a second base; the first cabin moves forward and backward in the longitudinal direction relative to the first base, and the second cabin moves forward and backward in the transverse direction relative to the second base; the first silo component forms a transverse sliding connection with the first cabin, and the second silo component forms a transverse sliding connection with the second cabin, and the first cabin adjusts the longitudinal spacing between the first silo component and the second silo component when the first cabin moves forward and backward in the longitudinal direction; the second cabin adjusts the first silo component and the second silo component to be in different or the same transverse positions when the second cabin moves forward and backward in the transverse direction. The slotting machine is provided with a first bin assembly and a second bin assembly at the feeding part, and the first bin assembly and the second bin assembly are adjusted in the transverse direction so as to store the floor boards whose upper side and lower side in the width direction are in different or same transverse positions in the transverse direction. The herringbone floor slotting machine of the present invention can be applied to various types of floors.

[0018] Specifically, an optional embodiment is that the floor 8 includes a side in the length direction and a side in the width direction, and the side in the width direction forms a certain acute angle or obtuse angle with the side in the length direction, or the side in the width direction forms a right angle with the side in the length direction. For example, a floor 1, the side in the width direction of the floor 1 is at a right angle to the side in the length direction, that is, an ordinary conventional floor, and the transmission diagram of the floor 1 on the slotting machine is shown in Figure 5. For example, a floor 2, when the side in the width direction of the floor 2 is placed horizontally, the side in the length direction of the floor 2 is inclined to the left, that is, the upper side in the width direction of the floor 2 forms an obtuse angle with the front side in the length direction of the floor 2, and this floor 2 can be used as one of the floors in the form of a herringbone floor, and the transmission diagram of the floor 2 on the slotting machine is shown in Figure 6. It can be seen that the upper side and the lower side in the width direction of this floor 2 are in different transverse positions in the transverse direction. For example, a floor 3, when the side of the floor 3 in the width direction is placed horizontally, the side of the floor 3 in the length direction is tilted to the right, that is, the upper side of the floor 3 in the width direction forms an acute angle with the front side of the floor 3 in the length direction. This floor 3 can be used as one of the herringbone flooring forms. The transmission diagram of the floor 3 on the slotting machine is shown in Figure 7. It can be seen that the upper side and the lower side of the floor 3 in the width direction are in different horizontal positions in the horizontal direction. When laying, the floor 2 and the floor 3 can be assembled as follows Figure 8 The herringbone flooring shown.

[0019] Specifically, an optional implementation is that the first cabin or the second cabin includes a cabin seat; the cabin seat includes a lower base, an upper top plate, and a plurality of connecting columns connected between the upper top plate and the lower base, wherein a tool assembly for grooving the side of the floor 8 is provided on one of the connecting columns; the lower base of the first cabin moves forward and backward in the longitudinal direction relative to the first base, and the lower base of the second cabin moves forward and backward in the transverse direction relative to the second base. The lower base of the first cabin moves forward and backward in the longitudinal direction on the first base to adjust the distance between the first cabin and the second cabin in the longitudinal direction, and the lower base of the second cabin moves forward and backward in the transverse direction on the second base to adjust the tool assembly corresponding to the first cabin and the tool assembly installed in the second cabin to be located at different or the same transverse positions in the transverse direction, so as to adapt to various forms of floors 8.

[0020] Specifically, an optional implementation is that the first silo assembly and the second silo assembly are used to support the two ends of the floor respectively, and the first silo assembly and the second silo assembly move in the lateral direction so that the two ends of the supported floor are located at different or the same lateral positions; The first silo assembly or the second silo assembly comprises: A silo guide rail plate 301, on which the first guide rail is fixed; The silo slider plate 302 is pushed by the first screw assembly to move forward and backward in the longitudinal direction, and a first slider matched with the first guide rail is installed at the bottom of the silo slider plate 302; A silo baffle 303, the front end of which is provided with an opening for the end of the floor 8 to extend into, and the silo baffle 303 is fixed to the front side of the silo slider plate 302; The first bracket seat 304 is used to support the seat body of the first push rod assembly 305, The first push rod assembly 305 has a push rod portion connected to the seat body of the second push rod assembly 306. The push rod portion of the first push rod assembly 305 pushes the seat body of the second push rod assembly 306 to move up and down. The push rod portion of the second push rod assembly 306 is connected to a floor connecting plate 307 for supporting the end of the floor 8 , and the push rod portion of the second push rod pushes the floor connecting plate 307 to move forward and backward in the longitudinal direction.

[0021] Specifically, an optional implementation is that a second slider 401 is fixed to the bottom of the silo guide plate 301 of the first silo assembly or the second silo assembly, and a second guide rail 404 is fixed to the transversely arranged cross bar 403 of the side support seat 402, and the second slider 401 cooperates with the second guide rail 404 to move in the transverse direction so that the first silo assembly or the second silo assembly moves in the transverse direction.

[0022] A second slider 401 is fixed to the bottom of the silo guide plate 301 of the first silo assembly or the second silo assembly, and a second guide rail 404 is fixed to the transversely arranged cross bar 403 of the side bracket seat 402. The second slider 401 cooperates with the second guide rail 404 to move in the transverse direction so that the first silo assembly or the second silo assembly moves in the transverse direction; the side bracket seat 402 that forms a transverse sliding connection with the first silo assembly is fixed to the first cabin body, and the side bracket seat 402 that forms a transverse sliding connection with the second silo assembly is fixed to the second cabin body.

[0023] The specific actions of the first silo assembly or the second silo assembly are as follows: the silo guide plate 301 moves in the lateral direction along the cross bar 403 to adjust the lateral position of the silo guide plate 301, the first screw assembly pushes the silo slider plate 302 to move forward and backward in the longitudinal direction, the push rod part of the first push rod assembly 305 pushes the seat body of the second push rod assembly 306 to move up and down, and the push rod part of the second push rod pushes the floor connecting plate 307 to move forward and backward in the longitudinal direction, thereby making the floor connecting plate 307 in the corresponding lateral position and longitudinal position, and the floor connecting plates 307 of the first silo assembly and the second silo assembly are respectively used to support the two ends of the floor 8 for temporary storage of the floor 8.

[0024] Specifically, an optional implementation is as follows: Figure 3As shown, it also includes a silo top plate assembly, which is located between the first conveyor belt assembly 100 and the second conveyor belt assembly 200, and the silo top plate assembly includes: The top rail plate 501 is fixedly arranged vertically, and the second rail 404 is fixed on the front side thereof; A top plate slider plate 502, a slider matched with the second guide rail 404 is arranged at its rear side; a supporting plate 504 for supporting the floor 8 is arranged at the top of the top plate slider plate 502; The third push rod assembly 503 has a base fixed to the top plate guide plate 501, and when the push rod is working, it pushes the top plate slider plate 502 to move up and down in the vertical direction; when the push rod pushes the top plate slider plate 502 to move in the vertical direction, it is used to lift up the floor 8 stored between the first silo assembly and the second silo assembly, and when the push rod pushes the top plate slider plate 502 to move downward in the vertical direction, the two ends of the floor 8 are respectively placed on the first conveyor belt assembly 100 and the second conveyor belt assembly 200.

[0025] Specifically, an optional embodiment is that the first conveyor belt assembly 100 or the second conveyor belt assembly 200 has a conveyor belt assembly, and the conveyor belt assembly includes a chain plate, a polyurethane block 601, and a push block 602. The push block 602 has a protrusion that matches the side of the floor 8 to be transmitted. When several floors 8 are located on the polyurethane block 601 on the conveyor belt assembly, the protrusion of the push block 602 pushes the bottom floor 8 so that the bottom floor 8 is transmitted forward together with the polyurethane block 601 of the conveyor belt assembly.

[0026] Specifically, an optional implementation is as follows: Figure 4 As shown, the slotting machine further includes a silo baffle 303 assembly, and the silo baffle 303 assembly includes: The baffle fixing plate 701 is placed above the conveyor belt assembly and forms a gap for a single floor 8 to pass through with the polyurethane block 601 on the conveyor belt assembly; The baffle mounting plate 702 has a front end fixed with the baffle fixing plate 701 and is pushed by a push rod of a fourth push rod assembly 703 to move forward and backward in a lateral direction; The base of the fourth push rod assembly 703 is slidably connected to the baffle second mounting plate 704 in the transverse direction; The baffle mounting plate 702 is slidably connected to the baffle second mounting plate 704 in the transverse direction.

[0027] Specifically, an optional implementation is that a connecting plate 705 is fixed under the second mounting plate 704 of the baffle, a third mounting block 706 is installed on the front side of the connecting plate 705, a fourth mounting block 707 forms a certain elastic connection with the third mounting block 706, and a limit block 708 is set on the fourth mounting block 707.

[0028] Specific actions of the silo baffle 303 assembly: the push rod of the fourth push rod assembly 703 pushes the baffle mounting plate 702 to move forward and backward in the lateral direction, so that the baffle fixing plate 701 is in the corresponding blocking position of the floor 8, and the baffle fixing plate 701 and the polyurethane block 601 on the conveyor belt assembly form a gap for a single floor 8 to pass through, and the remaining floors 8 are fixed by the baffle fixing plate 701, so that the floors 8 can be transmitted in blocks, reducing the stacking of the floors 8, and the limit block 708 is set on the fourth mounting block 707 to form a certain limit on the side of the floor 8.

[0029] Specifically, an optional implementation is that a support roller assembly and a pressure roller assembly are arranged within the spacing formed by the first transmission belt assembly 100 and the second transmission belt assembly 200, and a gap for a single floor to pass through is formed between the support roller assembly and the pressure roller assembly, and the rotatable roller of the support roller assembly is used to support the bottom surface of the floor, and the rotatable pressure wheel of the pressure roller assembly is pressed on the surface of the floor.

[0030] The above description only describes the specific implementation mode of the present invention. Various examples do not limit the essential content of the present invention. After reading the description, ordinary technicians in the relevant technical field can modify or deform the specific implementation modes described above without departing from the essence and scope of the invention.

Claims

1. A herringbone floor grooving machine, comprising a transmission assembly for transmitting flooring, characterized in that: The transmission component comprises a first conveyor belt component (100) and a second conveyor belt component (200) which can form a certain spacing in the longitudinal direction, and the transverse direction is the transportation direction of the floor; a first silo component is arranged on the longitudinal rear side of the first conveyor belt component (100), and a second silo component is arranged on the longitudinal front side of the second conveyor belt component (200); the slotting machine comprises a first base and a second base; the first cabin body moves forward and backward in the longitudinal direction relative to the first base, and the second cabin body moves forward and backward in the transverse direction relative to the second base; the first silo component forms a transverse sliding connection with the first cabin body, and the second silo component forms a transverse sliding connection with the second cabin body, and the first cabin body adjusts the longitudinal spacing between the first silo component and the second silo component when moving forward and backward in the longitudinal direction; the second cabin body adjusts the first silo component and the second silo component to different or the same transverse positions when moving forward and backward in the transverse direction.

2. The herringbone floor grooving machine according to claim 1, characterized in that: The floor (8) comprises a side edge in the length direction and a side edge in the width direction, wherein the side edge in the width direction forms a certain acute angle or obtuse angle with the side edge in the length direction, or the side edge in the width direction forms a right angle with the side edge in the length direction.

3. The herringbone floor grooving machine according to claim 1, characterized in that: The first cabin or the second cabin includes a cabin seat; Cabin body includes Lower base, On the top plate, Multiple connecting columns connected between the upper top plate and the lower base, A tool assembly for grooving the side edge of the floor is disposed on one of the connecting columns; The lower base of the first cabin body moves forward and backward in the longitudinal direction relative to the first base, and the lower base of the second cabin body moves forward and backward in the transverse direction relative to the second base.

4. The herringbone floor grooving machine according to claim 1, characterized in that: The first silo assembly and the second silo assembly are used to support the two ends of the floor respectively, and the first silo assembly and the second silo assembly move in the lateral direction so that the two ends of the supported floor are located at different or the same lateral positions; The first silo assembly or the second silo assembly comprises: A silo guide rail plate (301) on which the first guide rail is fixed; A silo slider plate (302) is pushed by a first screw rod assembly to move forward and backward in a longitudinal direction, and a first slider that cooperates with a first guide rail is installed at the bottom of the silo slider plate (302); A silo baffle (303) having an opening at its front end for the end of the floor to extend into, and the silo baffle (303) is fixed to the front side of the silo slider plate (302); The first bracket seat (304) is used to support the seat body of the first push rod assembly (305). The first push rod assembly (305) has a push rod portion connected to a seat body of the second push rod assembly (306). The push rod portion of the first push rod assembly (305) pushes the seat body of the second push rod assembly (306) to move up and down. The push rod portion of the second push rod assembly (306) is connected to a floor connecting plate (307) for supporting the end of the floor, and the push rod portion of the second push rod assembly (306) pushes the floor connecting plate (307) to move forward and backward in the longitudinal direction.

5. The herringbone floor grooving machine according to claim 1, characterized in that: A second slider (401) is fixed at the bottom of the silo guide rail plate (301) of the first silo assembly or the second silo assembly, a second guide rail (404) is fixed on a transversely arranged crossbar (403) of the side support seat (402), and the second slider (401) cooperates with the second guide rail (404) to move in a transverse direction so that the first silo assembly or the second silo assembly moves in the transverse direction; The side support seat (402) that forms a transverse sliding connection with the first silo assembly is fixed to the first cabin body, and the side support seat (402) that forms a transverse sliding connection with the second silo assembly is fixed to the second cabin body.

6. The herringbone floor grooving machine according to claim 1, characterized in that: It also includes a silo top plate assembly, the silo top plate assembly is located between the first conveyor belt assembly (100) and the second conveyor belt assembly (200), and the silo top plate assembly includes: A top guide rail plate (501) is fixedly arranged vertically, and a second guide rail (404) is fixed on the front side thereof; A top plate slider plate (502) having a slider matched with the second guide rail (404) disposed on its rear side; a supporting plate (504) for supporting the floor is disposed on the top of the top plate slider plate (502); The third push rod assembly (503) has a base fixed to the top plate guide plate (501), and when the push rod is in operation, it pushes the top plate slider plate (502) to move up and down in the vertical direction; when the push rod pushes the top plate slider plate (502) to move in the vertical direction, it is used to lift up the floor stored between the first silo assembly and the second silo assembly; when the push rod pushes the top plate slider plate (502) to move downward in the vertical direction, the two ends of the floor are placed on the first conveyor belt assembly (100) and the second conveyor belt assembly (200) respectively.

7. The herringbone floor grooving machine according to claim 1, characterized in that: The first conveyor belt assembly (100) or the second conveyor belt assembly (200) has a conveyor belt assembly, the conveyor belt assembly comprising a chain plate, a polyurethane block (601), and a push block (602), the push block (602) having a protrusion matching the side of the floor to be transported, and when a plurality of floor boards are on the conveyor belt assembly, they are located on the polyurethane block (601), and the protrusion of the push block (602) pushes the floor board at the bottom so that the floor board at the bottom is transported forward together with the polyurethane block (601) of the conveyor belt assembly.

8. The herringbone floor grooving machine according to claim 1, characterized in that: It also includes a silo baffle (303) component, the silo baffle (303) component includes: The baffle fixing plate (701) is placed above the conveyor belt assembly and forms a gap for a single floor to pass through with the polyurethane block (601) on the conveyor belt assembly; A baffle mounting plate (702) whose front end is fixed to the baffle fixing plate (701) and is pushed by a push rod of a fourth push rod assembly (703) to move forward and backward in a transverse direction; The base of the fourth push rod assembly (703) is slidably connected to the baffle second mounting plate (704) in the transverse direction; The baffle mounting plate (702) is slidably connected to the baffle second mounting plate (704) in a transverse direction.

9. The herringbone floor grooving machine according to claim 8, characterized in that: A connecting plate (705) is fixed below the second mounting plate (704) of the baffle, a third mounting block (706) is mounted on the front side of the connecting plate (705), a fourth mounting block (707) forms a certain elastic connection with the third mounting block (706), and a limit block (708) is arranged on the fourth mounting block (707).

10. The herringbone floor grooving machine according to claim 1, characterized in that: A supporting wheel assembly and a pressure wheel assembly are arranged within the spacing formed by the first transmission belt assembly (100) and the second transmission belt assembly (200), and a gap is formed between the supporting wheel assembly and the pressure wheel assembly for a single floor to pass through. The rotatable roller of the supporting wheel assembly is used to support the bottom surface of the floor, and the rotatable pressure wheel of the pressure wheel assembly is pressed against the surface of the floor.

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