A cubic ice cutting machine based on a turnover ice loading tool and a cutter assembly cooperation

Abstract

The application relates to the technical field of cutting equipment, and aims at the problem of a relatively complicated structure of a traditional cutting machine, and provides a cubic ice cutting machine based on cooperation of a turnover ice loading tool and a cutter group, which comprises a rack, the rack is provided with a cutting mechanism and an ice loading mechanism; the cutting mechanism comprises a cutting support, the cutting support is provided with a first sawing assembly and a second sawing assembly, the ice loading mechanism comprises an ice loading support, the ice loading support is rotationally connected with an ice loading tool, the ice loading tool is arranged towards the cutting support, and a gap is reserved between the ice loading tool and the cutting support; the ice loading support is provided with a rotary driving piece for driving the ice loading tool to rotate; the rack is divided into a cutting path; the cutting mechanism and the ice loading mechanism are arranged in relative movement along the cutting path. The application has the effects of simplifying the structure of the cubic ice cutting equipment and further improving the convenience of cubic ice cutting.

Description

Technical Field

[0001] This application relates to the technical field of cutting equipment, and in particular to a cubic ice cutting machine based on a flip-type ice loading fixture and a blade assembly. Background Technology

[0002] Cubic ice cubes are mainly used in the production of ice cups and the preparation of cold drinks; during the production process, cubic ice cubes are made by cutting ice blocks using a cutting device.

[0003] Currently common ice cutting equipment, such as the fully automated cubic ice cutting machine disclosed in CN114061190B, integrates multiple sawing components on the frame (wherein, the first sawing component is used to cut longitudinal strip grooves at the ends of the ice blocks, the second sawing component is used to cut transverse strip grooves at the ends of the ice blocks, and the third sawing component is used to cut off the ends of the ice blocks with longitudinal and transverse strip grooves to form several cubic ice blocks); and sets up an ice-loading fixture that can move relative to the frame. When using this cutting machine to cut cubic ice, the ice-loading fixture containing ice blocks is moved to each sawing component, and each sawing component moves relative to the ice blocks in the ice-loading fixture to complete the production of cubic ice.

[0004] Regarding the aforementioned technologies, although the cutting machine can complete the cutting of cubic ice, it requires the cooperation of multiple sawing components. In actual production, the ice blocks need to be moved to different sawing components, making the overall structure and movement process relatively complicated. Furthermore, the maintenance cost of each sawing component is also relatively high. Therefore, there is room for improvement. Utility Model Content

[0005] To simplify the structure of cubic ice cutting equipment and improve the convenience of cubic ice cutting, this application provides a cubic ice cutting machine based on the combination of a flip-type ice loading fixture and a blade assembly.

[0006] This application provides a cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly, which adopts the following technical solution: A cubic ice cutting machine based on a flip-type ice-filling fixture and a blade assembly includes a frame, wherein the frame is provided with a cutting mechanism and an ice-filling mechanism. The cutting mechanism includes a cutting support, on which a first sawing component and a second sawing component are provided. The first sawing component is used to cut a plurality of strip grooves at the end of the ice block; the second sawing component is used to cut off the end of the ice block. The ice-filling mechanism includes an ice-filling support, on which an ice-filling fixture is rotatably connected. The ice-filling fixture is positioned toward the cutting support, and a gap is left between the ice-filling fixture and the cutting support. The ice-filling support is provided with a rotary drive for driving the ice-filling fixture to rotate. The frame is divided into cutting paths; the cutting mechanism and the ice-filling mechanism are arranged to move relative to each other along the cutting paths; the first sawing assembly, the second sawing assembly, and the ice-filling mechanism are all located on the cutting paths.

[0007] By adopting the above technical solution, when cutting cubic ice, the ice block is installed onto the ice-loading fixture and its end abuts against the cutting support. Then, the cutting mechanism and the first sawing component move relative to each other along the cutting path. After the first sawing component cuts a strip groove at the end of the ice block, the ice-loading fixture is rotated 90° by the rotary drive. The cutting mechanism and the ice-loading mechanism continue to move relative to each other along the cutting path, so that the first sawing component cuts a strip groove at the end of the ice block a second time. The strip grooves cut in the two stages form several cubic ice blocks at the end of the ice block. Finally, the ice-loading support and the second sawing component move relative to each other along the cutting path, so that the second sawing component cuts several cubic ice blocks sequentially from the end of the ice block. Compared with traditional cutting machines that use multiple sets of sawing components, the cutting of cubic ice can be completed by only using the rotating ice-cutting fixture in conjunction with the first and second sawing components. There is no need to set up multiple sets of sawing components, which simplifies the overall structure of the cutting machine equipment.

[0008] Preferably, the frame is provided with a first sliding drive component corresponding to the ice-filling support, the first sliding drive component being used to drive the ice-filling support to move along the cutting path.

[0009] By adopting the above technical solution, the ice-loading support is driven to move along the cutting path by the first sliding drive component, so that the ice block on the subsequent ice-loading fixture can move relative to the first sawing component and the second sawing component on the cutting support, thereby realizing the cutting of strip grooves and the cutting of cubic ice by the first sawing component and the second sawing component respectively.

[0010] Preferably, the frame is provided with a second sliding drive member corresponding to the cutting support, the second sliding drive member being used to drive the cutting support to move along the cutting path.

[0011] By adopting the above technical solution, the second sliding drive component drives the cutting support to move the first sawing component and the second sawing component along the cutting path, so that the first sawing component and the second sawing component can move relative to the ice block on the ice loading fixture, thereby realizing the cutting of strip grooves and the cutting of cubic ice on the ice block by the first sawing component and the second sawing component.

[0012] Preferably, the first sawing assembly includes a first sawing roller and a first driving member. The first sawing roller is located on the side of the cutting support away from the cutting mechanism. A plurality of first saw blades are coaxially connected to the outer periphery of the first sawing roller. The first saw blades are all inserted through the cutting support. The first driving member is drivenly connected to the first sawing roller and is used to drive the first sawing roller to rotate. The second sawing assembly includes a second saw blade and a second driving member. The second saw blade is rotatably supported on the cutting support, and there is a gap between the second saw blade and the cutting support. The second driving member is drivenly connected to the second saw blade and is used to drive the second saw blade to rotate.

[0013] By adopting the above technical solution, and by setting several first saw blades on the outer periphery of the first sawing roller, when the end of the ice block comes into contact with the several first saw blades, several strip grooves can be cut at the end of the ice block using the several first saw blades; by leaving a gap between the second saw blade and the cutting support, when the end of the ice block that has completed the strip groove cutting comes into contact with the second saw blade, the cubic ice can be cut off from the ice block using the second saw blade.

[0014] Preferably, the second sawing assembly further includes a collection trough located below the second saw blade for collecting cubic ice cut by the second saw blade, the collection trough being inclined downwards in a direction away from the second saw blade.

[0015] By adopting the above technical solution, the cubic ice cut by the second saw blade can fall directly into the collection trough below, realizing the automatic collection of cubic ice and avoiding the ice blocks from scattering; by setting the collection trough at an angle, the cubic ice can automatically slide down the trough by gravity, which facilitates the subsequent centralized transportation or processing of the cubic ice.

[0016] Preferably, the inner cavity of the ice-filling fixture is vertically supported by a partition, which divides the inner cavity of the ice-filling fixture into two independent ice-filling cavities. Each ice-filling cavity is provided with a pressing part, which is used to press the ice block.

[0017] By adopting the above technical solution, the ice-loading fixture can simultaneously install two ice blocks for cutting, effectively improving the cutting efficiency of cubic ice. By setting the clamping part, the clamping part is used to limit the ice blocks installed in the ice-loading fixture, which helps to prevent the ice blocks from loosening and displacing when they are cut by the first sawing component and the second sawing component.

[0018] Preferably, both the cutting support and the ice-filling mechanism are inclined, and the ice-filling fixture is perpendicular to the cutting support.

[0019] By adopting the above technical solution, the end of the ice block installed in the ice-filling fixture can be pressed against the cutting support by its own weight, which facilitates the rapid placement of the ice block.

[0020] Preferably, the clamping part includes a first cylinder and a second cylinder, the first cylinder and the second cylinder are respectively disposed on the side and top of the ice-filling fixture, and the piston rods of the first cylinder and the second cylinder are both inserted into the corresponding ice-filling cavity.

[0021] By adopting the above technical solution, after the ice block is installed into the corresponding ice-filling cavity of the ice-filling fixture, the piston rod is driven by the first cylinder and the second cylinder to abut against the side and top of the ice block to limit and fix the ice block, which helps to limit the displacement that may occur during the subsequent ice block cutting process.

[0022] In summary, this application includes at least one of the following beneficial technical effects: 1. By driving the ice-loading fixture to rotate through the rotary drive component, and cooperating with the first and second sawing components to cut the ends of the ice blocks, the cutting of cubic ice can be completed, effectively simplifying the overall structure of the cutting machine.

[0023] 2. By using the first sliding drive component to drive the cutting support to slide along the cutting path, the ice block on the ice loading fixture can be moved relative to the first sawing component and the second sawing component on the cutting mechanism, so that the first sawing component and the second sawing component can respectively cut the strip groove and cut the cubic ice at the end of the ice block.

[0024] 3. By setting a clamping part on the ice-loading fixture, after the ice block is loaded into the corresponding ice-loading cavity of the ice-loading fixture, the first cylinder and the second cylinder of the clamping part work together to clamp and limit the ice block, which helps to limit the displacement of the ice block during the subsequent cutting process. Attached Figure Description

[0025] Figure 1 This is a schematic diagram of the cubic ice cutting machine used in Embodiment 1.

[0026] Figure 2 This is a schematic diagram of the cutting mechanism used in Embodiment 1.

[0027] Figure 3 This is a schematic diagram of the ice-filling mechanism used in Embodiment 1.

[0028] Figure 4 This is a schematic diagram of the structure of the ice-loading device used in Embodiment 1.

[0029] Figure 5 This is a schematic diagram of the cubic ice cutting machine used in Embodiment 2.

[0030] Explanation of reference numerals in the attached figures: 1. Frame; 10. Movable opening; 11. First sliding drive component; 12. Second sliding drive component; 2. Cutting mechanism; 20. Cutting support; 21. First sawing assembly; 211. First sawing roller; 212. First saw blade; 213. First drive component; 22. Second sawing assembly; 221. Second saw blade; 2211. Rotating shaft; 2212. Second drive component; 222. Collection trough; 3. Ice loading mechanism; 31. Ice loading support; 32. Ice loading fixture; 320. Partition plate; 321. First cylinder; 322. Second cylinder; 323. Pressure plate; 33. Rotary drive component; 34. Auxiliary support plate. Detailed Implementation

[0031] The following is in conjunction with the appendix Figure 1-5 This application will be described in further detail.

[0032] This application discloses a cubic ice cutting machine based on the cooperation of a flip-type ice loading fixture and a blade assembly.

[0033] Example 1 A cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly, referring to... Figure 1 and Figure 2 The system includes a frame 1, a cutting mechanism 2, and an ice-loading mechanism 3. The frame 1 has a cutting path, and the cutting mechanism 2 and ice-loading mechanism 3 are relatively movable along the cutting path on the frame 1. The cutting mechanism 2 is equipped with a first sawing component 21 and a second sawing component 22. The first sawing component 21 is used to cut several strip-shaped grooves at the end of the ice block, and the second sawing component 22 is used to cut the ice block. The ice-loading mechanism 3 includes an ice-loading support 31, on which an ice-loading fixture 32 for loading ice blocks is provided. The ice-loading fixture 32 faces the cutting support 20 and has a gap with it. The ice-loading fixture 32 is rotatably connected to the ice-loading support 31, and the ice-loading support 31 is provided with a rotary drive component 33 for driving the ice-loading fixture 32 to rotate. The first sawing component 21, the second sawing component 22, and the ice-loading fixture 32 are all located on the cutting path.

[0034] When cutting cubic ice, the ice-loading fixture 32 containing ice blocks is first moved relative to the first sawing assembly 21. After the first sawing assembly 21 cuts several strip grooves at the end of the ice block, the ice-loading fixture 32 is driven by the rotary drive 33 to rotate the ice block by 90°. Then, the ice-loading fixture 32 is moved relative to the first sawing assembly 21 again, so that the first sawing assembly 21 cuts several strip grooves at the end of the ice block again, thereby forming several cubic ice blocks at the end of the ice block. Finally, the ice-loading fixture 32 is moved relative to the second sawing assembly 22, so that the second sawing assembly 22 cuts several cubic ice blocks from the end of the ice block.

[0035] Reference Figure 1 and Figure 2The cutting support 20 is fixed on the frame 1 and is inclined. The first sawing assembly 21 includes a first sawing roller 211 and a first driving member 213. The first sawing roller 211 is located on the side of the cutting support 20 away from the cutting mechanism 2, and is vertically rotatably connected to the cutting support 20 via a connecting seat. The first sawing roller 211 is axially vertically arranged. A plurality of first saw blades 212 are coaxially connected to the outer periphery of the first sawing roller 211. The first saw blades 212 are made of alloy steel. The cutting support 20 has a plurality of through holes corresponding to the plurality of first saw blades 212, and the first saw blades 212 are all inserted into the cutting support 20 through the corresponding through holes. The first driving member 213 is drivenly connected to the first sawing roller 211 to drive the first sawing roller 211 to rotate. In this embodiment, the first driving member 213 is a geared motor. When the ice block on the ice-loading fixture 32 moves relative to the first sawing assembly 21, several strip grooves can be formed at the end of the ice block by several first saw blades on the first sawing roller 211.

[0036] Reference Figure 1 and Figure 2 The second sawing assembly 22 includes a second saw blade 221, a second driving member 2212, and a collecting groove 222. The second saw blade 221 is rotatably supported on the cutting support 20 via a rotating shaft 2211, with a gap between the second saw blade 221 and the cutting support 20. The second driving member 2212 is drivenly connected to the second saw blade 221 to drive the second saw blade 221 to rotate. In this embodiment, the second driving member 2212 is a geared motor. The second saw blade 221 is made of alloy steel.

[0037] Reference Figure 1 and Figure 2 The collection trough 222 is located below the second saw blade 221 and is used to collect the cubic ice cut by the second saw blade 221. The projection of the collection trough 222 on the horizontal plane covers the projection of the second saw blade 221 on the horizontal plane, making it easier for subsequent cubic ice cut by the second saw blade 221 to fall into the collection trough 222. The collection trough 222 is inclined downwards away from the second saw blade 221, and the collection trough 222 extends through the cutting support 20 to the side opposite to the ice-filling support 31. This allows the cubic ice that subsequently falls into the collection trough 222 to automatically slide down to the collection point by gravity, facilitating subsequent collection and processing.

[0038] Reference Figure 1 and Figure 3The ice-filling support 31 is inclined and parallel to the cutting support 20. The ice-filling fixture 32 is perpendicular to the cutting support 20, facilitating the placement of ice blocks into the fixture 32 by their own weight against the cutting support 20. The ice-filling fixture 32 is rotatably connected to the ice-filling support 31 via bearings, allowing for smooth rotation. The rotary drive 33 includes a rotary motor mounted on the support. The output of the rotary motor is connected to the ice-filling fixture 32 via a synchronous belt structure, driving the fixture 32 to rotate. In other embodiments, the synchronous belt structure can be replaced with a gear structure.

[0039] Reference Figure 1 and Figure 3 The ice-filling support 31 is slidably connected to the frame 1 via a slider rail, and the sliding direction of the ice-filling support 31 is parallel to the cutting path. The frame 1 is provided with two first sliding drive components 11 corresponding to the ice-filling support 31. The two first sliding drive components 11 are located at the top and bottom of the ice-filling support 31 respectively, and both first sliding drive components 11 are drivenly connected to the ice-filling support 31 to drive the ice-filling support 31 to slide along the cutting path. Specifically, the first sliding drive component 11 adopts a chain-driven linear module, and the transmission chain of the chain-driven linear module is connected to the ice-filling support 31 through a connecting block. In other embodiments, the first sliding drive component 11 can also be driven by a cylinder.

[0040] Reference Figure 3 and Figure 4 The ice-filling fixture 32 has a vertically supported partition 320 inside, which divides the inner cavity of the ice-filling fixture 32 into two independent ice-filling chambers. Each ice-filling chamber is equipped with a clamping part for clamping the ice blocks. The clamping part includes a first cylinder 321 and a second cylinder 322, which are respectively located on the side and top of the ice-filling fixture 32. The piston rods of the first cylinder 321 and the second cylinder 322 pass through the corresponding ice-filling chamber. Both piston rods of the first cylinder 321 and the second cylinder 322 are connected to pressure plates 323. After the ice blocks are installed into the ice-filling chambers, the first cylinder 321 and the second cylinder 322 drive the corresponding pressure plates 323 to abut against the ice blocks, thereby clamping the ice blocks in the ice-filling chambers and ensuring the stability of the ice blocks during the subsequent cutting process.

[0041] Reference Figure 3 and Figure 4 An auxiliary support plate 34 is connected to one end of the ice-filling fixture 32 away from the cutting support 20. The auxiliary support plate 34 is set horizontally. When ice blocks are installed into the ice-filling fixture 32, the ice blocks can be supported by the auxiliary support plate 34, making it easier to move the ice blocks into the ice-filling fixture 32.

[0042] The implementation principle of Example 1 is as follows: When producing cubic ice using a cutting machine, the following steps are included: S1: Ice block installation: Place the ice block into the ice-filling cavity of the ice-filling fixture 32, and make the end of the ice block abut against the cutting support 20. The ice block is pressed and limited by the clamping part.

[0043] S2: Initial cutting of the strip groove: The ice block is moved relative to the first sawing assembly 21 by the ice support 31 driven by the first sliding drive member 11, so as to form a strip groove at the end of the ice block by the first sawing assembly 21.

[0044] S3: Ice support 31 reset: The ice support 31 is driven to disengage from the first sawing assembly 21 by the first sliding drive 11.

[0045] S4: Ice cube flipping: The ice loading fixture 32 is flipped 90 degrees by the rotary drive component 33.

[0046] S5: Secondary cutting of strip groove: The ice block moves relative to the first sawing assembly 21 by driving the ice support 31 through the first sliding drive component 11, so as to form a strip groove at the end of the ice block by the first sawing assembly 21; and several cubic ice blocks are formed at the end of the ice block by the strip grooves cut in two stages.

[0047] S6: Cutting cubic ice: The first sliding drive 11 drives the ice support 31 to move the ice block relative to the second sawing assembly 22, so that the cubic ice at the end of the ice block is cut by the second sawing assembly 22 and discharged through the collection groove 222.

[0048] This application enables the production of cubic ice by using an ice-loading fixture 32 that can rotate ice blocks in conjunction with a first sawing component 21 and a second sawing component 22, effectively simplifying the overall structure of the equipment.

[0049] Example 2 The difference between Example 2 and Example 1 is that: (Refer to...) Figure 1 and Figure 5 An ice-filling support 31 is fixed to the frame 1, and a cutting support 20 is slidably connected to the frame 1 via a slider rail structure, with the sliding direction of the cutting support 20 parallel to the cutting path. The frame 1 is equipped with two second sliding drive components 12 corresponding to the cutting support 20, located at the top and bottom of the cutting support 20 respectively, and both are driven by the cutting support 20 to drive it to slide along the cutting path. Specifically, the second sliding drive component 12 uses a chain-driven linear module, with the drive chain of the linear module connected to the cutting support 20 via a connecting block. Both ends of the frame 1 have movable openings 10 for the movement of the ends of the cutting support 20.

[0050] When cutting cubic ice, the second sliding drive 12 drives the cutting support 20 to move relative to the end of the ice block, so that the first sawing assembly 21 and the second sawing assembly 22 can respectively complete the cutting of the strip groove and the cubic ice.

[0051] The principle of Example 2 is as follows: When producing cubic ice using a cutting machine, the following steps are included: S1: Ice block installation: Place the ice block into the ice-filling cavity of the ice-filling fixture 32, and make the end of the ice block abut against the cutting support 20. The ice block is pressed and limited by the clamping part.

[0052] S2: Initial cutting of the strip groove: The second sliding drive 12 drives the cutting support 20 to move the first sawing assembly 21 relative to the end of the ice block, so as to cut the strip groove at the end of the ice block by the first sawing assembly 21.

[0053] S3: First sawing component 21 reset: The second sliding drive component 12 drives the cutting support 20 to move the first sawing component 21 away from the ice block.

[0054] S4: Ice cube flipping: The ice loading fixture 32 is driven by the rotary drive component 33 to flip the ice cube by 90 degrees.

[0055] S5: Secondary cutting of strip groove: The second sliding drive 12 drives the cutting support 20 to move the first sawing assembly 21 relative to the end of the ice block, so as to cut strip groove at the end of the ice block by the first sawing assembly 21; and use the strip groove cut by the two cuts to form several cubic ice blocks at the end of the ice block. S6: Cutting cubic ice: The second sliding drive 12 drives the cutting support 20 to move the second sawing assembly 22 relative to the end of the ice block, so as to cut the cubic ice located at the end of the ice block by the second sawing assembly 22 and discharge it through the collection groove 222.

[0056] Example 3 The difference between Embodiment 3 and Embodiment 2 is that: the ice-filling support 31 is fixed on the frame 1, and there are two cutting supports 20, both of which are slidably connected to the frame 1 via a slider rail structure. The sliding direction of the cutting supports 20 is parallel to the cutting path. The first sawing component 21 and the second sawing component 22 are located on the two cutting supports 20 respectively.

[0057] The frame 1 is equipped with a third sliding drive and a fourth sliding drive at two corresponding cutting supports 20. Two third and fourth sliding drives are provided, located at the top and bottom of the cutting support 20 where the first sawing assembly 21 is located, respectively. Both third and fourth sliding drives are driven and connected to their respective cutting supports 20, driving the cutting supports 20 to slide along the cutting path. Two fourth sliding drives are located at the top and bottom of the cutting support 20 where the second sawing assembly 22 is located, respectively. Both fourth sliding drives are driven and connected to their respective cutting supports 20, driving the cutting supports 20 to slide along the cutting path. Specifically, both the third and fourth sliding drives are chain-driven linear modules, with the transmission chain of the chain-driven linear module connected to the corresponding cutting support 20 via a connecting block.

[0058] The principle of Example 3 is as follows: When producing cubic ice using a cutting machine, the following steps are included: S1: Ice block installation: Place the ice block into the ice-filling cavity of the ice-filling fixture 32, and make the end of the ice block abut against the cutting support 20. The ice block is pressed and limited by the clamping part.

[0059] S2: Initial cutting of the strip groove: The third sliding drive component drives the cutting support 20 to move the first sawing component 21 relative to the end of the ice block, so as to cut the strip groove at the end of the ice block by the first sawing component 21.

[0060] S3: First sawing component 21 reset: The third sliding drive component drives the cutting support 20 to move the first sawing component 21 away from the ice block.

[0061] S4: Ice cube flipping: The ice loading fixture 32 is driven by the rotary drive component 33 to flip the ice cube by 90 degrees.

[0062] S5: Secondary cutting of strip groove: The third sliding drive component drives the cutting support 20 to move the first sawing component 21 relative to the end of the ice block, so as to cut strip groove at the end of the ice block by the first sawing component 21; and use the strip groove cut in two stages to form several cubic ice blocks at the end of the ice block.

[0063] S6: First sawing component 21 reset: The third sliding drive component drives the cutting support 20 to move the first sawing component 21 away from the ice block.

[0064] S7: Cutting cubic ice: The fourth sliding drive unit drives the cutting support 20 to move the second sawing assembly 22 relative to the end of the ice block, so as to cut the cubic ice located at the end of the ice block by the second sawing assembly 22 and discharge it through the collection groove 222.

[0065] The above are all preferred embodiments of this application and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly, characterized in that: Includes a frame (1), which is provided with a cutting mechanism (2) and an ice-filling mechanism (3); The cutting mechanism (2) includes a cutting support (20), on which a first sawing component (21) and a second sawing component (22) are provided. The first sawing component (21) is used to cut a plurality of strip grooves at the end of the ice block; the second sawing component (22) is used to cut off the end of the ice block. The ice-filling mechanism (3) includes an ice-filling support (31), on which an ice-filling fixture (32) is rotatably connected. The ice-filling fixture (32) is positioned toward the cutting support (20), and a gap is left between the ice-filling fixture (32) and the cutting support (20). The ice-filling support (31) is provided with a rotary drive (33) for driving the ice-filling fixture (32) to rotate. The frame (1) is divided into cutting paths; the cutting mechanism (2) and the ice-filling mechanism (3) are arranged to move relative to each other along the cutting paths; the first sawing assembly (21), the second sawing assembly (22) and the ice-filling mechanism (3) are all located on the cutting paths.

2. A cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly as described in claim 1, characterized in that: The frame (1) is provided with a first sliding drive (11) corresponding to the ice-filling support (31), and the first sliding drive (11) is used to drive the ice-filling support (31) to move along the cutting path.

3. A cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly as described in claim 1, characterized in that: The frame (1) is provided with a second sliding drive (12) corresponding to the cutting support (20), and the second sliding drive (12) is used to drive the cutting support (20) to move along the cutting path.

4. A cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly according to any one of claims 1 to 3, characterized in that: The first sawing assembly (21) includes a first sawing roller (211) and a first driving member. The first sawing roller (211) is located on the side of the cutting support (20) away from the cutting mechanism (2). A plurality of first saw blades (212) are coaxially connected to the outer periphery of the first sawing roller (211). The first saw blades (212) are all inserted through the cutting support (20). The first driving member (213) is drivenly connected to the first sawing roller (211) and is used to drive the first sawing roller (211) to rotate. The second sawing assembly (22) includes a second saw blade (221) and a second driving member. The second saw blade (221) is rotatably supported on the cutting support (20), and there is a gap between the second saw blade (221) and the cutting support (20). The second driving member (2212) is drivenly connected to the second saw blade (221) to drive the first sawing roller (211) to rotate.

5. A cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly as described in claim 4, characterized in that: The second sawing assembly (22) also includes a collection groove (222) located below the second saw blade (221) for collecting cubic ice cut by the second saw blade (221), and the collection groove (222) is inclined downward in a direction away from the second saw blade (221).

6. A cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly as described in claim 1, characterized in that: The ice-filling fixture (32) has a partition (320) vertically supported in its inner cavity. The partition (320) divides the inner cavity of the ice-filling fixture (32) into two independent ice-filling cavities. Each ice-filling cavity is provided with a pressing part, which is used to press the ice block.

7. A cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly as described in claim 1, characterized in that: The cutting support (20) and the ice loading mechanism (3) are both inclined, and the ice loading fixture (32) is perpendicular to the cutting support (20).

8. A cubic ice cutting machine based on a flip-type ice-loading fixture and a blade assembly as described in claim 6, characterized in that: The pressing part includes a first cylinder (321) and a second cylinder (322). The first cylinder (321) and the second cylinder (322) are respectively disposed on the side and top of the ice-filling fixture (32). The piston rods of the first cylinder (321) and the second cylinder (322) are both inserted into the corresponding ice-filling cavity.

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