Magnetization resonance activation device for boiler water supplement

Abstract

The utility model relates to the technical field of water magnetization resonance, and discloses a magnetization resonance activation device for boiler water supplement, which comprises a shell, the shell forms a tubular structure with two open ends, the two ends of the shell are symmetrically provided with end covers, the wall surfaces of the end covers are provided with water outlets, and a storage structure for loading a ceramic unit is detachably connected in a cavity of the shell. The storage structure comprises inner containers and a sealing cover, the sealing cover and the inner containers are locked through bolts to form a storage cavity, a common body formed by the multiple inner containers and the sealing cover is placed in a shell cavity, the inner container cavities are filled with ceramic units, namely, the cavity of the shell is filled with the ceramic units to be divided into cavities filled with the multiple inner containers. The filling of the ceramic material is more convenient and faster, the compactness is higher, after the cavity of the inner container is filled with the ceramic unit, the sealing cover and the inner container are fastened through the bolt to seal the opening of the inner container, the inner container is placed in the cavity of the shell, the filling step is optimized, and meanwhile, a magnetizing rod is convenient to place.

Description

Technical Field

[0001] The utility model belongs to the technical field of water magnetization resonance, and in particular relates to a magnetization resonance activation device for boiler water replenishment. Background Art

[0002] The prior art discloses a magnetic resonance device for drinking water (CN201320674399.2), which comprises a shell, a magnetizing device arranged in the shell, and an induction layer filled between the shell and the magnetizing device. The magnetizing device comprises a hollow tube body, in which a plurality of permanent magnets arranged at intervals are arranged, and the magnetic properties of the facing ends of two adjacent permanent magnets are different;

[0003] The prior art achieves magnetization and activation of water by filling a ceramic unit in a shell, wherein the escape unit buries the magnet. The ceramic unit is directly filled in the shell. Since the shell has a certain length, half of it is filled lying down during filling. That is, the shell is placed horizontally on the ground, and the ceramic unit is placed from the opening into the shell chamber. This also causes the ceramic unit to slide and collapse during the filling process, affecting the filling. The shell is placed vertically for filling, and its height prevents it from occupying a certain space. At the same time, the vertical fall of the ceramic unit may be damaged due to excessive speed.

[0004] In view of this, the present utility model is proposed. Utility Model Content

[0005] In order to solve the above technical problems, the basic concept of the technical solution adopted by the utility model is:

[0006] A magnetization resonance activation device for boiler water replenishment comprises an outer shell, wherein the outer shell forms a tubular structure with openings at both ends, end covers are symmetrically arranged at both ends of the outer shell, and a drain port is provided on the wall surface of the end cover, a storage structure for loading a ceramic unit is detachably connected to the cavity of the outer shell, the storage structure comprises an inner shell and a sealing cover, the sealing cover is locked with the inner shell by bolts to form a storage cavity, the ceramic unit is loaded in the storage cavity, a plurality of storage structures are arranged at the head and tail of the outer shell cavity to fill the outer shell cavity, a flow diversion component for guiding and magnetizing water is provided in the inner shell, the flow diversion component comprises a guide body and a magnet, a plurality of magnets are symmetrically installed on the inner wall of the inner shell, the guide body is fixedly connected to a limiting portion, the guide body can guide the water in the inner shell to form a spiral flow trajectory and be magnetized by the magnet, a plurality of slots are provided on the inner wall of the inner shell, and the magnets are fixedly installed in the corresponding slots.

[0007] As a preferred embodiment of the present utility model, the storage structure further includes a connecting hole and a limiting portion, a plurality of connecting holes are provided on the wall surface of the sealing cover, and the limiting portion is fixedly connected to the inner container.

[0008] As a preferred embodiment of the utility model, the inner liner forms a cylindrical structure with a bottom, the inner liner is adapted to the chamber of the outer shell, a threaded hole is provided on the end face of the opening of the inner liner, a plurality of through holes are provided on the wall surface of the sealing cover, and bolts pass through the through holes and are connected to the threaded holes to press the sealing cover tightly against the opening of the inner liner.

[0009] As a preferred embodiment of the utility model, the sealing cover is formed into an annular plate, and a plurality of communication holes are provided on the end surface of the sealing cover in an annular array, and a plurality of identical communication holes are provided on the end surface of the inner container accordingly.

[0010] As a preferred embodiment of the present invention, the limiting portion forms a tubular structure, the limiting portion is fixedly connected to the inner end surface of the inner container, and the limiting portion faces the central hole of the sealing cover.

[0011] As a preferred embodiment of the present utility model, the storage structure further includes a protrusion fixedly connected to the inner container, and the inner container is plugged into the outer shell via the protrusion.

[0012] As a preferred embodiment of the utility model, the protrusion forms a semi-cylindrical structure, at least two protrusions are symmetrically arranged on the outer circumference of the inner shell, and the inner wall surface of the shell is provided with a slot adapted to the protrusion, and the protrusion is inserted into the slot to limit the inner shell.

[0013] Compared with the prior art, the utility model has the following beneficial effects:

[0014] 1. The community formed by multiple inner tanks and sealing covers is placed in the outer shell cavity, and the ceramic unit is filled in the inner tank cavity, that is, the work of filling the outer shell cavity with the ceramic unit is divided into chambers for filling multiple inner tanks. It is more convenient to fill the ceramic material and the compactness is higher. There is no need to place the outer shell vertically for filling. After the ceramic unit is filled in the inner tank cavity, the sealing cover and the inner tank are fastened with bolts to achieve sealing of the inner tank opening, and the inner tank is placed in the outer shell cavity, which optimizes the filling steps and facilitates the placement of the magnetizing rod. By setting a spiral guide body, when water flows through the inner tank chamber, the water is guided by the guide body to form a spiral flow trajectory, and the two magnets in symmetrical positions have opposite poles, that is, the N pole and the S pole are relatively arranged, so that the water is magnetized by multiple magnets during the flow process to ensure the magnetization effect, and the slot is arranged to facilitate the installation of the magnet. The magnet can be installed by inserting the magnet into the slot, which is convenient for later maintenance and disassembly.

[0015] 2. By setting the limiting part, after the inner tank with the ceramic unit is placed in the outer shell cavity, the magnetizing rod can be installed by passing it through the center hole of the sealing cover and inserting it into the limiting part. The installation of the ceramic rod is more accurate. Compared with the method of burying the magnetizing rod with the ceramic unit, the position of the magnetizing rod after installation is more stable and not easy to shift, thereby ensuring the magnetization effect.

[0016] 3. By pushing the inner liner into the outer shell cavity, aligning the protrusion with the corresponding slot and pushing it in, the inner liner keeps sliding into the outer shell along the radial direction of the outer shell. After the inner liner is installed, the stability is high and the inner liner will not rotate in the outer shell cavity.

[0017] The specific implementation of the utility model is further described in detail below with reference to the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In the attached picture:

[0019] Figure 1 It is a three-dimensional diagram of the utility model;

[0020] Figure 2 This is a schematic diagram of the installation of the inner tank and the shell of the utility model;

[0021] Figure 3 This is the assembly diagram of the sealing cover and the inner liner of the utility model;

[0022] Figure 4 This is a schematic diagram of the installation of the protrusion and the housing of the utility model;

[0023] Figure 5 This is a schematic diagram of the installation of the guide plate, magnet and inner tank;

[0024] Figure 6 Schematic diagram of opening a slot for the inner tank.

[0025] In the figure: 10, outer shell; 11, end cover; 20, liner; 21, sealing cover; 22, connecting hole; 23, limiting part; 24, protrusion; 30, guide plate; 31, magnet; 32, slot. DETAILED DESCRIPTION

[0026] In order to make the purpose, technical scheme and advantages of the embodiments of the utility model clearer, the technical scheme in the embodiments will be clearly and completely described below in conjunction with the drawings in the embodiments of the utility model. The following embodiments are used to illustrate the utility model.

[0027] A magnetic resonance activation device for boiler water replenishment, such as Figure 1As shown, it includes a shell 10, and the shell 10 forms a tubular structure with two ends opened. The two ends of the shell 10 are symmetrically provided with end caps 11, and the wall surface of the end caps 11 is provided with a drain port. The cavity of the shell 10 is filled with a ceramic unit, which is a far-infrared ceramic unit. The center of the shell 10 is provided with a magnetizing rod, that is, the ceramic unit surrounds the magnetizing rod, and the magnetizing rod is a neodymium iron boron magnet. The infrared ceramic unit emits a wavelength of 5.6μm to 15μm and induces the π wave ceramic unit of divalent and trivalent iron ions in a high energy state, so that the protons, electrons, and neutrons in the iron nucleus release electromagnetic energy at a high frequency per second, and the resonance and resonance are generated by the pulsation of the permanent magnet of the magnetization device, and the macromolecular group of water flowing through the tube body can be cut by the magnetic field to realize the magnetization and resonance activation treatment of the water. This is an existing well-known technology and will not be described here.

[0028] like Figure 2 and Figure 3 As shown, a storage structure for loading ceramic units is detachably connected to the cavity of the shell 10, and the storage structure includes an inner liner 20 and a sealing cover 21. The sealing cover 21 is locked with the inner liner 20 by bolts to form a storage cavity, and the ceramic unit is loaded in the storage cavity. Several storage structures are arranged at the head and tail of the cavity of the shell 10 to fill the cavity of the shell 10. The storage structure also includes a connecting hole 22 and a limiting portion 23. Several connecting holes 22 are provided on the wall of the sealing cover 21, and the limiting portion 23 is fixedly connected to the inner liner 20. The inner liner 20 forms a cylindrical structure with a bottom, and the inner liner 20 is adapted to the cavity of the shell 10. A threaded hole is provided on the end face of the opening of the inner liner 20, and several through holes are provided on the wall of the sealing cover 21. Bolts pass through the through holes and are connected with the threaded holes to press the sealing cover 21 at the opening of the inner liner 20, and the sealing cover 21 forms an annular plate, which is sealed. The end face of the cover 21 is provided with a plurality of connecting holes 22 in a circular array, and the end face of the inner liner 20 is provided with a plurality of identical connecting holes 22 correspondingly. The limiting portion 23 forms a tubular structure, and the limiting portion 23 is fixedly connected to the inner end face of the inner liner 20. The limiting portion 23 is opposite to the center hole of the sealing cover 21. In this scheme, a community formed by a plurality of inner liners 20 and a sealing cover 21 is placed in the cavity of the outer shell 10, and a ceramic unit is filled in the cavity of the inner liner 20, that is, the work of filling the cavity of the outer shell 10 with the ceramic unit is divided into cavities for filling a plurality of inner liners 20, which makes it more convenient to fill the ceramic material and has a higher compactness. After the ceramic unit is filled in the cavity of the inner liner 20, the sealing cover 21 is fastened to the inner liner 20 with bolts to achieve sealing of the opening of the inner liner 20, and the inner liner 20 is placed in the cavity of the outer shell 10, thereby optimizing the filling steps and facilitating the placement of the magnetized rod.

[0029] like Figure 5 and Figure 6As shown, the inner tank 20 is provided with a shunt component for guiding and magnetizing water, and the shunt component includes a guide body 30 and a magnet 31. A plurality of magnets 31 are symmetrically installed on the inner wall of the inner tank 20, and the guide body 30 is fixedly connected to the limit portion 23. The guide body 30 can guide the water in the inner tank 20 to form a spiral flow trajectory and be magnetized by the magnet 31. A plurality of slots 32 are provided on the inner wall of the inner tank 20, and the magnets 31 are fixedly installed in the corresponding slots 32. By setting the spiral guide body 30, when water flows through the chamber of the inner tank 20, the water forms a spiral flow trajectory through the guidance of the guide body 30, and the two magnets 31 in symmetrical positions have opposite poles, that is, the N pole and the S pole are relatively arranged, so that the water is magnetized by multiple magnets 31 during the flow process, thereby ensuring the magnetization effect, and the slot 32 can facilitate the installation of the magnet 31, and the magnet 31 can be installed by inserting the magnet 31 into the slot 32, which is convenient for later maintenance and disassembly.

[0030] By setting the limiting portion 23, after the inner liner 20 containing the ceramic unit is placed in the cavity of the outer shell 10, the magnetizing rod can be installed by passing it through the center hole of the sealing cover 21 and inserting it into the limiting portion 23. The installation of the ceramic rod is more precise. Compared with the method of burying the magnetizing rod with the ceramic unit, the position of the magnetizing rod after installation is more stable and not easy to shift, thereby ensuring the magnetization effect.

[0031] like Figure 4 As shown, the storage structure also includes a protrusion 24 fixedly connected to the inner liner 20. The inner liner 20 is plugged into the outer shell 10 through the protrusion 24. The protrusion 24 forms a semi-cylindrical structure. At least two protrusions 24 are symmetrically arranged on the outer circumference of the inner liner 20. The inner wall surface of the outer shell 10 is provided with a slot adapted to the protrusion 24. The protrusion 24 is inserted into the slot to limit the inner liner 20. By pushing the inner liner 20 into the cavity of the outer shell 10, the protrusion 24 is aligned with the corresponding slot and pushed in, so that the inner liner 20 keeps sliding radially along the outer shell 10 into the outer shell 10. After the inner liner 20 is installed, the stability is high and the inner liner 20 will not rotate in the cavity of the outer shell 10.

[0032] Working principle: Loosen the bolts of the end cover 11 to open the opening of the shell 10, fill the ceramic unit in the cavity of the inner liner 20, use the bolts to fasten the sealing cover 21 and the inner liner 20 to seal the opening of the inner liner 20, push the inner liner 20 into the cavity of the outer shell 10, align the protrusion 24 with the corresponding slot and push it in, so that the inner liner 20 keeps sliding radially along the outer shell 10 into the outer shell 10, and repeat this process until multiple inner liner 20 fills the cavity of the shell 10. Pass the magnetizing rod through the center hole of the sealing cover 21 and insert it into the limit part 23 to install the magnetizing rod, and then lock the end cover 11. Water is sent into the cavity of the shell 10 from the water inlet through the pipeline and keeps flowing radially. Water enters the cavity of the inner liner 20 from multiple connecting holes 22 and is activated by the ceramic unit, and is magnetized by the magnetizing rod at the same time, thereby completing the water treatment.

[0033] It is understood that the present invention is described by some embodiments, and those skilled in the art are aware that various changes or equivalent substitutions may be made to these features and embodiments without departing from the spirit and scope of the present invention. In addition, under the teachings of the present invention, these features and embodiments may be modified to adapt to specific circumstances and materials without departing from the spirit and scope of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed herein, and all embodiments falling within the scope of the claims of this application are within the scope of protection of the present invention.

Claims

1. A magnetic resonance activation device for boiler water replenishment, comprising a housing (10), the housing (10) forming a tubular structure with two ends open, end covers (11) symmetrically arranged at both ends of the housing (10), and a drainage port being provided on the wall surface of the end cover (11), characterized in that: A storage structure for loading ceramic units is detachably connected in the cavity of the shell (10), the storage structure comprising an inner liner (20) and a sealing cover (21), the sealing cover (21) being locked with the inner liner (20) by bolts to form a storage cavity, the ceramic unit being loaded in the storage cavity, a plurality of storage structures being arranged at the head and tail of the cavity of the shell (10) to fill the cavity of the shell (10), a flow diversion component for guiding and magnetizing water is arranged in the inner liner (20), the flow diversion component comprising a guide body (30) and a magnet (31), a plurality of magnets (31) are symmetrically mounted on the inner wall of the inner liner (20), the guide body (30) is fixedly connected to the limiting portion (23), the guide body (30) can guide the water in the inner liner (20) to form a spiral flow trajectory and be magnetized by the magnet (31), a plurality of slots (32) are arranged on the inner wall of the inner liner (20), and the magnets (31) are fixedly mounted in corresponding slots (32).

2. The magnetic resonance activation device for boiler water replenishment according to claim 1, characterized in that: The storage structure further comprises a communication hole (22) and a limiting portion (23); a plurality of communication holes (22) are provided on the wall surface of the sealing cover (21); and the limiting portion (23) is fixedly connected to the inner container (20).

3. The magnetic resonance activation device for boiler water replenishment according to claim 1, characterized in that: The inner liner (20) forms a cylindrical structure with a bottom, and the inner liner (20) is adapted to the chamber of the outer shell (10). A threaded hole is provided on the end surface of the opening of the inner liner (20), and a plurality of through holes are provided on the wall surface of the sealing cover (21). Bolts pass through the through holes and are connected to the threaded holes to press the sealing cover (21) tightly against the opening of the inner liner (20).

4. The magnetic resonance activation device for boiler water replenishment according to claim 2, characterized in that: The sealing cover (21) is formed into an annular plate, and a plurality of communication holes (22) are provided on the end surface of the sealing cover (21) in an annular array, and a plurality of identical communication holes (22) are provided on the end surface of the inner container (20) accordingly.

5. The magnetic resonance activation device for boiler water replenishment according to claim 2, characterized in that: The limiting portion (23) forms a tubular structure, the limiting portion (23) is fixedly connected to the inner end surface of the inner container (20), and the limiting portion (23) faces the central hole of the sealing cover (21).

6. The magnetic resonance activation device for boiler water replenishment according to claim 1, characterized in that: The storage structure also includes a protrusion (24) fixedly connected to the inner container (20), and the inner container (20) is plugged into the outer shell (10) via the protrusion (24).

7. The magnetic resonance activation device for boiler water replenishment according to claim 6, characterized in that: The protrusions (24) form a semi-cylindrical structure, at least two protrusions (24) are symmetrically arranged on the outer circumference of the inner container (20), and a slot adapted to fit the protrusions (24) is provided on the inner wall surface of the outer shell (10), and the protrusions (24) are inserted into the slots to limit the inner container (20).

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