High-frequency heating device for electrolytic manganese cathode plate

Abstract

The utility model relates to a high-frequency heating device for an electrolytic manganese cathode plate, which comprises a circulating conveying mechanism used for circulating conveying of the cathode plate and a heating mechanism used for drying electrolytic manganese on the cathode plate, and the heating mechanism comprises a drying oven fixing frame and a plurality of heating assemblies. The multiple heating assemblies are sequentially installed on the drying oven fixing frame at intervals, each heating assembly comprises a high-frequency induction tube assembly and two symmetrically-arranged insulating plates, the high-frequency induction tube assemblies are installed between the two insulating plates, and the two insulating plates are each provided with a first groove for a negative plate to pass through. And the high-frequency induction tube assembly is provided with a gap for the negative plate to pass through. The high-frequency heating device for the electrolytic manganese cathode plate is high in heating efficiency and good in drying effect.

Description

TECHNICAL FIELD

[0001] The utility model relates to metal manganese processing technical field especially relates to a kind of high-frequency heating device of electrolytic manganese cathode plate. BACKGROUND

[0002] In prior art, usually set up electric heating tube to heat the gas in the oven, so as to heat the electrolytic manganese on the cathode plate in the oven, during drying process, the heated gas is prone to diffusion and other conditions, thus causing drying efficiency is low, drying effect is poor and other problems. SUMMARY

[0003] The utility model solves the technical problem to provide a kind of high-frequency heating device of electrolytic manganese cathode plate, the high-frequency heating device is not only high in heating efficiency and drying effect is good.

[0004] The utility model solves the technical problems employing the technical scheme that a kind of high-frequency heating device of electrolytic manganese cathode plate, including the circulation conveying mechanism for being recycled to the cathode plate and the heating mechanism for being dried to the electrolytic manganese on the cathode plate, the heating mechanism includes oven fixing bracket and several heating components, several heating components are sequentially spaced and installed on oven fixing bracket, the heating component includes high-frequency induction tube component and two symmetrically arranged insulating plates, high-frequency induction tube component is installed between two insulating plates, first recess for the cathode plate to pass through is arranged on two insulating plates, and gap for the cathode plate to pass through is arranged on high-frequency induction tube component.

[0005] In one embodiment, the high-frequency induction tube component of the high-frequency heating device of electrolytic manganese cathode plate includes high-frequency induction tube and two symmetrically arranged fixed plates, the fixed plate is provided with a plurality of installation grooves for installing high-frequency induction tube, high-frequency induction tube is arranged on the plurality of installation grooves of two fixed plates, and the gap is located between two fixed plates, and high-frequency induction tube is used to heat and dry the electrolytic manganese on the cathode plate passing through the gap.

[0006] In one embodiment, the insulating plate of the high-frequency heating device of electrolytic manganese cathode plate is symmetrically provided with two guide mechanisms for guiding the cathode plate away from the high-frequency induction tube component, and a spacing for the cathode plate to pass through is arranged between the two guide mechanisms.

[0007] In one embodiment, the guide mechanism of the high-frequency heating device of electrolytic manganese cathode plate includes a plurality of guide components, and the guide component includes a connecting frame and a roller, and the roller is rotatably installed on the connecting frame.

[0008] In one embodiment, the circulating conveying mechanism of the high-frequency heating device for electrolytic manganese cathode plates includes an annular guide rail, a suspension chain assembly is slidably disposed within the annular guide rail, and several hanging plates for placing cathode plates are disposed at the bottom of the suspension chain assembly.

[0009] In one embodiment, the insulating plate of the electrolytic manganese cathode plate high-frequency heating device is provided with a second groove for the circulation conveying mechanism to pass through, and the second groove is in communication with the first groove.

[0010] The beneficial effects of this application are as follows:

[0011] This application provides a high-frequency heating device for electrolytic manganese cathode plates. This device uses several high-frequency induction tube assemblies to heat and dry the electrolytic manganese on the cathode plate of a circulating conveying mechanism. This high-frequency heating device for electrolytic manganese cathode plates not only significantly improves the drying efficiency of electrolytic manganese but also enhances the drying effect.

[0012] The high-frequency heating device for electrolytic manganese cathode plates uses a circulating conveying mechanism to transport the cathode plates, which improves the conveying efficiency of the cathode plates.

[0013] The high-frequency heating device for electrolytic manganese cathode plates has a guide assembly on the insulating plate, which not only guides the cathode plate but also reduces friction, ensuring the normal transport of the cathode plate. Attached Figure Description

[0014] Figure 1 This is a schematic diagram from one perspective of the high-frequency heating device for the electrolytic manganese cathode plate according to an embodiment of this application;

[0015] Figure 2 This is a schematic diagram from another perspective of the high-frequency heating device for the electrolytic manganese cathode plate, as described in an embodiment of this application.

[0016] Figure 3 This is a schematic diagram of the heating assembly of the high-frequency heating device for the electrolytic manganese cathode plate according to an embodiment of this application;

[0017] Figure 4 This is a schematic diagram of the high-frequency induction tube assembly of the high-frequency heating device for the electrolytic manganese cathode plate according to an embodiment of this application;

[0018] in:

[0019] 1, circulating conveying mechanism; 2, heating mechanism; 3, cathode plate; 11, annular guide rail; 12, hanging chain assembly; 13, hanging plate frame; 21, oven fixing frame; 22, heating assembly; 221, high-frequency induction tube assembly; 222, insulating plate; 223, guide mechanism; 100, high-frequency induction tube; 101, fixing plate; 102, mounting groove; 103, guide assembly; 001, first groove; 002, gap; 003, connecting frame; 004, roller; 005, second groove. DETAILED DESCRIPTION

[0020] In order to make the above-mentioned purposes, features and advantages of the utility model more apparent and easy to understand, the specific embodiments of the utility model will be described in detail below with reference to the drawings.

[0021] As shown in Figure 1 and Figure 2 , the embodiment of the application provides a high-frequency heating device for electrolytic manganese cathode plate, which comprises a circulating conveying mechanism 1 for circulating conveying the cathode plate 3 and a heating mechanism 2 for drying the electrolytic manganese on the cathode plate 3, the heating mechanism 2 comprises an oven fixing frame 21 and a plurality of heating assemblies 22, the plurality of heating assemblies 22 are sequentially and spacedly installed on the oven fixing frame 21, the heating assembly 22 comprises a high-frequency induction tube assembly 221 and two symmetrically arranged insulating plates 222, the high-frequency induction tube assembly 221 is installed between the two insulating plates 222, the two insulating plates 222 are both provided with a first groove 001 for the cathode plate 3 to pass through, and the high-frequency induction tube assembly 221 is provided with a gap 002 for the cathode plate 3 to pass through.

[0022] Specifically, three heating assemblies 22 are sequentially and spacedly arranged on the oven fixing frame 21, and the high-frequency induction tube assembly 221 of the heating assembly 22 is connected with an external high-frequency machine. The circulating conveying mechanism 1 first conveys the cathode plate 3 into the oven fixing frame 21, and then drives the cathode plate 3 to sequentially pass through the first grooves 001 of the insulating plates 222 of the three heating assemblies 22 and the gaps 002 of the high-frequency induction tube assemblies 221, when the cathode plate 3 passes through the gap 002 of the high-frequency induction tube assembly 221, the high-frequency induction tube 100 heats and dries the electrolytic manganese on both sides of the cathode plate 3, the circulating conveying mechanism 1 continues to drive the cathode plate 3 to move to the other two heating assemblies 22, and the high-frequency induction tube assemblies 221 of the two heating assemblies 22 sequentially heat and dry the cathode plate 3. By arranging three heating assemblies 22 on the oven fixing frame 21, the three heating assemblies 22 can also be heated in time sequence, which can prolong the service life of each heating assembly 22.

[0023] In the structure, the electrolytic manganese on the two surfaces of the cathode plate 3 is heated and dried by the high-frequency induction tube assembly 221, which greatly improves the drying efficiency and effect of the electrolytic manganese on the cathode plate 3. The use of multiple heating assemblies 22 at the same time can effectively improve the drying efficiency, and the heating process can be sorted by time period according to the needs, which improves the service life of each heating assembly 22.

[0024] As shown in Figure 3 and Figure 4 In one embodiment, the high-frequency induction tube assembly 221 of the electrolytic manganese cathode plate high-frequency heating device includes a high-frequency induction tube 100 and two symmetrically arranged fixed plates 101, and a plurality of mounting grooves 102 for mounting the high-frequency induction tube 100 are arranged on the fixed plates 101. The high-frequency induction tube 100 is arranged around the mounting grooves 102 of the two fixed plates 101, and the gap 002 is located between the two fixed plates 101. The high-frequency induction tube 100 is used to heat and dry the electrolytic manganese on the cathode plate 3 passing through the gap 002. When the circulating conveying mechanism 1 conveys the cathode plate 3 through the gap 002 between the two fixed plates 101, the high-frequency induction tubes 100 on the two fixed plates 101 heat and dry the electrolytic manganese on both surfaces of the cathode plate 3. This arrangement greatly improves the heating and drying efficiency of the electrolytic manganese on the cathode plate 3, while improving the drying effect.

[0025] As shown in Figure 2 In one embodiment, the one side of the insulating plate 222 of the electrolytic manganese cathode plate high-frequency heating device is symmetrically provided with two guide mechanisms 223 for guiding the cathode plate 3, and a gap is provided between the two guide mechanisms 223 for the cathode plate 3 to pass through. After the cathode plate 3 is heated and dried, the circulating conveying mechanism 1 continues to drive the cathode plate 3 to move backward, and the cathode plate 3 passes between the two guide mechanisms 223, and the guide mechanisms 223 guide the cathode plate 3. This arrangement facilitates the guidance of the cathode plate 3 and avoids the cathode plate 3 being stuck between the high-frequency induction tube assemblies 221.

[0026] As shown in Figure 3 In one embodiment, the guide mechanism 223 of the electrolytic manganese cathode plate high-frequency heating device includes a plurality of guide assemblies 103, and the guide assembly 103 includes a connecting frame 003 and a roller 004, and the roller 004 is rotatably mounted on the connecting frame 003. The guide mechanism 223 includes three guide assemblies 103, and when the cathode plate 3 passes through the three guide assemblies 103, the rollers 004 of the three guide assemblies 103 guide the upper, middle and lower parts of the cathode plate 3, respectively. The arrangement of the roller 004 not only realizes the guiding effect of the cathode plate 3, but also reduces friction and does not affect the normal conveying of the cathode plate 3.

[0027] As shown in Figure 1and Figure 2 As shown in the drawings, in one of the embodiments, the circulating conveying mechanism 1 of the high-frequency heating device for electrolytic manganese cathode plate comprises a ring-shaped guide rail 11, a hanging chain assembly 12 is slidably arranged in the ring-shaped guide rail 11, and a plurality of hanging plate racks 13 for placing the cathode plate 3 are arranged at the bottom of the hanging chain assembly 12. The cathode plate 3 is hung on the hanging plate rack 13, the hanging chain assembly 12 drives the hanging plate rack 13 to slide along the ring-shaped guide rail 11, and the hanging plate rack 13 drives the cathode plate 3 to slide along the ring-shaped guide rail 11. This arrangement facilitates the driving of the cathode plate 3 to slide along the ring-shaped guide rail 11.

[0028] As shown in the drawings, Figure 3 As shown in the drawings, in one of the embodiments, the second groove 005 for the circulating conveying mechanism 1 to pass through is arranged on the insulating plate 222 of the high-frequency heating device for electrolytic manganese cathode plate, and the second groove 005 is in communication with the first groove 001. The part of the circulating conveying mechanism 1 located in the oven passes through the second groove 005. This arrangement facilitates the passing of the circulating conveying mechanism 1.

[0029] The above-mentioned embodiments only express several implementation manners of the utility model, and the description is relatively specific and detailed, but it cannot be understood as the limitation of the scope of the utility model patent. It should be pointed out that for ordinary skilled persons in the art, several modifications and improvements can be made without departing from the concept of the utility model, and these all belong to the protection scope of the utility model. Therefore, the protection scope of the utility model patent should be subject to the appended claims.

Claims

1. A high frequency heating device for electrolytic manganese cathode plate, characterized in that, The application relates to a circulating conveying mechanism (1) for cyclically conveying cathode plates (3) and a heating mechanism (2) for drying electrolytic manganese on the cathode plates (3), wherein the heating mechanism (2) comprises an oven fixing frame (21) and a plurality of heating assemblies (22) which are sequentially and spacedly arranged on the oven fixing frame (21), the heating assembly (22) comprises a high-frequency induction tube assembly (221) and two symmetrically arranged insulation plates (222), the high-frequency induction tube assembly (221) is arranged between the two insulation plates (222), the two insulation plates (222) are provided with first grooves (001) for the cathode plates (3) to pass through, and the high-frequency induction tube assembly (221) is provided with a gap (002) for the cathode plates (3) to pass through.

2. The high frequency heating device for electrolytic manganese cathode plate according to claim 1, characterized in that, The high-frequency induction tube assembly (221) comprises a high-frequency induction tube (100) and two symmetrically arranged fixing plates (101), the fixing plate (101) is provided with a plurality of mounting grooves (102) for mounting the high-frequency induction tube (100), the high-frequency induction tube (100) is arranged around the mounting grooves (102) of the two fixing plates (101), the gap (002) is located between the two fixing plates (101), and the high-frequency induction tube (100) is used for heating and drying the electrolytic manganese on the cathode plates (3) passing through the gap (002).

3. The high frequency heating device for electrolytic manganese cathode plate according to claim 1, characterized in that, The insulation plate (222) is symmetrically provided with two guide mechanisms (223) for guiding the cathode plates (3) on the side away from the high-frequency induction tube assembly (221), and the two guide mechanisms (223) are provided with a spacing for the cathode plates (3) to pass through.

4. The high frequency heating device for electrolytic manganese cathode plate according to claim 3, characterized in that, The guide mechanism (223) comprises a plurality of guide assemblies (103), and the guide assembly (103) comprises a connecting frame (003) and a roller (004), wherein the roller (004) is rotatably arranged on the connecting frame (003).

5. The high frequency heating device for electrolytic manganese cathode plate according to claim 1, characterized in that, The circulating conveying mechanism (1) comprises a ring-shaped guide rail (11), a suspension chain assembly (12) is slidably arranged in the ring-shaped guide rail (11), and the bottom of the suspension chain assembly (12) is provided with a plurality of hanging plate frames (13) for placing the cathode plates (3).

6. The high frequency heating device for electrolytic manganese cathode plate according to claim 1, characterized in that, The insulation plate (222) is provided with a second groove (005) for the circulating conveying mechanism (1) to pass through, and the second groove (005) is communicated with the first groove (001).

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