An intelligent processing equipment for permanent magnetic circuit breaker production

Abstract

The present invention relates to the field of circuit breaker processing, and in particular to an intelligent processing equipment for permanent magnet circuit breaker production, including a fixing frame and a filter tank, etc.; an intelligent control panel is provided on the fixing frame; and a filter is provided on the left and right sides of the fixing frame. The present invention realizes that the circuit breaker housing is supported by a liquid outlet pipe, and the production cost is reduced. At the same time, the liquid outlet provided on the liquid outlet pipe is tilted toward the left and right sides respectively, so that the oxide film coverage of the circuit breaker housing is more uniform; the liquid outlet of the liquid outlet pipe is located in the middle of the electrolytic cell, and the liquid extraction ports of the first liquid extraction pipe are respectively located at the front and rear sides of the electrolytic cell, and the flow path of the electrolyte is used to gradually move the bubbles away from the surface of the circuit breaker housing, so as to avoid the bubbles adhering to the surface of the circuit breaker housing and affecting the formation of the oxide film.

Description

Technical Field

[0001] The present invention relates to the field of circuit breaker processing, and in particular to intelligent processing equipment for producing permanent magnet circuit breakers. Background Art

[0002] The shell of the permanent magnetic circuit breaker needs to be immersed in an electrolyte for anodization before use, so that an oxide film is formed on the surface of the shell to prevent the shell from being oxidized or corroded during use. During the oxidation process of the shell immersed in the electrolyte, due to the existing lifting structure, the shell always needs to be suspended for electrolysis during the shell anodization process. When multiple shells need to be immersed in the electrolytic cell, multiple sets of lifting structures need to be added, which increases production costs. In addition, multiple sets of lifting structures are prone to interfere with each other during the process of transporting the shell, affecting the production process. At the same time, when the lifting structure suspends the shell and immerses it in the electrolyte, the part where the lifting structure contacts the shell is blocked, resulting in insufficient oxide film formation at that part.

[0003] At the same time, sulfuric acid is one of the commonly used electrolytes, and sulfuric acid produces oxygen during the electrolysis process. Oxygen forms bubbles in the electrolyte and easily adheres to the surface of the shell, causing the bubbles to occupy the space that should be filled by the oxide film, resulting in a thin or missing local film layer, making the oxide film formation loose, which in turn affects the production process of the shell. Summary of the invention

[0004] In order to overcome the disadvantages that when multiple shells need to be immersed in the electrolytic cell, multiple sets of lifting structures need to be added, which increases the production cost and the multiple sets of lifting structures are prone to interfere with each other in the process of transporting the shells, affecting the production process, and when the shells are hung, the contact part between the lifting structure and the shell is blocked, resulting in insufficient oxide film formation, the present invention provides an intelligent processing equipment for the production of permanent magnetic circuit breakers.

[0005] The technical scheme of the present invention is: an intelligent processing equipment for permanent magnetic circuit breaker production, comprising a fixing frame, a filter tank, an electrolytic cell, a liquid discharge pipe and a first liquid extraction pipe; an intelligent control panel is arranged on the fixing frame; a filter tank is arranged on the left and right sides of the fixing frame; a filter screen is arranged in each filter tank; an electrolytic cell is installed on the lower side of the fixing frame, and the electrolytic cell is located between the two filter tanks; a bearing plate is arranged on the rear side of the electrolytic cell; a liquid discharge pipe is arranged in the electrolytic cell; a first liquid extraction pipe is installed in the electrolytic cell, and the first liquid extraction pipe is located above the liquid discharge pipe; the liquid discharge pipe and The left and right sides of the first liquid extraction pipe penetrate the electrolytic cell and are connected to the adjacent filter cell; the discharge pipe and the first liquid extraction pipe are connected to the external water pumping equipment, and the external water pumping equipment is located in the adjacent filter cell; it also includes a transfer component, a liquid outlet pipe and an alternating component; the lower side of the fixed frame is connected to a transfer component for transporting the circuit breaker housing; the discharge pipe is connected to a plurality of liquid outlet pipes for supporting the circuit breaker housing; each liquid outlet pipe is provided with a plurality of liquid outlets; the electrolytic cell is connected to an alternating component that is beneficial to the comprehensive formation of an oxide film on the lower side of the circuit breaker housing.

[0006] Furthermore, the transfer assembly includes a slide rail, a first electric slider, a first connecting plate, a first electric push rod, a second connecting plate, a second electric slider and a hook; two slide rails are fixedly connected to the fixed frame; a first electric slider is slidably connected to each slide rail; a first connecting plate is commonly fixedly connected between the two first electric sliders; two first electric push rods are fixedly connected to the first connecting plate; a second connecting plate is commonly fixedly connected to the output ends of the two first electric push rods; two slide grooves are provided on the second connecting plate; a number of second electric sliders are slidably connected to each slide groove; a hook for transferring the circuit breaker housing is fixedly connected to the lower side of each second electric slider.

[0007] Furthermore, the alternating component includes a second electric push rod, a first baffle and a supporting plate; a plurality of movable chambers are opened on the electrolytic cell; a plurality of second electric push rods are fixedly connected in each movable chamber; the output ends of the second electric push rods located in the same movable chamber are commonly fixedly connected to a first baffle; and a plurality of supporting plates are commonly fixedly connected to the opposite sides of the plurality of first baffles so that the circuit breaker housing is more fully covered with an oxide film.

[0008] Furthermore, the liquid outlet on each liquid outlet pipe is inclined toward the left side and the right side respectively.

[0009] Furthermore, the liquid outlet of the liquid outlet pipe is located in the middle of the electrolytic cell, and the liquid extraction ports of the first liquid extraction pipe are respectively located at the front side and the rear side of the electrolytic cell.

[0010] Furthermore, it also includes a second liquid extraction pipe; the first liquid extraction pipe is connected to a plurality of second liquid extraction pipes to prevent bubbles from being mixed in the circuit breaker housing, and the second liquid extraction pipes are made of soft material.

[0011] Furthermore, it also includes a first guide plate; a plurality of round holes are opened on the circuit breaker housing; each second liquid extraction pipe is rotatably connected to a first guide plate for facilitating the separation of bubbles from the inner surface of the circuit breaker housing.

[0012] Furthermore, it also includes a DD motor, a rotating rod and a second baffle; a plurality of DD motors are fixedly connected to the upper side of the electrolytic cell; each DD motor rotating part is fixedly connected to a rotating rod; the rotating rod is rotatably connected to the electrolytic cell; each rotating rod is fixedly connected to a second baffle to prevent electrolyte splashing; each second baffle is fixedly connected to an adjacent second liquid extraction tube, and the second liquid extraction tube passes through the second baffle.

[0013] Furthermore, it also includes cone spikes; a plurality of cone spikes are fixedly connected to the lower side of each second baffle plate to prevent bubble accumulation.

[0014] Furthermore, the two second baffles are combined into a V shape.

[0015] The beneficial effects of the present invention are as follows: the present invention realizes supporting the circuit breaker housing by the liquid outlet pipe, thereby reducing the production cost, and the liquid outlets opened on the liquid outlet pipe are inclined toward the left and right sides respectively, so that the oxide film formed on the bottom of the circuit breaker housing is more uniform;

[0016] The liquid outlet of the liquid outlet pipe is located in the middle of the electrolytic cell, and the liquid extraction ports of the first liquid extraction pipe are respectively located at the front and rear sides of the electrolytic cell. The bubbles are gradually moved away from the surface of the circuit breaker housing through the flow path of the electrolyte, so as to prevent the bubbles from adhering to the surface of the circuit breaker housing and affecting the formation of the oxide film.

[0017] By repeatedly lifting and lowering the supporting plate, the supporting point of the circuit breaker housing is constantly changed, so that the oxide film formed on the lower side of the circuit breaker housing is not affected by the supporting point and covers the circuit breaker housing more comprehensively;

[0018] The electrolyte flow inside the circuit breaker housing is enhanced by the second liquid extraction pipe, thereby preventing bubbles from adhering inside the circuit breaker housing and ensuring that the oxide film outside and inside the circuit breaker housing are formed uniformly;

[0019] The electrolyte is guided by the first guide plate to flow toward the side wall inside the circuit breaker housing, thereby driving the bubbles attached inside the circuit breaker housing to flow, further improving the bubble elimination effect inside the circuit breaker housing;

[0020] The two second baffles are combined in a V shape to guide the bubbles to move to the front and rear sides of the electrolytic cell, and then are sucked away by the first liquid extraction pipe during the sinking process of the impurities, so that the impurities cannot fall on the circuit breaker housing, thereby improving the anodizing effect of the circuit breaker housing. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1It is a schematic diagram of the three-dimensional structure of the intelligent processing equipment for producing permanent magnetic circuit breakers of the present invention;

[0022] Figure 2 It is a schematic diagram of the three-dimensional structure of the transport component of the present invention;

[0023] Figure 3 It is a combined cross-sectional view of the filtration tank and the electrolytic cell of the present invention;

[0024] Figure 4 It is a schematic diagram of the three-dimensional structure of the combination of the liquid discharge pipe, the first liquid extraction pipe and the liquid outlet pipe of the present invention;

[0025] Figure 5 It is a schematic diagram of the three-dimensional structure of the second electric push rod, the first baffle plate and the supporting plate of the present invention;

[0026] Figure 6 It is a schematic diagram of the three-dimensional structure of the second liquid extraction tube of the present invention;

[0027] Figure 7 It is a schematic diagram of the three-dimensional structure of the second liquid extraction tube and the first guide plate of the present invention;

[0028] Figure 8 It is a schematic diagram of the three-dimensional structure of the DD motor, the rotating rod and the second baffle assembly of the present invention;

[0029] Fig. 9 It is a side view of the second baffle and the cone thorn of the present invention.

[0030] Parts names and serial numbers in the figure: 1-fixed frame, 2-filter tank, 3-electrolytic cell, 3001-active chamber, 4-liquid discharge pipe, 5-first liquid extraction pipe, 6-liquid outlet pipe, 7-circuit breaker housing, 7001-round hole, 101-slide rail, 102-first electric slider, 103-first connecting plate, 104-first electric push rod, 105-second connecting plate, 10501-slide groove, 106-second electric slider, 107-hook, 108-second electric push rod, 109-first baffle, 110-supporting plate, 201-second liquid extraction pipe, 202-first guide plate, 301-DD motor, 302-rotating rod, 303-second baffle, 304-cone thorn. DETAILED DESCRIPTION

[0031] Hereinafter, embodiments of the present invention will be described with reference to the drawings.

[0032] Example 1

[0033] like Figure 1-Figure 5As shown, an intelligent processing equipment for permanent magnetic circuit breaker production includes a fixed frame 1, a filter tank 2, an electrolytic cell 3, a drain pipe 4 and a first liquid extraction pipe 5; an intelligent control panel is arranged on the fixed frame 1; a filter tank 2 is arranged on the left and right sides of the fixed frame 1; a filter screen is arranged in each filter tank 2; an electrolytic cell 3 is installed on the lower side of the fixed frame 1, and the electrolytic cell 3 is located between two filter tanks 2; a bearing plate is arranged on the rear side of the electrolytic cell 3; a drain pipe 4 is arranged in the electrolytic cell 3; a first liquid extraction pipe 5 is installed in the electrolytic cell 3, and the first liquid extraction pipe 5 is located above the drain pipe 4; the left and right sides of the drain pipe 4 and the first liquid extraction pipe 5 both penetrate the electrolytic cell 3 and are connected with the adjacent filter tank 2; the drain pipe 4 and the first liquid extraction pipe 5 are both connected with an external water pumping device, and the external water pumping device is located in the adjacent filter tank 2;

[0034] It also includes a transfer component, a liquid outlet pipe 6 and an alternating component; the transfer component is connected to the lower side of the fixed frame 1; the discharge pipe 4 is connected to a plurality of liquid outlet pipes 6; each liquid outlet pipe 6 is provided with a plurality of liquid outlets; and the electrolytic cell 3 is connected to an alternating component.

[0035] The transfer assembly includes a slide rail 101, a first electric slider 102, a first connecting plate 103, a first electric push rod 104, a second connecting plate 105, a second electric slider 106 and a hook 107; two slide rails 101 are fixedly connected to the fixed frame 1; each slide rail 101 is slidably connected to a first electric slider 102; a first connecting plate 103 is commonly fixedly connected between the two first electric sliders 102; two first electric push rods 104 are fixedly connected to the first connecting plate 103; a second connecting plate 105 is commonly fixedly connected to the output ends of the two first electric push rods 104; two slide grooves 10501 are provided on the second connecting plate 105; each slide groove 10501 is slidably connected to a plurality of second electric sliders 106; a hook 107 is fixedly connected to the lower side of each second electric slider 106.

[0036] The alternating component includes a second electric push rod 108, a first baffle 109 and a supporting plate 110; a plurality of active cavities 3001 are opened on the electrolytic cell 3; a plurality of second electric push rods 108 are fixedly connected in each active cavity 3001; the output ends of the second electric push rods 108 located in the same active cavity 3001 are commonly fixedly connected to a first baffle 109; and a plurality of supporting plates 110 are commonly fixedly connected to the opposite sides of the plurality of first baffles 109.

[0037] The liquid outlet on each liquid outlet pipe 6 is inclined toward the left and right sides respectively, so that the electrolyte sprayed from the liquid outlet pipe 6 can flow along the bottom of the circuit breaker housing 7, making the oxide film formed on the bottom of the circuit breaker housing 7 more uniform and preventing the circuit breaker housing 7 from blocking the liquid outlet pipe 6.

[0038] The liquid outlet of the liquid outlet pipe 6 is located in the middle of the electrolytic cell 3, and the liquid extraction ports of the first liquid extraction pipe 5 are respectively located at the front side and the rear side of the electrolytic cell 3.

[0039] Before anodizing the circuit breaker housing 7, a worker operates the intelligent control panel on the fixing frame 1 to start the first electric slider 102 to move backward, thereby driving the first connecting plate 103, the first electric push rod 104 and the second connecting plate 105 to move backward to above the bearing plate on the rear side of the electrolytic cell 3, and then the circuit breaker housing 7 is accurately transferred to the bearing plate through an external intelligent transmission device, and then the first electric push rod 104 extends downward to drive the second connecting plate 105, the second electric slider 106 and the hook 107 to move downward. When the hook 107 extends into the interior of the circuit breaker housing 7, the two adjacent second electric sliders 106 are driven to move toward the separated side on the slide groove 10501, so that the two adjacent hooks 107 are stretched open and hung on the left and right sides of the circuit breaker housing 7, and then the first electric push rod 104 is started to reset, the circuit breaker housing 7 is lifted, and the first electric slider 102 is started to slide forward on the slide rail 101, thereby driving The circuit breaker housing 7 moves to the top of the electrolytic cell 3, and the first electric push rod 104 is started to extend downward. When the circuit breaker housing 7 is completely immersed in the electrolytic cell 3, the first electric push rod 104 stops extending, and then the circuit breaker housing 7 is immersed in the electrolytic cell 3 for anodization with the circuit breaker housing 7 as the positive electrode, so that a dense oxide film is formed on the surface of the circuit breaker housing 7. In this process, it should be noted that: the electrolyte is initially stored in the filter tank 2, and the electrolyte in the filter tank 2 is extracted by the drain pipe 4 and discharged into the electrolytic cell 3 by starting the external pumping equipment. At the same time, the first liquid extraction pipe 5 extracts the electrolyte in the electrolytic cell 3 and discharges it into the filter tank 2, and filters it through the filter screen in the filter tank 2, so as to circulate the electrolyte in the electrolytic cell 3. When the electrolyte is drawn into the filter tank 2 through the first liquid extraction pipe 5, the electrolyte is filtered through the filter tank 2 to ensure that the electrolyte in the electrolytic cell 3 remains clean and avoid impurities generated during the electrolysis of the circuit breaker housing 7 from contaminating the electrolyte.

[0040] In the above-mentioned process of transporting the circuit breaker housing 7, when the circuit breaker housing 7 is placed in the electrolytic cell 3 for anodizing, since the oxidation process of the circuit breaker housing 7 takes a long time, the hook 107 always needs to suspend the circuit breaker housing 7 for oxidation. As a result, when it is necessary to use multiple electrolytic cells 3 to oxidize multiple circuit breaker housings 7 at the same time, it is necessary to add multiple sets of first electric sliders 102, first connecting plates 103, second electric sliders 106 and hooks 107, which increases the production cost. In addition, the multiple sets of first electric sliders 102, first connecting plates 103, second electric sliders 106 and hooks 107 are also prone to interfere with each other during the transportation process, affecting the operation of the equipment. In order to avoid this phenomenon, when the hook 107 drives the circuit breaker housing 7 to immerse in the electrolytic cell 3, the bottom of the circuit breaker housing 7 is in contact with the upper side of the liquid outlet pipe 6, and then the two adjacent second electric sliders 106 are started to slide toward each other, thereby moving the hook 107 away from the side of the circuit breaker housing 7, and then loosening the circuit breaker housing 7, so that the circuit breaker housing 7 is oxidized by multiple The first electric push rod 104 is then started to shrink back to the initial state, thereby releasing the first electric slider 102, the first connecting plate 103, the second electric slider 106 and the hook 107, so as to transfer other circuit breaker housings 7 that need to be anodized. While reducing production costs, when the external pumping equipment transports electrolyte to the drain pipe 4, part of the electrolyte flows into the drain pipe 6 through the drain pipe 4, and then the electrolyte is discharged from the middle of the electrolytic cell 3 through the outlet opening on the drain pipe 6. At the same time, the liquid outlets opened on the liquid outlet pipe 6 are tilted toward the left and right sides respectively, so that the electrolyte sprayed from the liquid outlet pipe 6 flows along the bottom of the circuit breaker housing 7. Compared with the electrolyte stationary in the electrolytic cell 3, the flowing electrolyte can ensure that the ion concentration distribution in the electrolyte is more uniform, avoiding the concentration gradient change caused by local consumption, which is also conducive to the uniform formation of the oxide film, thereby making the oxide film formed at the bottom of the circuit breaker housing 7 more uniform, and preventing the circuit breaker housing 7 from blocking the liquid outlet pipe 6.

[0041] Since sulfuric acid is one of the most commonly used electrolytes, during the anodizing process of the circuit breaker housing 7, sulfuric acid is electrolyzed to generate oxygen, which generates bubbles in the electrolyte. The bubbles are easily attached to the circuit breaker housing 7, so that the bubbles occupy the space that should be filled by the oxide film, resulting in a thin or missing film layer in some parts. In order to avoid this phenomenon, the liquid outlet of the liquid outlet pipe 6 is located in the middle of the electrolytic cell 3. When the external pumping equipment transports the electrolyte to the drain pipe 4, the electrolyte is discharged from the middle of the electrolytic cell 3 through the liquid outlet pipe 6. At the same time, the first liquid extraction pipe 5 The liquid extraction ports are respectively located at the front and rear sides of the electrolytic cell 3. During the process of extracting electrolyte through the first liquid extraction pipe 5, the electrolyte is respectively extracted to the front and rear sides of the electrolytic cell 3 and flows to the filter tank 2. Based on the view from right to left, the flow paths of the electrolyte in the electrolytic cell 3 are respectively from the middle of the electrolytic cell 3 to the front side of the electrolytic cell 3 and from the middle of the electrolytic cell 3 to the rear side of the electrolytic cell 3. Then, the flow of the electrolyte is utilized to drive the bubbles attached to the surface of the circuit breaker housing 7, so that the bubbles gradually move away from the surface of the circuit breaker housing 7, thereby preventing the bubbles from adhering to the surface of the circuit breaker housing 7 and affecting the formation of an oxide film.

[0042] It is also considered that, in both the case of suspending the circuit breaker housing 7 by the existing hook 107 and immersing it in the electrolytic cell 3 and the case of supporting the circuit breaker housing 7 by the liquid outlet pipe 6 of the present invention, the contact portion of the circuit breaker housing 7 with the hook 107 and the liquid outlet pipe 6 is blocked, resulting in poor formation of the oxide film. In order to avoid this phenomenon, when the liquid outlet pipe 6 supports the circuit breaker housing 7 for anodization, the second electric push rod 108 is started to retract upward, thereby driving the first baffle 109 to move upward. It should be noted that: based on the view from top to bottom, the horizontal and vertical surfaces of the first baffle 109 are always in close contact with the electrolytic cell 3 during the movement process, thereby preventing the electrolyte from flowing into the active cavity 3001. During the upward movement of the first baffle 109 During the process, the first baffle 109 drives the supporting plate 110 to move upward. When the upper side of the supporting plate 110 is higher than the upper side of the liquid outlet pipe 6, the supporting plate 110 continues to move upward, thereby lifting the circuit breaker housing 7 upward for a short distance, so that the circuit breaker housing 7 is separated from the liquid outlet pipe 6. At this time, the supporting plate 110 replaces the liquid outlet pipe 6 to support the circuit breaker housing 7, and then the second electric push rod 108 is controlled to drive the first baffle 109 and the supporting plate 110 to reset. Therefore, the supporting plate 110 is lifted and lowered for many times through the above operation, so that the supporting point of the circuit breaker housing 7 is constantly changed, so that the formation of the oxide film on the lower side of the circuit breaker housing 7 is not affected by the supporting point, which is conducive to the comprehensive formation of the oxide film on the lower side of the circuit breaker housing 7.

[0043] Example 2

[0044] On the basis of Example 1, Figure 1 , Figure 6-Figure 9As shown, a second liquid extraction tube 201 is also included; a plurality of second liquid extraction tubes 201 are connected to the first liquid extraction tube 5, and the second liquid extraction tubes 201 are made of soft material.

[0045] It also includes a first guide plate 202 ; a plurality of round holes 7001 are opened on the circuit breaker housing 7 ; and each second liquid extraction pipe 201 is rotatably connected to a first guide plate 202 .

[0046] It also includes a DD motor 301, a rotating rod 302 and a second baffle 303; two DD motors 301 are fixedly connected to the upper side of the electrolytic cell 3; each rotating part of the DD motor 301 is fixedly connected to a rotating rod 302; the rotating rod 302 is rotatably connected to the electrolytic cell 3; each rotating rod 302 is fixedly connected to a second baffle 303; each second baffle 303 is fixedly connected to the adjacent second liquid extraction tube 201, and the second liquid extraction tube 201 passes through the second baffle 303.

[0047] It also includes cone spikes 304 ; a plurality of cone spikes 304 are fixedly connected to the lower side of each second baffle 303 .

[0048] The two second baffles 303 are combined into a V shape.

[0049] During the anodizing process of the circuit breaker housing 7, Figure 6 As shown, considering that the structure of the circuit breaker housing 7 causes the electrolyte to circulate in the circuit breaker housing 7, the electrolyte circulation in the circuit breaker housing 7 has poor fluidity due to the obstruction of the side of the circuit breaker housing 7. When bubbles adhere to the circuit breaker housing 7 during the anodizing process, the electrolyte in the circuit breaker housing 7 has poor fluidity, so that the bubbles cannot be extracted, which leads to defects in the oxide film formation inside the circuit breaker housing 7. In order to avoid this phenomenon, during the process of extracting the electrolyte with the first extraction pipe 5, the worker extends the bottom of the second extraction pipe 201 into the circuit breaker housing 7 as shown in FIG. Figure 6 As shown, at this time, the second liquid extraction pipe 201 simultaneously extracts the electrolyte located inside the circuit breaker housing 7, thereby enhancing the electrolyte flow inside the circuit breaker housing 7, thereby avoiding the adhesion of bubbles inside the circuit breaker housing 7 and ensuring that the oxide film outside and inside the circuit breaker housing 7 are formed consistently.

[0050] It is also considered that, during the process of extracting electrolyte by the second liquid extraction pipe 201, since a plurality of circular holes 7001 are provided on the existing circuit breaker housing 7, when the electrolyte enters the interior of the circuit breaker housing 7 through the circular holes 7001, the first guide plate 202 is first adjusted by manual rotation so that the first guide plate 202 faces the circular holes 7001. Then, the flow of the electrolyte is guided by the first guide plate 202 to flow toward the side wall inside the circuit breaker housing 7, thereby driving the flow of bubbles attached to the interior of the circuit breaker housing 7, and further improving the bubble elimination effect inside the circuit breaker housing 7.

[0051] In the process of anodizing the circuit breaker housing 7, it is considered that the electrolyte may be splashed after the bubbles float to the surface of the electrolyte and burst. When the workers are working around the electrolytic cell 3, the splashed electrolyte is easy to adhere to the workers' skin and cause harm to the workers. In order to avoid this phenomenon, in the process of the worker adjusting the second liquid extraction pipe 201 to extend into the circuit breaker housing 7, the DD motor 301 on the left side is started to rotate clockwise, and the DD motor 301 on the right side is started to rotate counterclockwise, thereby driving the two rotating rods 302 and the second baffle 303 as shown in FIG. Figure 8 The method shown is covered on the upper side of the electrolytic cell 3, thereby driving the second liquid extraction pipe 201 to automatically insert into the circuit breaker housing 7. At the same time, the second baffle 303 is used to avoid electrolyte splashing caused by bubble bursting, ensuring the safety of workers in production.

[0052] At the same time, during the anodizing process of the circuit breaker housing 7, impurities are easily precipitated or shed from the surface of the circuit breaker housing 7, and long-term use of the electrolyte is likely to produce by-products, which in turn causes floating impurities during the anodizing process of the circuit breaker housing 7. The electrolyte is circulated to the filter tank 2 through the drain pipe 4 and the first pumping pipe 5 to intercept and purify the impurities, and some impurities are easily entrained by bubbles to provide a buoyancy force. When a large number of bubbles are generated, the first pumping pipe 5 cannot extract the bubbles in time, causing the bubbles to float on the surface of the electrolyte. When the bubbles burst, the impurities fall back into the electrolyte. In this process, the impurities are easily attached to the surface of the circuit breaker housing 7, thereby affecting the formation of the oxide film of the circuit breaker housing 7. In order to avoid this phenomenon, when the second baffle 303 is covered on the upper side of the electrolytic cell 3, the second baffle 303 is as Fig. 9 As shown, half of it is immersed in the electrolyte and is combined into a V shape by two second baffles 303. During the process of bubbles floating up, they are guided by the two second baffles 303 to move toward the front and rear sides of the electrolytic cell 3 respectively. When the bubbles burst, the impurities entrained fall back to the water surface. Since the extraction ports of the first extraction pipe 5 are arranged at the front and rear sides of the electrolytic cell 3, the impurities are extracted by the first extraction pipe 5 during the sinking process, so that the impurities cannot fall on the circuit breaker housing 7, thereby improving the anodizing effect of the circuit breaker housing 7.

[0053] It is also considered that when more bubbles are generated, the bubbles are likely to carry impurities and accumulate on the lower side of the second baffle 303. At this time, the bubbles are contacted by the cone thorns 304, making it easier to break the bubbles, thereby preventing the bubbles from accumulating on the lower side of the second baffle 303, making it easier for the equipment to collect floating impurities.

[0054] The above is only a specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art can easily think of changes or substitutions within the technical scope disclosed by the present invention, which should be included in the protection scope of the present invention. Therefore, the protection scope of the present invention should be based on the protection scope of the claims.

Claims

1. An intelligent processing device for producing permanent magnetic circuit breakers, comprising a fixed frame (1), a filter pool (2), an electrolytic cell (3), a liquid discharge pipe (4) and a first liquid extraction pipe (5); an intelligent control panel is arranged on the fixed frame (1); a filter pool (2) is arranged on the left and right sides of the fixed frame (1); a filter screen is arranged in each filter pool (2); an electrolytic cell (3) is installed on the lower side of the fixed frame (1), and the electrolytic cell (3) is located between the two filter pools (2); the electrolytic cell (3) A carrying plate is arranged at the rear side; a liquid discharge pipe (4) is arranged in the electrolytic cell (3); a first liquid extraction pipe (5) is installed in the electrolytic cell (3), and the first liquid extraction pipe (5) is located above the liquid discharge pipe (4); the left and right sides of the liquid discharge pipe (4) and the first liquid extraction pipe (5) both penetrate the electrolytic cell (3) and are connected to the adjacent filter tank (2); the liquid discharge pipe (4) and the first liquid extraction pipe (5) are both connected to an external water pumping device, and the external water pumping device is located in the adjacent filter tank (2); the invention is characterized in that: It also includes a transfer component, a liquid outlet pipe (6) and an alternating component; the lower side of the fixed frame (1) is connected to a transfer component for transporting a circuit breaker housing (7); the discharge pipe (4) is connected to a plurality of liquid outlet pipes (6) for supporting the circuit breaker housing (7); each liquid outlet pipe (6) is provided with a plurality of liquid outlets; the electrolytic cell (3) is connected to an alternating component that is conducive to the comprehensive formation of an oxide film on the lower side of the circuit breaker housing (7); The alternating assembly comprises a second electric push rod (108), a first baffle (109) and a supporting plate (110); a plurality of active chambers (3001) are provided on the electrolytic cell (3); a plurality of second electric push rods (108) are fixedly connected in each active chamber (3001); the output ends of the second electric push rods (108) located in the same active chamber (3001) are fixedly connected to a first baffle (109); and a plurality of supporting plates (110) are fixedly connected to the opposite sides of the plurality of first baffles (109) so that the circuit breaker housing (7) is more completely covered with an oxide film.

2. The intelligent processing equipment for producing permanent magnetic circuit breakers according to claim 1 is characterized in that: The transfer assembly comprises a slide rail (101), a first electric slider (102), a first connecting plate (103), a first electric push rod (104), a second connecting plate (105), a second electric slider (106) and a hook (107); two slide rails (101) are fixedly connected to the fixed frame (1); a first electric slider (102) is slidably connected to each slide rail (101); a first connecting plate (103) is commonly fixedly connected between the two first electric sliders (102); two first electric push rods (104) are fixedly connected to the first connecting plate (103); a second connecting plate (105) is commonly fixedly connected to the output ends of the two first electric push rods (104); two slide grooves (10501) are provided on the second connecting plate (105); a plurality of second electric sliders (106) are slidably connected to each slide groove (10501); and a hook (107) for transferring the circuit breaker housing (7) is fixedly connected to the lower side of each second electric slider (106).

3. The intelligent processing equipment for producing permanent magnetic circuit breakers according to claim 1 is characterized in that: The liquid outlet on each liquid outlet pipe (6) is inclined towards the left and right sides respectively.

4. The intelligent processing equipment for producing permanent magnetic circuit breakers according to claim 3 is characterized in that: The liquid outlet of the liquid outlet pipe (6) is located in the middle of the electrolytic cell (3), and the liquid extraction ports of the first liquid extraction pipe (5) are respectively located at the front side and the rear side of the electrolytic cell (3).

5. The intelligent processing equipment for producing permanent magnetic circuit breakers according to claim 4 is characterized in that: It also includes a second liquid extraction pipe (201); the first liquid extraction pipe (5) is connected to a plurality of second liquid extraction pipes (201) for preventing bubbles from being mixed into the circuit breaker housing (7), and the second liquid extraction pipes (201) are made of soft material.

6. The intelligent processing equipment for producing permanent magnetic circuit breakers according to claim 5 is characterized in that: It also includes a first guide plate (202); a plurality of circular holes (7001) are provided on the circuit breaker housing (7); and each second liquid extraction tube (201) is rotatably connected to a first guide plate (202) that facilitates air bubbles to separate from the inner surface of the circuit breaker housing (7).

7. The intelligent processing equipment for producing permanent magnetic circuit breakers according to claim 6 is characterized in that: The electrolytic cell (3) further comprises a DD motor (301), a rotating rod (302) and a second baffle (303); a plurality of DD motors (301) are fixedly connected to the upper side of the electrolytic cell (3); a rotating part of each DD motor (301) is fixedly connected to a rotating rod (302); the rotating rod (302) is rotatably connected to the electrolytic cell (3); a second baffle (303) for preventing electrolyte splashing is fixedly connected to each rotating rod (302); each second baffle (303) is fixedly connected to an adjacent second liquid extraction pipe (201), and the second liquid extraction pipe (201) passes through the second baffle (303).

8. The intelligent processing equipment for producing permanent magnetic circuit breakers according to claim 7 is characterized in that: It also includes cone spikes (304); a plurality of cone spikes (304) are fixedly connected to the lower side of each second baffle (303) to prevent bubble accumulation.

9. The intelligent processing equipment for producing permanent magnetic circuit breakers according to claim 8 is characterized in that: The two second baffles (303) are combined to form a V shape.

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