Control system cooling structure of multipurpose electric boiler

Abstract

The invention discloses a multipurpose electric boiler control system cooling structure which comprises a shell, an electric boiler assembly is arranged in the shell, a cold water input pipe is connected to the electric boiler assembly, a port switching device is arranged at the position of the cold water input pipe, a heat exchange copper plate is arranged at one end of the port switching device, and the heat exchange copper plate is connected to the port switching device. A split-flow cooling water supply pipeline is arranged in the heat exchange copper plate, a heating part in application equipment is installed on the heating assembly installation base to be fixed, at the moment, cold water can conduct heat dissipation treatment on the heating part, a heat dissipation structure does not need to be additionally arranged, materials and resources are saved, meanwhile, the heating part can conduct primary heating treatment on the cold water, and the heat dissipation effect is good. Energy conversion is reasonably achieved, resources are saved, and heat exchange efficiency is improved.

Description

Technical Field

[0001] This invention relates to the structure of electric boilers, and particularly to a cooling structure for the control system of a multi-purpose electric boiler. Background Technology

[0002] Electric boilers can be applied in various fields to exchange heat between cold and hot water, thus heating cold water. When applied to various equipment, some components in the equipment generate heat when they work, such as controllers and other heat-generating components. In this case, a separate heat dissipation structure needs to be designed. Since electric boilers themselves convert cold water into hot water, the problem that needs to be solved is how to utilize the entry of cold water to achieve heat dissipation of components while improving the heat exchange efficiency of cold water.

[0003] Therefore, the existing electric boiler structure needs further improvement. Summary of the Invention

[0004] The purpose of this invention is to provide a cooling structure for the control system of a multi-purpose electric boiler, which can dissipate heat from components when cold water enters and improve the heat exchange effect of cold water.

[0005] To achieve the above objectives, the present invention adopts the following solution:

[0006] A cooling structure for a control system of a multi-purpose electric boiler includes a housing, within which an electric boiler assembly is housed. A cold water inlet pipe is connected to the electric boiler assembly. A cold water pipe is disposed on the housing. A port switching device and a cold water storage tank are sequentially disposed between the cold water pipe and the cold water inlet pipe. A heat exchange copper plate is disposed at one end of the port switching device. A diversion cooling water supply pipe is disposed within the heat exchange copper plate and is connected to the port switching device. A reciprocating interval drive assembly is disposed on the heat exchange copper plate, capable of driving the port switching device to reciprocate left and right at intervals. A heating element mounting base is disposed on the heat exchange copper plate.

[0007] Furthermore, the electric boiler assembly includes an electric boiler body, on which an inlet pipe and a drain pipe are provided. A fully immersed electromagnetic heating assembly is provided inside the electric boiler body. The inlet pipe is connected to the cold water input pipe. A spiral heat exchange tube is provided outside the fully immersed electromagnetic heating assembly. A first drain outlet and a second drain outlet are provided on the electric boiler body. The first drain outlet is used to discharge the sewage inside the fully immersed electromagnetic heating assembly, and the second drain outlet is used to discharge the sewage inside the electric boiler body.

[0008] The spiral heat exchange tube includes an inlet pipe and an outlet pipe disposed on the electric boiler body. The outer wall of the fully immersed electromagnetic heating component is provided with a coil, and the two ends of the coil are respectively connected to the inlet pipe and the outlet pipe.

[0009] Furthermore, the fully immersed electromagnetic heating assembly includes a metal heat exchange cylinder, inside which a spiral electromagnetic heating coil is disposed, and an electrical wire is disposed on the spiral electromagnetic heating coil.

[0010] Furthermore, the port switching device includes a cylindrical valve body, an annular sealing plate is provided on the outer sleeve of the cylindrical valve body, three through holes are provided at intervals on the outer wall of the annular sealing plate, and a water supply hole is provided in the middle of the annular sealing plate. The three through holes are connected to the water supply hole in turn.

[0011] Furthermore, the diversion cooling water supply pipeline includes three cooling water supply pipelines arranged at intervals on the left and right, and the lower ends of the three cooling water supply pipelines are connected to an input main pipe.

[0012] Furthermore, the reciprocating interval drive assembly includes a drive motor disposed on the surface of the heat exchange copper plate, and the output end of the drive motor is provided with

[0013] The device includes a swing rod with a drive shaft at its outer end. A support is located in the middle of the heat exchange copper plate, and a central rotating shaft is located in the middle of the support. A rotating disk is mounted on the central rotating shaft, and four locking slots are evenly distributed on the outer circumference of the rotating disk. The drive shaft rotates once per revolution and engages with one of the locking slots, causing the rotating disk to rotate 90°. A lower circular plate is located on the lower end face of the rotating disk, and an eccentric shaft is mounted on the lower circular plate. A side circular plate is located on one side of the annular closed plate, and a drive rod is mounted on the side circular plate. A straight groove is provided on the drive rod, and the eccentric shaft is movably inserted into the straight groove.

[0014] Furthermore, the heating component mounting base includes a mounting base disposed on the surface of the heat exchange copper plate, and the heat exchange copper plate is provided with multiple heat dissipation fins.

[0015] Furthermore, a cold water storage tank is provided in the middle of the cold water inlet pipe.

[0016] Furthermore, after the rotating disk rotates 90°, it causes the annular sealing plate to rotate by an angle equal to the interval angle between the two through holes.

[0017] Furthermore, a device control panel is provided on the mounting base.

[0018] In summary, the advantages of this invention over the prior art are:

[0019] This invention addresses the shortcomings of existing electric boiler structures. Through its structural design, it offers the following advantages: The heating element in the device is fixed to a heating component mounting base, allowing cold water to dissipate heat from the heating element without requiring a separate heat dissipation structure, thus saving materials and resources. Simultaneously, the heating element provides preliminary heating of the cold water, achieving efficient energy conversion, saving resources, and improving heat exchange efficiency. Furthermore, an internal branch cooling water supply pipe system facilitates water transport, enabling the cold water to undergo branched cooling and heat exchange. The pipes flow alternately, ensuring sufficient heating and cooling time for the cold water within the branching cooling water supply pipes, with multiple channels operating in rotation. Attached Figure Description

[0020] Figure 1 This is the front view of the present invention;

[0021] Figure 2 This is a schematic diagram of the internal structure of the present invention;

[0022] Figure 3 for Figure 2 A magnified view of a portion at point A;

[0023] Figure 4 This is one of the exploded views of the present invention;

[0024] Figure 5 This is the second exploded view of the present invention;

[0025] Figure 6 This is a rear view of the present invention. Detailed Implementation

[0026] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. 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.

[0027] Please see Figure 1-6This invention provides a cooling structure for a control system of a multi-purpose electric boiler, including a housing 1, an electric boiler assembly 2 disposed inside the housing 1, a cold water inlet pipe 3 connected to the electric boiler assembly 2, a cold water pipe 91 disposed on the housing 1, a port switching device 4 and a cold water storage tank 92 disposed sequentially between the cold water pipe 91 and the cold water inlet pipe 3, a heat exchange copper plate 5 disposed at one end of the port switching device 4, a diversion cooling water supply pipe 6 disposed inside the heat exchange copper plate 5, the diversion cooling water supply pipe 6 being connected to the port switching device 4, a reciprocating interval drive assembly 7 disposed on the heat exchange copper plate 5 capable of driving the port switching device 4 to reciprocate left and right at intervals, and a heating element mounting base 8 disposed on the heat exchange copper plate 5;

[0028] Working principle: The cold water inlet pipe 3 contacts the cold water that needs to be heated;

[0029] The cold water inlet pipe 3 is connected to the electric boiler assembly 2. When cold water enters the electric boiler assembly 2, the cold water undergoes heat exchange treatment to heat the cold water.

[0030] The heating element mounting base 8 provided on the heat exchange copper plate 5 enables heat transfer.

[0031] The heating component mounting base 8 can be used to install the corresponding device heating component;

[0032] Before entering the cold water inlet pipe 3, the cold water first enters the distribution cooling water pipe 6. The cold water fills the distribution cooling water pipe 6, increasing the distribution area of ​​the cold water. When the heating element works and generates heat, the heat exchange copper plate 5 also generates heat. At this time, the distribution cooling water pipe 6 provides heat dissipation treatment for the heat exchange copper plate 5 over a larger area.

[0033] During the process, the diversion cooling water supply pipe 6 stores cold water, and multiple channels store cold water. The port switching device 4 enables multiple channels to be connected to the cold water input pipe 3 in turn, that is, to drain water into the cold water input pipe 3 in turn. The purpose of this is to ensure that other channels have enough heat exchange time while also ensuring smooth water flow.

[0034] The reciprocating interval drive component 7 can control the port switching device 4 to complete the rotation at equal angles, followed by an intermittent pause.

[0035] The electric boiler assembly 2 includes an electric boiler body 201, on which a water inlet pipe 202 and a drain pipe 203 are provided. A fully immersed electromagnetic heating assembly 204 is provided inside the electric boiler body 201. The water inlet pipe 202 is connected to the cold water input pipe 3. A spiral heat exchange tube 207 is sleeved on the fully immersed electromagnetic heating assembly 204. The electric boiler body 201 is provided with a first drain port 208 and a second drain port 209. The first drain port 208 is used to discharge the sewage inside the fully immersed electromagnetic heating assembly 204, and the second drain port 209 is used to discharge the sewage inside the electric boiler body 201. Its structure is simple, reasonable and ingenious design, which facilitates the discharge of sewage from the fully immersed electromagnetic heating assembly 204 and the electric boiler body 201, and avoids the residue of dirt inside the fully immersed electromagnetic heating assembly 204 and the electric boiler body 201.

[0036] The spiral heat exchange tube 207 includes an inlet pipe 2071 and an outlet pipe 2072 disposed on the electric boiler body 201. The outer wall of the fully immersed electromagnetic heating assembly 204 is provided with a coil 2073, and the two ends of the coil 2073 are respectively connected to the inlet pipe 2071 and the outlet pipe 2072.

[0037] The fully immersed electromagnetic heating component 204 can increase the heat exchange area, thereby improving the heating efficiency and heat exchange area of ​​the water inside the electric boiler body 201.

[0038] The fully immersed electromagnetic heating assembly 204 of the present invention includes a metal heat exchange cylinder 2041, a spiral electromagnetic heating coil 2052 is provided inside the metal heat exchange cylinder 2041, and an electric wire 2053 is provided on the spiral electromagnetic heating coil 2052.

[0039] When the power supply is connected to the power wire 2053, the spiral electromagnetic heating coil 2052 generates electromagnetic induction and works. At this time, the metal heat exchange cylinder 2041 heats up. The metal heat exchange cylinder 2041 has a cylindrical design, and both its inner and outer walls can contact water to achieve a larger heat exchange area.

[0040] The port switching device 4 of the present invention includes a cylindrical valve body 401, an annular sealing plate 402 is provided on the outer sleeve of the cylindrical valve body 401, three through holes 403 are provided at intervals on the outer wall of the annular sealing plate 402, and a water supply hole 404 is provided in the middle of the annular sealing plate 402. The three through holes 403 are connected to the water supply hole 404 in turn.

[0041] The annular sealing plate 402 can be rotated in both directions. Each time the annular sealing plate 402 rotates, the water inlet 404 can connect to one of the three corresponding through holes 403 and one of the three cooling water pipes 601.

[0042] The diversion cooling water supply pipe 6 of the present invention includes three cooling water supply pipes 601 arranged at intervals on the left and right, and the lower ends of the three cooling water supply pipes 601 are connected by an input main pipe 602.

[0043] The reciprocating interval drive assembly 7 of the present invention includes a drive motor 701 disposed on the surface of the heat exchange copper plate 5, a swing rod 702 disposed at the output end of the drive motor 701, a drive shaft 703 disposed at the outer end of the swing rod 702, a bracket 704 disposed in the middle of the heat exchange copper plate 5, a central rotating shaft 705 disposed in the middle of the bracket 704, a rotating disk 706 disposed on the central rotating shaft 705, and four locking slots 707 evenly distributed on the outer circumference of the rotating disk 706. 703 rotates once a week and cooperates with one of the locking ports 707 to drive the rotating disk 706 to rotate 90°. The lower end face of the rotating disk 706 is provided with a lower circular plate 708, and an eccentric shaft 709 is provided on the lower circular plate 708. A side circular plate 710 is provided on one side of the annular closed plate 402, and a drive rod 711 is provided on the side circular plate 710. A straight groove 712 is provided on the drive rod 711, and the eccentric shaft 709 is movably inserted into the straight groove 712.

[0044] The drive motor 701 rotates continuously, and the drive motor 701 drives the swing rod 702 to rotate continuously. After each rotation, the drive shaft 703 can swing 90° and disengage after cooperating with one of the locking ports 707. When the rotating disk 706 completes 90° rotation, it pauses for a period of time to wait for the swing rod 702 to drive the next rotation.

[0045] At this time, the lower circular plate 708 rotates and rotates 90°, which drives the straight groove 712 to swing left and right through the eccentric shaft 709 rotating 90° per revolution.

[0046] The heating component mounting base 8 of the present invention includes a mounting base 801 disposed on the surface of the heat exchange copper plate 5, and the heat exchange copper plate 5 is provided with a plurality of heat dissipation fins 802.

[0047] The rotating disk 706 of the present invention rotates 90° and then drives the annular closed plate 402 to rotate by an angle equal to the interval angle between the two through holes 403.

[0048] The mounting base 801 of the present invention is provided with a device control panel 200.

[0049] When the electric boiler is used to provide hot water, external cold water enters the electric boiler through the cold water pipe 91. The flowing cold water first conducts the heat generated by the control panel 200 during operation to the heat exchange copper plate 5. The heat on the heat exchange copper plate 5 is conducted to the cold water and heats the flowing cold water. After the flowing cold water is heated, it enters the electric boiler assembly 2 through the cold water storage tank 92. This achieves the purpose of recovering the heat generated by the control panel 200 during operation and making effective use of the heat, and also achieves the purpose of water cooling the control panel 200.

[0050] When an electric boiler is used for heating, the electric boiler assembly 2 and the external underfloor heating pipes form a closed heating loop, preventing external cold water from entering the electric boiler. The heat generated by the control panel 200 during operation is conducted to the heat exchange copper plate 5, which in turn conducts heat to the cold water and heats it. Since the cold water storage tank 92 is located above the heat exchange copper plate 5, the heated water rises, while the cold water in the storage tank 92 falls. This creates a hot and cold water exchange system between the cold water storage tank 92 and the branch cooling water supply pipe 6 at the heat exchange copper plate 5, thus achieving the purpose of water-cooling the control panel 200.

[0051] The foregoing has shown and described the basic principles and main features of the present invention, as well as its advantages. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the present invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A cooling structure for a control system of a multi-purpose electric boiler, comprising a housing (1), wherein an electric boiler assembly (2) is disposed within the housing (1), and a cold water inlet pipe (3) is connected to the electric boiler assembly (2), characterized in that: A cold water pipe (91) is provided on the outer shell (1). A port switching device (4) and a cold water storage tank (92) are arranged sequentially between the cold water pipe (91) and the cold water input pipe (3). A heat exchange copper plate (5) is provided at one end of the port switching device (4). A diversion cooling water supply pipe (6) is provided inside the heat exchange copper plate (5). The diversion cooling water supply pipe (6) is connected to the port switching device (4). A reciprocating interval drive component (7) is provided on the heat exchange copper plate (5) to drive the port switching device (4) to reciprocate left and right and switch at intervals. A heating component mounting base (8) is provided on the heat exchange copper plate (5).

2. The cooling structure of the control system for a multi-purpose electric boiler according to claim 1, characterized in that: The electric boiler assembly (2) includes an electric boiler body (201), on which an inlet pipe (202) and a drain pipe (203) are provided. A fully immersed electromagnetic heating assembly (204) is provided inside the electric boiler body (201). The inlet pipe (202) is connected to the cold water input pipe (3). The fully immersed electromagnetic heating assembly (204) is covered with a spiral heat exchange tube (207). The electric boiler body (201) is provided with a first drain port (208) and a second drain port (209). The first drain port (208) is used to discharge the sewage inside the fully immersed electromagnetic heating assembly (204) to the outside, and the second drain port (209) is used to discharge the sewage inside the electric boiler body (201) to the outside. The spiral heat exchange tube (207) includes an inlet pipe (2071) and an outlet pipe (2072) disposed on the electric boiler body (201). The outer wall of the fully immersed electromagnetic heating assembly (204) is provided with a coil (2073), and the two ends of the coil (2073) are respectively connected to the inlet pipe (2071) and the outlet pipe (2072).

3. The cooling structure of the control system for a multi-purpose electric boiler according to claim 2, characterized in that: The fully immersed electromagnetic heating assembly (204) includes a metal heat exchange cylinder (2041), a spiral electromagnetic heating coil (2052) is provided inside the metal heat exchange cylinder (2041), and a power connection wire (2053) is provided on the spiral electromagnetic heating coil (2052).

4. The cooling structure of the control system for a multi-purpose electric boiler according to claim 3, characterized in that: The port switching device (4) includes a cylindrical valve body (401), which is covered with an annular sealing plate (402). The outer wall of the annular sealing plate (402) is provided with three through holes (403) at intervals. A water supply hole (404) is provided in the middle of the annular sealing plate (402). The three through holes (403) are connected to the water supply hole (404) in turn.

5. The cooling structure of the control system for a multi-purpose electric boiler according to claim 4, characterized in that: The diversion cooling water supply pipe (6) includes three cooling water supply pipes (601) arranged at intervals on the left and right, and the lower ends of the three cooling water supply pipes (601) are connected by an input main pipe (602).

6. The cooling structure of the control system for a multi-purpose electric boiler according to claim 5, characterized in that: The reciprocating interval drive assembly (7) includes a drive motor (701) disposed on the surface of the heat exchange copper plate (5), and the output end of the drive motor (701) is provided with A swing rod (702) is provided, and a drive shaft (703) is provided at the outer end of the swing rod (702). A bracket (704) is provided in the middle of the heat exchange copper plate (5). A central rotating shaft (705) is provided in the middle of the bracket (704). A rotating disk (706) is provided on the central rotating shaft (705). Four locking holes (707) are evenly distributed on the outer circumference of the rotating disk (706). The drive shaft (703) rotates once per revolution and engages with one of the locking holes (707). The rotating disk (706) is rotated 90°. A lower circular plate (708) is provided on the lower end face of the rotating disk (706). An eccentric shaft (709) is provided on the lower circular plate (708). A side circular plate (710) is provided on one side of the annular closed plate (402). A drive rod (711) is provided on the side circular plate (710). A straight groove (712) is provided on the drive rod (711). The eccentric shaft (709) is movably inserted into the straight groove (712).

7. The cooling structure of the control system for a multi-purpose electric boiler according to claim 6, characterized in that: The heating component mounting base (8) includes a mounting base (801) disposed on the surface of the heat exchange copper plate (5), and the heat exchange copper plate (5) is provided with a plurality of heat dissipation fins (802).

8. The cooling structure of the control system for a multi-purpose electric boiler according to any one of claims 1 to 7, characterized in that: The rotating disk (706) rotates 90° and then drives the annular sealing plate (402) to rotate by an angle equal to the interval angle between the two through holes (403).

9. The cooling structure of the control system for a multi-purpose electric boiler according to claim 8, characterized in that: The mounting base (801) is provided with a device control panel (200).

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