A kind of oil immersion device for blade production

Abstract

The present application relates to the technical field of blade production, and particularly relates to a blade production oil immersion device, which comprises a soaking pool, a bottom plate, a lifting rod and a bearing plate and the like; the bottom of the soaking pool is provided with a supporting plate; a plurality of limiting parts are arranged on the supporting plate; one bottom plate is placed on each limiting part; two lifting rods are rotatably connected to each bottom plate; and a bearing plate for bearing a razor blade is movably connected to the two lifting rods. The present application drives the blade to be separated from the lower razor blade by lifting the lower edge of the notch upward, so as to ensure that the oil can fully soak into the gap between the layers of razor blades, significantly improve the oil immersion uniformity of the razor blade, and thus enhance the oil immersion effect. The limiting plate limits the support pipe, effectively blocks the upward force of the connecting frame from being transmitted to the bending section of the support pipe, and thus prevents the oil in the pipe wall from overflowing to the drain pipe area, which not only avoids the waste of oil resources, but also reduces the subsequent cleaning work intensity.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of blade production, and particularly relates to a blade production oil immersion device. BACKGROUND

[0002] The shaving blade needs to be immersed in oil during the production process, mainly to form a uniform oil film on the surface of the blade, so as to play the role of rust prevention, lubrication and friction reduction. In the prior art, the shaving blade is usually placed in a transfer frame in a stacked manner, and the limiting rod on the transfer frame penetrates the through slot on the blade to realize positioning, and then the whole transfer frame is immersed in the oil pool for treatment. However, this traditional method has obvious defects: because the stacked blades are in close contact, the oil liquid is difficult to fully penetrate to the middle layer, resulting in incomplete coverage of the oil film on the surface and edge area of part of the blades, which seriously affects the rust prevention and lubrication effect of the blade, and further reduces the quality of the final product.

[0003] Further, the stacked immersion method also causes bubbles adhered to the surface of the blade and bubbles between the blades to be difficult to smoothly discharge, forming trapped bubbles. These bubble areas block the contact between the oil liquid and the blade, causing insufficient local oil immersion, further weakening the effect of oil immersion treatment, and ultimately negatively affecting the performance and quality of the blade product. SUMMARY

[0004] In order to overcome the shortcomings of the traditional stacked oil immersion method of the shaving blade, which causes uneven coverage of the oil film due to insufficient oil liquid penetration and bubble retention, seriously affects the rust prevention and lubrication effect of the blade, and reduces the product quality, the present application provides a blade production oil immersion device.

[0005] The technical implementation of the present application is: a blade production oil immersion device, comprising a soaking pool; the bottom of the soaking pool is provided with a supporting plate; the razor blade is provided with a mounting groove; the two ends of the mounting groove are circular; the four corners of the razor blade are provided with notches; further comprising a bottom plate, a lifting rod, a bearing plate, a control assembly, a telescopic drive one, a connecting frame, a pipe frame, a push piece and a limiting rod; a plurality of limiting parts are arranged on the supporting plate; one bottom plate is placed on each limiting part; two lifting rods are rotatably connected to each bottom plate; two limiting grooves are formed in each lifting rod; a bearing plate for bearing the razor blade is movably connected to the two lifting rods; the linkage rod of the bearing plate is located in the limiting groove; the bottom plate is connected with a control assembly for translating and tilting the stacked razor blades; a plurality of limiting rods are rotatably connected to the control assembly; the limiting rods penetrate the bearing plate upward; the cross section of each limiting rod is flat; each adjacent two limiting rods form a group; the razor blades are placed in a stacked state on each group of limiting rods; a plurality of telescopic drive ones are arranged on the soaking pool; a connecting rod is arranged on the telescopic end of each telescopic drive one; the other ends of all connecting rods are movably connected to a connecting frame; a plurality of sliding grooves are formed in the connecting frame; the connecting frame is slidably connected with all connecting rods through the sliding grooves; three pipe frames are arranged on the connecting frame; each pipe frame is composed of two long pipes and two blocking rods; the blocking rods are respectively located on the left and right sides of the pipe frame; a push piece is arranged on the left and right sides of each limiting rod for pushing the razor blade; each push piece is fixedly connected with the long pipe of the corresponding pipe frame; the push pieces on the two long pipes of the same pipe frame are oppositely arranged.

[0006] Optionally, the control assembly comprises a telescopic drive two, a movable frame, a rotating block and a telescopic drive three; a telescopic drive two is fixedly connected to each bottom plate; a movable frame is fixedly connected to the telescopic end of each telescopic drive two; two racks are arranged on each movable frame; a plurality of rotating blocks are rotatably connected to each bottom plate; a plurality of teeth are arranged on each rotating block and engaged with the racks; each limiting rod is rotatably connected with the corresponding rotating block; a telescopic drive three is fixedly connected to each bottom plate; the telescopic end of each telescopic drive three is fixedly connected with the lower side of the corresponding bearing plate.

[0007] Optionally, the upper side of the bearing plate is arranged in a trapezoidal structure.

[0008] Optionally, it further comprises a sealing assembly, which comprises a flexible sealing cover and a sealing block; a flexible sealing cover is fixedly connected between the bottom plate and the bearing plate; a plurality of sealing blocks are rotatably connected to each bearing plate; the limiting rods penetrate the sealing blocks upward; the middle part of the sealing block is made of rubber to ensure the sealing property.

[0009] Optionally, the soaking tank further comprises a circulating assembly, the circulating assembly comprising an oil pump, a liquid suction pipe and a liquid discharge pipe; the oil pump is fixedly connected to the soaking tank; the oil pump is fixedly connected with the liquid suction pipe; the liquid suction pipe is in communication with the lower part of the soaking tank; the oil pump is fixedly connected with the liquid discharge pipe; a plurality of branch pipes are arranged on the liquid discharge pipe; the branch pipes are rubber hoses; each branch pipe is in communication with the upper part of the soaking tank.

[0010] Optionally, a plurality of spray heads are arranged on the long pipe of each pipe support; two spray heads on each pipe support are arranged in a front-rear opposite manner to form a group; each group of spray heads is located on the left side and the right side of the limiting rod, respectively; each branch pipe is in communication with the inside of the long pipe of the corresponding pipe support.

[0011] Optionally, each spray head is arranged to be inclined towards the limiting rod.

[0012] Optionally, the longitudinal section of each limiting part is arranged in an inverted eight-shaped manner.

[0013] Optionally, the soaking tank further comprises a connecting assembly, the connecting assembly comprising an electromagnet one and an electromagnet two; the electromagnet one is fixedly connected to the upper side of the supporting plate; the electromagnet two is fixedly connected to the lower side of the connecting frame; the electromagnet one is located directly below the electromagnet two.

[0014] Optionally, the soaking tank further comprises a limiting plate; the limiting plate is fixedly connected to the soaking tank for limiting the branch pipes; each branch pipe penetrates through the limiting plate; the limiting plate is located below the oil liquid surface.

[0015] Compared with the prior art, the present application has the following advantages: the limiting rod drives the stacked razor blades to translate and tilt, which is beneficial to increase the contact area of the razor blades and the oil liquid, enhance the soaking effect, and facilitate the air bubbles on the side edges of the razor blades to float out, so that the oil liquid contacts the razor blades, and the soaking effect and uniformity are further improved;

[0016] The pipe support drives the push piece to lift the lower edge of the notch upward, so that the razor blade is tilted to separate from the lower layer razor blade, the oil liquid can fully soak the gap between the razor blades, the soaking uniformity of the razor blades is significantly improved, and the oil soaking effect is enhanced;

[0017] The oil pump makes the oil liquid flow in the soaking tank to produce a continuous flushing effect, which not only significantly improves the penetration efficiency of the oil liquid on the surface of the razor blade, but also effectively avoids the soaking dead angle caused by the uneven concentration of the local oil liquid, and the flowing oil liquid helps to remove the air bubbles in the gap between the razor blades, so that the oil liquid contacts the razor blades, and the soaking effect and uniformity are improved;

[0018] The limiting plate limits the branch pipe, effectively blocks the transmission of the upward force of the connecting frame to the bending section of the branch pipe, and prevents the oil liquid on the pipe wall from overflowing to the liquid discharge pipe area, which not only avoids the waste of oil liquid resources, but also reduces the cleaning work intensity. BRIEF DESCRIPTION OF DRAWINGS

[0019] Figure 1 It is the three-dimensional structure schematic view of the automatic oil immersion device for the blade production of the application;

[0020] Figure 2 It is the internal structure schematic view of the soaking pool of the application;

[0021] Figure 3 It is the three-dimensional structure schematic view of the bottom plate and the limiting part combination of the application;

[0022] Figure 4 It is the three-dimensional structure schematic view of the telescopic driving part one, the connecting frame, the pipe frame and the push piece combination of the application;

[0023] Figure 5 It is the three-dimensional structure schematic view of the bottom plate, the lifting rod, the bearing plate, the limiting rod and the sealing assembly combination of the application;

[0024] Figure 6 It is the three-dimensional structure schematic view of the first kind of perspective of the regulating assembly of the application;

[0025] Figure 7 It is the three-dimensional structure schematic view of the second kind of perspective of the regulating assembly of the application;

[0026] Figure 8 It is the schematic view of the installation position of the spray head of the application;

[0027] Figure 9 It is the state diagram of the shaving blade inclined oil immersion of the application.

[0028] The marks of each part in the drawing are as follows: 1-soaking pool, 1001-supporting plate, 1002-limiting part, 2-telescopic driving part one, 2001-connecting rod, 3-connecting frame, 3001-slotted guide, 4-pipe frame, 4001-stop rod, 4002-spray head, 5-push piece, 6-limiting rod, 7-shaving blade, 7001-installation groove, 7002-notch, 101-bottom plate, 102-lifting rod, 10201-limiting groove, 103-bearing plate, 10301-linkage rod, 104-sealing cover, 105-sealing block, 106-telescopic driving part two, 107-moving frame, 10701-rack, 108-rotating block, 109-telescopic driving part three, 201-oil pump, 202-liquid suction pipe, 203-liquid discharge pipe, 20301-branch pipe, 301-electromagnet one, 302-electromagnet two, 401-limiting plate. DETAILED DESCRIPTION

[0029] The technical solutions in the embodiments of the present invention will be clearly and completely described below. Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0030] Example 1: As Figures 1-9 As shown, an oil-immersion device for blade production includes an immersion tank 1; a support plate 1001 is provided at the bottom of the immersion tank 1; a shaving blade 7 is provided with an installation groove 7001; the two ends of the installation groove 7001 are round, and the four corners of the shaving blade 7 are all provided with notches 7002.

[0031] It also includes a base plate 101, lifting rods 102, a support plate 103, an adjustment assembly, a telescopic drive component 2, a connecting frame 3, a pipe rack 4, a lever 5, and limiting rods 6; the support plate 1001 is provided with several limiting parts 1002; each limiting part 1002 has a base plate 101 placed on it; each base plate 101 is rotatably connected to two symmetrically arranged lifting rods 102; each lifting rod 102 has two symmetrically distributed limiting grooves 10201; the two lifting rods 102 are movably connected to a support plate 103, and the linkage rod 10301 of the support plate 103 is located in the limiting groove 10201; the base plate 101 is connected to an adjustment assembly to increase the contact area between the shaving blade 7 and the oil; several limiting rods 6 are rotatably connected to the adjustment assembly, and the limiting rods 6 extend upward through the support plate 103; each limiting rod 6 has a flat cross-section; each Two adjacent limiting rods 6 form a group, and razor blades 7 are stacked on each group of limiting rods 6. Several telescopic drive components 2 are arranged in a rectangular pattern on the soaking pool 1. Each telescopic drive component 2 is an electric push rod. Each telescopic drive component 2 has a connecting rod 2001 on its telescopic end. The other end of all connecting rods 2001 is connected to a connecting frame 3. Several sliding grooves 3001 are provided on the connecting frame 3. The connecting frame 3 forms a sliding fit with all connecting rods 2001 through the sliding grooves 3001. Three tube racks 4 are provided on the connecting frame 3. Each tube rack 4 consists of two long tubes and two stop rods 4001, which are located on the left and right sides of the tube rack 4, respectively. A lever 5 is provided on the left and right sides of each limiting rod 6. Each lever 5 is fixedly connected to the long tube of the corresponding tube rack 4. The levers 5 on the two long tubes of the same tube rack 4 are arranged opposite each other.

[0032] The regulating assembly comprises telescopic driving members two 106, movable racks 107, rotating blocks 108 and telescopic driving members three 109; each bottom plate 101 is fixedly connected with a telescopic driving member two 106, and the telescopic driving member two 106 is an electric push rod; the telescopic end of each telescopic driving member two 106 is fixedly connected with a movable rack 107; each movable rack 107 is provided with two symmetrical gear racks 10701; each bottom plate 101 is rotatably connected with a plurality of symmetrical rotating blocks 108; each rotating block 108 is provided with gear teeth meshing with the gear racks 10701; each limiting rod 6 is rotatably connected with a corresponding rotating block 108; each bottom plate 101 is fixedly connected with a telescopic driving member three 109, and the telescopic driving member three 109 is an electric push rod; the telescopic end of each telescopic driving member three 109 is fixedly connected with the lower side of a corresponding bearing plate 103.

[0033] Furthermore, the upper side of the bearing plate 103 is provided in a trapezoidal structure, which is beneficial to the backflow of oil on the upper side of the bearing plate 103 into the soaking pool 1, and reduces the residue of oil on the upper side of the bearing plate 103.

[0034] The sealing assembly further comprises a flexible sealing cover 104 and sealing blocks 105; a flexible sealing cover 104 is fixedly connected between the bottom plate 101 and the bearing plate 103; a plurality of symmetrical sealing blocks 105 are rotatably connected to each bearing plate 103; the limiting rod 6 penetrates upwardly through the sealing block 105, and the middle part of the sealing block 105 is made of rubber to ensure the sealing property.

[0035] The circulating assembly further comprises an oil pump 201, a liquid suction pipe 202 and a liquid discharge pipe 203; the oil pump 201 is fixedly connected to the soaking pool 1; the oil pump 201 is fixedly connected with the liquid suction pipe 202; the liquid suction pipe 202 is in communication with the lower part of the soaking pool 1; the oil pump 201 is fixedly connected with the liquid discharge pipe 203; a plurality of branch pipes 20301 are arranged on the liquid discharge pipe 203; the branch pipes 20301 are rubber hoses; each branch pipe 20301 is in communication with the inner part of the long pipe of a corresponding pipe rack 4.

[0036] A plurality of spray heads 4002 are arranged on the long pipe of each pipe rack 4; two spray heads 4002 on each pipe rack 4 are opposite to each other and form a group; each group of spray heads 4002 is located on the left side and the right side of the limiting rod 6 respectively; each branch pipe 20301 is in communication with the inner part of the long pipe of a corresponding pipe rack 4.

[0037] Furthermore, each spray head 4002 is arranged to be inclined towards the limiting rod 6, which is beneficial to the spraying of oil between the razor blades 7 and enhances the immersion effect of the oil.

[0038] Furthermore, in order to facilitate the clamping of the bottom plate 101 into the limiting portion 1002, the longitudinal section of each limiting portion 1002 is provided in an inverted eight-character shape.

[0039] The connecting assembly comprises electromagnet 1 301 and electromagnet 2 302; electromagnet 1 301 is fixed on the upper side of the supporting plate 1001; electromagnet 2 302 is fixed on the lower side of the connecting frame 3; electromagnet 1 301 is located directly below electromagnet 2 302.

[0040] In the oil immersion operation of the razor blade 7, in combination with Figure 5 It is understood that the staff will place the razor blade 7 in a stacked manner on the limiting rod 6 in advance, and ensure that the circular grooves at both ends of the installation groove 7001 are limited by the corresponding limiting rod 6, at this time the bottom of the stacked razor blade 7 is supported by the bearing plate 103, and the limiting rod 6 is used to limit the razor blade 7 to prevent it from shifting left and right during subsequent transportation; after the razor blade 7 is placed, the staff lifts the bottom plate 101 and the bearing plate 103 through the lifting rod 102, and then places them in the soaking pool 1, so that the razor blade 7 is immersed in the oil, in this process, the bottom plate 101 and the bearing plate 103 pass through the corresponding pipe frame 4 downward, until the front and rear ends of the bottom plate 101 contact with the limiting part 1002 on the supporting plate 1001, in this process, the limiting part 1002 is set in a reverse eight-shaped to guide the lower side of the bottom plate 101, which facilitates the staff to place the bottom plate 101 into the limiting part 1002.

[0041] When the bottom plate 101 contacts with the limiting part 1002, the oil pump 201 is controlled to suck the oil in the soaking pool 1 through the liquid suction pipe 202, and then discharge the oil back to the soaking pool 1 through the liquid discharge pipe 203 from each branch pipe 20301, so that the oil forms a circulating flow in the soaking pool 1; compared with the traditional static soaking method, the soaking method produces a continuous flushing effect by making the oil flow, not only significantly improves the penetration efficiency of the oil on the surface of the razor blade 7, but also effectively avoids the immersion dead angle caused by the uneven concentration of local oil, and the flowing oil helps to remove the bubbles attached to the surface of the razor blade 7, which is beneficial to the contact between the oil and the razor blade 7.

[0042] Furthermore, considering that the stacked razor blades 7 are in close contact, oil cannot easily penetrate between the blades, resulting in some blades 7 not being in sufficient contact with the oil, thus reducing the blades' rust prevention and lubrication effects and lowering the quality of the produced blades. Therefore, when the base plate 101 contacts the limiting part 1002, the telescopic drive component 106 is extended, causing the movable frame 107 and the two racks 10701 to move to the left. This causes the two racks 10701 to rotate all the rotating blocks 108 by 90 degrees, which in turn causes the rotating blocks 108 to rotate the limiting rods 6 and the sealing blocks 105 by 90 degrees. Since the mounting groove 7001 has circular grooves at both ends and the limiting rods 6 have flat cross-sections, after the limiting rods 6 rotate 90 degrees, they become parallel to the mounting groove 7001, releasing the left and right limits on the mounting groove 7001. This allows the razor blades 7 to deflect on the corresponding two limiting rods 6, combined with... Figure 9 Understood. Subsequently, the telescopic drive component 109 is controlled to move the support plate 103 to the left, causing the support plate 103 to indirectly push the limiting rod 6 to the left through the sealing block 105. This causes the limiting rod 6 to rotate to the left on the rotating block 108, resulting in an inclined state. This causes the stacked razor blades 7 to move and tilt to the left, which helps to increase the contact area between the razor blades 7 and the oil, enhancing the soaking effect. At the same time, it facilitates the upward floating and discharge of air bubbles on the right side of the razor blades 7, allowing the oil to contact the razor blades 7, further improving the soaking effect and soaking uniformity. It should be noted that the telescopic end of the telescopic drive component 109 is initially in a semi-extended state. After the stacked razor blades 7 have moved and tilted to the left and soaked for ten minutes, the telescopic drive component is controlled to... The third 109 drives the support plate 103 to move to the right, causing the support plate 103 to push the limiting rod 6 to the right. This causes the limiting rod 6 to move the stacked razor blades 7 to the right and tilt them for soaking, improving the uniformity of wetting on the surface of the razor blades 7. At the same time, it facilitates the upward floating and discharge of air bubbles on the left side of the razor blades 7, allowing the oil to come into contact with the razor blades 7 and enhancing the soaking effect of the razor blades 7. When the razor blades 7 are placed in the soaking tank 1, the space between the base plate 101 and the support plate 103 is sealed and covered by the flexible sealing cover 104 and the sealing block 105 to prevent oil from seeping into and contacting components such as the telescopic drive component 106, reducing the risk of oil contamination and ensuring the service life of components such as the telescopic drive component 106.

[0043] When the bearing plate 103 pushes the limiting rod 6 to the left through the sealing block 105, the bearing plate 103 pushes the pull rod 102 to the left due to the linkage rod 10301 being clamped in the limiting groove 10201 of the pull rod 102, and then the pull rod 102 is parallel to the inclined limiting rod 6. When the stacked razor blades 7 complete the left tilting action, the control telescopic driving part 2 drives the connecting frame 3 and the pipe frame 4 to rise through the connecting rod 2001. Since the connecting frame 3 is in sliding fit with all the connecting rods 2001 through the sliding groove 3001, in the rising process, the stop rod 4001 is guided by the inclined pull rod 102, which drives the pipe frame 4 to slide left along the connecting rod 2001 with the connecting frame 3. Since the stacked razor blades 7 are tilted, when viewed from bottom to top, the notches 7002 of the razor blades 7 are exposed layer by layer due to displacement, and the rising pipe frame 4 drives the pusher 5 to rise and slide to the left. The pusher 5 located to the left of the limiting rod 6 moves along the notches 7002 exposed layer by layer on the left side of the stacked razor blades 7, but does not contact the razor blades 7. The pusher 5 located to the right of the limiting rod 6 contacts the lower edge of the notch 7002 on the right side of the razor blades 7. The pusher 5 challenges the lower edge of the notch 7002 on the right side of the razor blades 7 upward, so that the razor blades 7 generate a 5°-15° kick angle and separate from the lower layer of razor blades 7, ensuring that the oil can fully infiltrate the gap between the layers of razor blades 7, significantly improving the oil infiltration uniformity of the razor blades 7, thereby enhancing the oil infiltration effect. After the bearing plate 103 drives the sealing block 105 to push the limiting rod 6 to the right, the stacked razor blades 7 are tilted to the right, and the pipe frame 4 drives the pusher 5 to challenge the lower edge of the notch 7002 exposed layer by layer on the left side upward during the rising process.

[0044] Since the branch pipe 20301 is in communication with the inside of the pipe frame 4, when the pusher 5 challenges the lower edge of the notch 7002 upward to make the razor blades 7 kick and separate from the lower layer of razor blades 7, the oil enters the inside of the pipe frame 4 through the branch pipe 20301, and then is sprayed from the nozzle 4002 to the lower side of the kicked razor blades 7, further enhancing the oil infiltration effect of the razor blades 7.

[0045] When the oil immersion work of the razor blade 7 is completed, the telescopic drive three 109 is controlled to drive the bearing plate 103 to translate and reset, so that the limiting rod 6 drives the razor blade 7 to reset to the vertical stacked state, then the telescopic drive two 106 is controlled to drive the movable frame 107 and the two racks 10701 to move and reset, and drive all the rotating blocks 108 to rotate by ninety degrees. In this process, the rotating block 108 drives the limiting rod 6 and the sealing block 105 to rotate by ninety degrees, so that the limiting rod 6 re-limits the razor blade 7. Then the telescopic drive one 2 drives the connecting frame 3 to descend through the connecting rod 2001, so that the connecting frame 3 drives the electromagnet two 302 to descend and contact the electromagnet one 301, so that the electromagnet one 301 and the electromagnet two 302 are electrified and adsorbed. Then the telescopic drive one 2 drives the connecting frame 3 to ascend through the connecting rod 2001, so that the connecting frame 3 drives the bearing plate 1001 to ascend from the soaking pool 1 under the adsorption of the electromagnet one 301 and the electromagnet two 302, so as to ascend the bottom plate 101, the bearing plate 103 and the whole part of the bearing plate 103. The oil-immersed razor blade 7 is separated from the oil liquid to automatically drain, the whole process does not need manual intervention, and the automation operation of the oil immersion and oil drainage of the razor blade 7 is realized.

[0046] In the embodiment 1, the soaking pool 1 is further provided with a limiting plate 401, each branch pipe 20301 penetrates through the limiting plate 401, and the limiting plate 401 is located below the oil liquid surface. Figure 2

[0047] It is also considered that, since the branch pipe 20301 is a rubber oil conveying pipe, when the connecting frame 3 ascends, the connecting frame 3 drives the upper curved part of the branch pipe 20301 to bend outward of the soaking pool 1, which causes the oil liquid adhered on the branch pipe 20301 to flow along the pipe wall to the outside of the liquid discharge pipe 203, not only causing waste of oil liquid, but also increasing the workload of subsequent cleaning of oil liquid. Therefore, when the connecting frame 3 ascends and is separated from the oil liquid, the limiting plate 401 is used to limit the branch pipe 20301, effectively blocking the ascending force of the connecting frame 3 from being transmitted to the curved section of the branch pipe 20301, so as to prevent the oil liquid on the pipe wall from overflowing to the area of the liquid discharge pipe 203, which not only avoids waste of oil liquid resources, but also reduces the intensity of subsequent cleaning work.

[0048] Although the present application has been described with reference to the example embodiments, it is to be understood that the application is not limited to the disclosed example embodiments. The scope of the following claims is to be given the broadest interpretation to encompass all variations and equivalents.​

Claims

1. An oil-immersion apparatus for blade production, comprising an immersion tank (1); a support plate (1001) is provided at the bottom of the immersion tank (1); a shaving blade (7) is provided with an installation groove (7001); the two ends of the installation groove (7001) are round, and the four corners of the shaving blade (7) are each provided with a notch (7002); characterized in that: It also includes a base plate (101), lifting rods (102), a support plate (103), an adjustment assembly, a telescopic drive component (2), a connecting frame (3), a pipe rack (4), a lever (5), and a limiting rod (6); the support plate (1001) is provided with several limiting parts (1002); each limiting part (1002) has a base plate (101) placed on it; each base plate (101) is rotatably connected to two lifting rods (102); each lifting rod (102) has Two limiting slots (10201) are provided; a support plate (103) for supporting razor blades (7) is movably connected to two lifting rods (102); a control component for translating and tilting the stacked razor blades (7) is connected to the base plate (101); several limiting rods (6) are rotatably connected to the control component, and the limiting rods (6) extend upward through the support plate (103); the cross-section of each limiting rod (6) is flat; every two adjacent limiting rods (6) As a group, razor blades (7) are stacked on each group of limiting rods (6); several telescopic drive components (2) are provided on the soaking pool (1); each telescopic drive component (2) has a connecting rod (2001) on its telescopic end; the other ends of all the connecting rods (2001) are connected to a connecting frame (3); several sliding grooves (3001) are provided on the connecting frame (3); the connecting frame (3) is connected to all the connecting rods (2001) through the sliding grooves (3001). A sliding fit is formed; three tube racks (4) are provided on the connecting frame (3); each tube rack (4) consists of two long tubes and two stop bars (4001), the stop bars (4001) are located on the left and right sides of the tube rack (4); a paddle (5) for moving the razor blade (7) is provided on the left and right sides of each limiting rod (6); each paddle (5) is fixedly connected to the long tube of the corresponding tube rack (4), and the paddles (5) on the two long tubes of the same tube rack (4) are set opposite to each other.

2. The oil-immersion apparatus for blade production according to claim 1, characterized in that: The control assembly includes a telescopic drive component two (106), a movable frame (107), a rotating block (108), and a telescopic drive component three (109); a telescopic drive component two (106) is fixedly connected to each base plate (101); a movable frame (107) is fixedly connected to the telescopic end of each telescopic drive component two (106); two racks (10701) are provided on each movable frame (107); several rotating blocks (108) are rotatably connected to each base plate (101); each rotating block (108) is provided with gear teeth that mesh with the racks (10701); each limit rod (6) is rotatably connected to the corresponding rotating block (108); a telescopic drive component three (109) is fixedly connected to each base plate (101); the telescopic end of each telescopic drive component three (109) is fixedly connected to the lower side of the corresponding bearing plate (103).

3. The oil-immersion apparatus for blade production according to claim 1, characterized in that: The upper side of the support plate (103) is set as a trapezoidal structure.

4. An oil-immersion apparatus for blade production according to claim 3, characterized in that: It also includes a sealing assembly, which includes a flexible sealing cover (104) and a sealing block (105); a flexible sealing cover (104) is fixedly connected between the base plate (101) and the support plate (103); several sealing blocks (105) are rotatably connected to each support plate (103); a limiting rod (6) passes through the sealing block (105) upwards, and the middle part of the sealing block (105) is made of rubber to ensure sealing.

5. An oil-immersion apparatus for blade production according to claim 1, characterized in that: It also includes a circulation component, which includes an oil pump (201), a suction pipe (202), and a drain pipe (203); the oil pump (201) is fixedly connected to the soaking tank (1); the suction pipe (202) is fixedly connected to the oil pump (201); the suction pipe (202) is connected to the lower part of the soaking tank (1); the drain pipe (203) is fixedly connected to the oil pump (201); several branch pipes (20301) are provided on the drain pipe (203); the branch pipes (20301) are rubber hoses; each branch pipe (20301) is connected to the upper part of the soaking tank (1).

6. An oil-immersion apparatus for blade production according to claim 5, characterized in that: Each pipe rack (4) has several nozzles (4002) installed on its long pipe; two nozzles (4002) facing each other on each pipe rack (4) form a group; each group of nozzles (4002) is located to the left and right of the limiting rod (6); each branch pipe (20301) is connected to the inside of the long pipe of the corresponding pipe rack (4).

7. An oil-immersion apparatus for blade production according to claim 6, characterized in that: Each nozzle (4002) is configured to be tilted toward the limiting rod (6).

8. An oil-immersion apparatus for blade production according to claim 1, characterized in that: The longitudinal section of each limiting part (1002) is set in an inverted V-shape.

9. An oil-immersion apparatus for blade production according to claim 1, characterized in that: It also includes a connecting component, which includes electromagnet one (301) and electromagnet two (302); electromagnet one (301) is fixedly connected to the upper side of the support plate (1001); electromagnet two (302) is fixedly connected to the lower side of the connecting frame (3); electromagnet one (301) is located directly below electromagnet two (302).

10. An oil-immersion apparatus for blade production according to claim 5, characterized in that: It also includes a limiting plate (401); a limiting plate (401) for limiting branch pipes (20301) is fixedly connected to the soaking tank (1); each branch pipe (20301) passes through the limiting plate (401); the limiting plate (401) is located below the oil surface.

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