Double-layer plate type pet magnetotherapeutic treatment device

Abstract

The utility model discloses a double -deck board formula pet magnetic heat therapy treatment device, include: host computer, including bearing table, support, and support sets up on bearing table, coil subassembly, including first treatment board, second treatment board, first treatment board sets up in support, second treatment board sets up in bearing table, and the orthographic projection of first treatment board, second treatment board on the vertical surface of first direction at least partially overlaps and forms the inductive area, sliding plate, set up in the side of second treatment board to first treatment board, and sliding plate extends along first direction and protrudes in the both ends of second treatment board, and be used to carry the treatment object of focus part has implanted magnetic medium to produce the alternating magnetic field in inductive area. The present application passes through setting up bearing table, coil subassembly and sliding plate, and when the current is passed into coil subassembly, make the focus part of treatment object produce alternating magnetic field in cavity, carry out magnetic heat therapy to treatment object, and the simple structure of the present application, convenient installation make operation more convenient.

Description

Technical Field

[0001] This utility model belongs to the field of electromagnetic induction technology, and specifically relates to a double-layer plate type pet magnetic heat therapy device. Background Technology

[0002] In the field of veterinary clinical oncology treatment, traditional methods such as surgical resection, radiotherapy, and chemotherapy all have significant limitations. Magnetic Hyperthermia Therapy (MHT) has gradually gained attention due to its minimally invasive and targeted advantages, offering benefits such as unlimited depth, precise targeting, and repeatable treatments. However, it also has the following inherent drawbacks: the lack of an operating table or an inappropriately designed operating table makes the treatment device unsuitable for veterinary clinical applications; complex mechanical structure, high energy consumption, and large equipment footprint; and a lack of modular mechanical design, requiring integration with distributed magnetic field generation technology.

[0003] In conclusion, further improvements are needed for pet magnetic thermotherapy devices. Developing a more rationally designed, effective, and easily controllable magnetic induction tumor treatment technology solution is a technical problem that urgently needs to be solved by those skilled in the art. Utility Model Content

[0004] To address the aforementioned issues, the primary objective of this invention is to provide a double-layer plate-type pet magnetic thermotherapy device, which solves the technical problems of current devices having complex mechanical structures, being unsuitable for clinical applications in pets, and lacking a reasonable combination of mechanical design and magnetic field distribution generation technology.

[0005] To achieve the above objectives, the technical solution of this utility model is as follows:

[0006] This utility model provides a double-layer plate-type pet magnetic heat therapy device, comprising:

[0007] The host includes a support platform and a bracket, wherein the bracket is disposed on the support platform;

[0008] The coil assembly includes a first treatment plate and a second treatment plate. The first treatment plate is disposed on the support, and the second treatment plate is disposed on the support platform. The orthographic projections of the first treatment plate and the second treatment plate on the vertical plane in a first direction at least partially overlap to form a sensing area.

[0009] A sliding plate is disposed on the side of the second treatment plate facing the first treatment plate. The sliding plate extends along the first direction and protrudes from both ends of the second treatment plate, and is used to support the treatment object on which a magnetic medium has been implanted at the lesion site to generate an alternating magnetic field in the sensing area.

[0010] This utility model discloses a double-layer plate-type pet magnetic thermotherapy device. A first treatment plate is mounted on a support, and a second treatment plate is mounted on a support platform. The orthographic projections of the first and second treatment plates on a vertical plane in a first direction at least partially overlap to form a sensing area, enabling the treatment object with an implanted magnetic medium in the lesion to generate an alternating magnetic field within the sensing area. A sliding plate is positioned on the side of the second treatment plate facing the first treatment plate and used to support the treatment object with the implanted magnetic medium in the lesion. The sliding plate extends along the first direction and protrudes from both ends of the second treatment plate. When the treatment object with the implanted magnetic medium passes through the alternating magnetic field, an electric current is passed through the first or second treatment plate to generate an alternating magnetic field at the lesion site of the treatment object for magnetic thermotherapy.

[0011] Furthermore, the first treatment plate has a plurality of first magnetic blocks on the side facing the second treatment plate; the second treatment plate has a plurality of second magnetic blocks on the side facing the first treatment plate; the first and second magnetic blocks are aligned along a third direction; either the first or second magnetic blocks are spaced apart along the first direction; either the first or second magnetic blocks are spaced apart along a second direction. By aligning the first and second magnetic blocks in the third direction, the sensing area can be maximized. The relative positions of the first and second magnetic blocks increase the structural design diversity of the first and second coil assemblies, and more embodiments can be adapted to the different needs of treatment subjects in the market, such as being more suitable for treatment subjects of different varieties, body types, or different degrees of magnetothermal therapy.

[0012] Furthermore, along the first direction, a first spacing is formed between adjacent first magnetically conductive blocks, and a third spacing is formed between adjacent second magnetically conductive blocks; along the second direction, a second spacing is formed between adjacent first magnetically conductive blocks, and a fourth spacing is formed between adjacent second magnetically conductive blocks; the first spacing, the second spacing, the third spacing, and the fourth spacing are all fixed values; the first spacing is equal to the second spacing; the third spacing is equal to the fourth spacing. By setting the values ​​of the first spacing, the second spacing, the third spacing, and the fourth spacing, the structural design of the first coil assembly and the second coil assembly is simplified, and the first treatment plate and the second treatment plate can generate a more stable alternating magnetic field range when current is applied, thereby achieving a better magnetic thermotherapy treatment effect on the patient.

[0013] Furthermore, it also includes: a cooling assembly, respectively disposed on the side of the first treatment plate and the second treatment plate opposite to each other; the cooling assembly is in contact with the surface of the first treatment plate opposite to the second treatment plate; the cooling assembly is in contact with the surface of the second treatment plate opposite to the first treatment plate. By the cooling assembly being in contact with the first treatment plate or the second treatment plate, the first treatment plate or the second treatment plate is sufficiently cooled by the cooling assembly, thereby reducing the heat loss of the first coil assembly or the second coil assembly.

[0014] Further, the cooling assembly includes: a receiving frame, comprising a base plate, a side plate protruding around the edge of the base plate, and a connecting plate, the side plate and the base plate forming a receiving cavity, the connecting plate being disposed on the side of the side plate away from the receiving cavity and connected to the first treatment plate or the second treatment plate; a mold, disposed within the receiving cavity, the mold having a return groove on the side opposite to the base plate; and a cooling element adapted to the return groove. By setting the cooling element, mold, receiving frame, and connecting plate, the base plate, mold, cooling element, and first treatment plate are sequentially stacked, or the base plate, mold, cooling element, and second treatment plate are sequentially stacked, and the first treatment plate, cooling element, and mold are sequentially adapted to the receiving cavity, or the second treatment plate, cooling element, and mold are sequentially adapted to the receiving cavity, and the connecting plate connects the receiving frame to the first treatment plate or the second treatment plate, thereby maximizing the cooling effect by allowing the cooling element to cool the first treatment plate or the second treatment plate with the maximum contact area.

[0015] Furthermore, the cooling assembly further includes: a first guide member disposed on the side plate, one end extending to the outside of the receiving frame, and the other end connecting the receiving cavity and the cooling component; and a second guide member, one end connected to the mold, and the other end penetrating the side plate and extending outside the receiving frame. The cooling component is connected and led to the outside of the receiving frame through the first guide member, so as to facilitate the connection of the first guide member to an external cold source or disconnection from the cold source. The mold is installed in the receiving frame through the second guide member.

[0016] Furthermore, the host also includes a control component electrically connected to the sliding plate. The control component is used to drive the sliding plate relative to the support platform in terms of movement direction, displacement, or speed. When the double-layer plate pet magnetic thermotherapy device needs to operate, the control component first controls the sliding plate to move along a first direction toward the end away from the sensing area. The treatment object with the magnetic medium implanted in the lesion is placed on the sliding plate. The control component then controls the sliding plate to move toward the end closer to the sensing area. The treatment object with the magnetic medium implanted in the lesion moves into the sensing area, thereby generating an alternating magnetic field in the sensing area for magnetic thermotherapy when the first coil assembly or the second coil assembly provides alternating current.

[0017] Furthermore, it also includes a lifting assembly, which is disposed between the cooling assembly on the side away from the first treatment plate and the support, or the lifting assembly is disposed between the cooling assembly on the side away from the second treatment plate and the support platform;

[0018] The control component is connected to the lifting component. The control component controls the lifting component to move the cooling mechanism and the first treatment plate, and also controls the lifting component to move the cooling component and the second treatment plate. By controlling the lifting component to move the first treatment plate closer to the second treatment plate, or by controlling the lifting component to move the second treatment plate closer to the first treatment plate, the height of the sensing area decreases, the generated magnetic field strengthens, and thus increases the magnetic heat therapy effect. Conversely, by controlling the lifting component to move the first treatment plate away from the second treatment plate, or by controlling the lifting component to move the second treatment plate away from the first treatment plate, the height of the sensing area increases, the generated magnetic field weakens, and thus decreases the magnetic heat therapy effect.

[0019] Furthermore, the control component is connected to the cooling component and is used to control the cooling component to provide a cold source to the first treatment plate or the second treatment plate, or to stop providing a cold source. By having the cooling component in contact with the first treatment plate or the second treatment plate, the cooling component can effectively cool the first treatment plate or the second treatment plate, thereby reducing heat loss from the first treatment plate or the second treatment plate. Furthermore, the control component is connected to the cooling component and is used to control the cooling component to provide a cold source to the first treatment plate or the second treatment plate, or to stop providing a cold source.

[0020] Furthermore, the host also includes:

[0021] A power supply assembly is disposed on the support platform. The first treatment plate and / or the second treatment plate are connected to the power supply assembly and are used to provide alternating current to the first treatment plate and / or the second treatment plate. The control assembly is electrically connected to the power supply assembly and is used to control the intensity or frequency of the alternating current.

[0022] Furthermore, the sliding plate includes a first plate and a second plate that are fitted together. The second plate is disposed on the side of the first plate near the support platform. The two ends of the first plate protrude along the first direction and are respectively disposed on the two ends of the second plate. The second plate is connected to the side of the second treatment plate near the first treatment plate.

[0023] The beneficial effects of this utility model are as follows: Compared with the prior art, this application sets a first treatment plate on a support and a second treatment plate on a support platform. The orthographic projections of the first and second treatment plates on the vertical plane in the first direction at least partially overlap to form a sensing area, so that the treatment object with the magnetic medium implanted in the lesion site can generate an alternating magnetic field in the sensing area. By setting a sliding plate on the side of the second treatment plate facing the first treatment plate and using it to support the treatment object with the magnetic medium implanted in the lesion site, the sliding plate extends along the first direction and protrudes from both ends of the second treatment plate. When the treatment object with the magnetic medium implanted in the lesion site passes through the alternating magnetic field, an electric current is passed through the first or second treatment plate to generate an alternating magnetic field in the lesion site of the treatment object, thereby performing magnetothermal therapy on the treatment object. At the same time, the structure of this application is simple and easy to install, making the operation more convenient. Attached Figure Description

[0024] Figure 1 This is a three-dimensional schematic diagram of a double-layered plate-type pet magnetic thermotherapy device.

[0025] Figure 2 This is an exploded view of a double-layered plate-type pet magnetic thermotherapy device.

[0026] Figure 3 yes Figure 3 A partial exploded view of the first treatment plate and cooling components.

[0027] Figure 4 yes Figure 3 A partial exploded view of the second treatment plate and cooling components.

[0028] In the diagram: 10. Main unit; 11. Support platform; 12. Bracket; 13. First coil assembly; 131. First treatment plate; 132. First magnetic guide block; 14. Second coil assembly; 141. Second treatment plate; 142. Second magnetic guide block; 15. Cooling assembly; 151. Receiving frame; 152. Side plate; 153. Base plate; 154. Receiving cavity; 155. Connecting plate; 156. Mold; 157. Return groove; 158. Cooling component; 159. First guide component; 150. Second guide component; 16. Lifting assembly; 17. Control assembly; 18. Power supply assembly; 20. Sliding plate; 21. First plate body; 22. Second plate body. Detailed Implementation

[0029] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.

[0030] To achieve the above objectives, the technical solution of this utility model is as follows:

[0031] See Figures 1-4 As shown, this embodiment provides a double-layer plate type pet magnetic thermotherapy device, including: a main unit 10, including a support platform 11 and a bracket 12, the bracket 12 being disposed on the support platform 11; a first coil assembly 13, disposed on the bracket 12; and a second coil assembly 14, disposed on the support platform 11; the first coil assembly 13 includes a first treatment plate 131; the second coil assembly 14 includes a second treatment plate 141; the orthographic projections of the first treatment plate 131 and the second treatment plate 141 on the vertical plane in the first direction at least partially overlap to form a sensing area, used to generate an alternating magnetic field in the sensing area for the treatment object with a magnetic medium implanted in the lesion site;

[0032] The sliding plate 20 is disposed on the side of the second treatment plate 141 facing the first treatment plate 131 and is used to support the treatment object on which the magnetic medium has been implanted at the lesion site. The sliding plate 20 extends along a first direction and protrudes from both ends of the second treatment plate 141; wherein, the first direction is the longitudinal direction of the sliding plate 20.

[0033] This utility model discloses a double-layer plate-type pet magnetic thermotherapy device. A first treatment plate 131 is mounted on a support 12, and a second treatment plate 141 is mounted on a support platform 11. The orthographic projections of the first treatment plate 131 and the second treatment plate 141 on the vertical plane in a first direction at least partially overlap to form a sensing area. This allows the treatment subject with an implanted magnetic medium in the lesion area to generate an alternating magnetic field within the sensing area. A sliding plate 20 is positioned on the side of the second treatment plate 141 facing the first treatment plate 131 and is used to support the treatment subject with an implanted magnetic medium in the lesion area. The sliding plate 20 extends along the first direction and protrudes from both ends of the second treatment plate 141. When the treatment subject with an implanted magnetic medium in the lesion area passes through the sensing area, an electric current is passed through the first treatment plate 131 or the second treatment plate 141 to generate an alternating magnetic field at the lesion area of ​​the treatment subject for magnetic thermotherapy.

[0034] Furthermore, the first treatment plate 131 is provided with a plurality of first magnetic blocks 132 on the side facing the second treatment plate 141, and the second treatment plate 141 is provided with a plurality of second magnetic blocks 142 on the side facing the first treatment plate 131.

[0035] Furthermore, along a third direction, the first magnetic block 132 and the second magnetic block 142 are aligned; wherein, the third direction is the direction in which the second treatment plate 141 points to the first treatment plate 131. By aligning the first magnetic block 132 and the second magnetic block 142 in the third direction, the sensing area can be maximized.

[0036] Furthermore, either the first magnetically conductive block 132 or the second magnetically conductive block 142 is arranged at intervals along a first direction, and either the first magnetically conductive block 132 or the second magnetically conductive block 142 is arranged at intervals along a second direction; wherein, any two of the second direction, the third direction, and the first direction intersect perpendicularly. By setting the relative positions of the first magnetically conductive block 132 and the second magnetically conductive block 142, the structural design diversity of the first coil assembly 13 and the second coil assembly 14 is increased, and more embodiments can be applied to meet the different needs of treatment subjects in the market, such as being more suitable for treatment subjects of different varieties, different body types, or different degrees of magnetothermal therapy.

[0037] Furthermore, a first gap is formed between adjacent first magnetically conductive blocks 132 along the first direction; a second gap is formed between adjacent first magnetically conductive blocks 132 along the second direction; a third gap is formed between adjacent second magnetically conductive blocks 142 along the first direction; and a fourth gap is formed between adjacent second magnetically conductive blocks 142 along the second direction. By setting the first, second, third, and fourth gaps, the first coil assembly 13 and the second coil assembly 14 can generate a more stable alternating magnetic field range when current is applied, thereby achieving a better magnetic thermotherapy effect on the treatment subject.

[0038] Furthermore, the first spacing, the second spacing, the third spacing, and the fourth spacing are all constant values.

[0039] Furthermore, the first spacing is equal to the second spacing; the third spacing is equal to the fourth spacing. By setting the values ​​of the first spacing, the second spacing, the third spacing, and the fourth spacing, the structural design of the first coil assembly 13 and the second coil assembly 14 is simplified.

[0040] Furthermore, the double-layer plate-type pet magnetic thermotherapy device of this utility model also includes: cooling components 15, respectively disposed on the opposite sides of the first treatment plate 131 and the second treatment plate 141; one set of cooling components 15 contacts the surface of the first treatment plate 131 opposite to the surface of the second treatment plate 141; the other set of cooling components 15 contacts the surface of the second treatment plate 141 opposite to the surface of the first treatment plate 131. By the contact arrangement of the cooling components 15 with the first treatment plate 131 or the second treatment plate 141, the first treatment plate 131 or the second treatment plate 141 is sufficiently cooled by the cooling components 15, so as to reduce the heat loss of the first coil assembly 13 or the second coil assembly 14.

[0041] Further, the cooling assembly 15 includes: a receiving frame 151, a mold 156, and a cooling component 158; the receiving frame 151 includes a base plate 153, a side plate 152 protruding around the edge of the base plate 153, and a connecting plate 155, the side plate 152 and the base plate 153 enclosing a receiving cavity 154, the connecting plate 155 being disposed on the outside of the side plate 152 and used to connect the first treatment plate 131 or the second treatment plate 141; the mold 156 is disposed in the receiving cavity 154, and a return groove 157 is provided on the side of the mold 156 facing away from the base plate 153; the cooling component 158 ​​is adapted to the return groove 157. By setting up a cooling component 158, a mold 156, a receiving frame 151, and a connecting plate 155, and sequentially stacking the base plate 153, mold 156, cooling component 158, and first treatment plate 131, or sequentially stacking the base plate 153, mold 156, cooling component 158, and second treatment plate 141, and sequentially fitting the first treatment plate 131, cooling component 158, and mold 156 into the receiving cavity 154, or sequentially fitting the second treatment plate 141, cooling component 158, and mold 156 into the receiving cavity 154, and connecting plate 155 connecting the receiving frame 151 to the first treatment plate 131, or connecting plate 155 connecting the receiving frame 151 to the second treatment plate 141, the cooling component 158 ​​cools the first treatment plate 131 or the second treatment plate 141 with the maximum contact area, thereby maximizing the cooling effect.

[0042] Furthermore, the cooling assembly 15 also includes: a first guide 159 connected to the side plate 152, one end extending to the outside of the receiving frame 151, and the other end connecting the receiving cavity 151 and the cooling component 158; and a second guide 150, one end connected to the mold 156, and the other end penetrating through the side plate 152 and extending to the outside of the receiving frame 151. The cooling component 158 ​​is connected and led to the outside of the receiving frame 151 through the first guide 159, so as to facilitate the connection of the first guide 159 to an external cold source or disconnection from the cold source. The mold 156 is installed on the receiving frame 151 through the second guide 150 to achieve the purpose of fixing the mold 156.

[0043] Furthermore, the double-layer plate-type pet magnetic thermotherapy device of this utility model also includes a control component 17, which is disposed on the support platform 11 and electrically connected to the sliding plate 20. The control component 17 is used to drive the sliding plate 20 to move in the direction, displacement, or speed relative to the support platform 11. When the double-layer plate-type pet magnetic thermotherapy device needs to work, the control component 17 first controls the sliding plate 20 to move in a first direction toward the end away from the sensing area. The treatment object with the magnetic medium implanted in the lesion is placed on the sliding plate 20. The control component 17 first controls the sliding plate 20 to move toward the end closer to the sensing area. The treatment object with the magnetic medium implanted in the lesion moves into the sensing area. Thus, when the first coil assembly 13 or the second coil assembly 14 provides alternating current, the treatment object generates an alternating magnetic field in the sensing area to perform magnetic thermotherapy.

[0044] Furthermore, the double-layer plate-type pet magnetic thermotherapy device of this utility model also includes a lifting component 16, which is disposed between the cooling component 15 on the side away from the first treatment plate 131 and the bracket 12, or the lifting component 16 is disposed between the cooling component 15 on the side away from the second treatment plate 141 and the main unit 10.

[0045] Furthermore, the control component 17 is connected to the lifting component 16. The control component 17 is used to control the lifting component 16 to move the cooling mechanism 15 and the first treatment plate 131 toward or away from the support platform 11, and to control the lifting component 16 to move the cooling component 15 and the second treatment plate 141 toward or away from the support 12. When the control component 17 controls the lifting component 16 to move the first treatment plate 131 toward the side closer to the second treatment plate 141, or controls the lifting component 16 to move the second treatment plate 141 toward the side closer to the first treatment plate 131, the height of the sensing area decreases, the generated magnetic field becomes stronger, and thus the magnetic heat therapy effect is increased. When the control component 17 controls the lifting component 16 to move the first treatment plate 131 away from the second treatment plate 141, or controls the lifting component 16 to move the second treatment plate 141 away from the first treatment plate 131, the height of the sensing area increases, the generated magnetic field weakens, and thus the magnetic heat therapy effect is reduced.

[0046] Furthermore, the control component 17 is connected to the cooling component 15 and is used to control the cooling component 15 to provide a cold source to the first treatment plate 131 or the second treatment plate 141 or to stop providing a cold source. By having the cooling component 15 in contact with the first treatment plate 131 or the second treatment plate 141, the cooling component 15 can effectively cool the first treatment plate 131 or the second treatment plate 141, thereby reducing heat loss from the first treatment plate 131 or the second treatment plate 141. Furthermore, the control component 17 is connected to the cooling component 15 and is used to control the cooling component 15 to provide a cold source to the first treatment plate 131 or the second treatment plate 141, or to control the cooling component 15 to stop providing a cold source to the first treatment plate 131 or the second treatment plate 141.

[0047] Furthermore, the host 10 also includes: a power supply assembly 18 disposed on the support platform 11, the first treatment plate 131 and / or the second treatment plate 141 being connected to the power supply assembly 18 and used to provide alternating current to the first treatment plate 131 and / or the second treatment plate 141; and a control assembly 17 being connected to the power supply assembly 18 and used to control the intensity or frequency of the alternating current.

[0048] Furthermore, the host 10 also includes: a transformer (not labeled), which is disposed on the support platform 11, the transformer being connected to the power supply assembly 18 and used to provide alternating voltage to the power supply assembly 18;

[0049] The control component 17 is electrically connected to the transformer and is used to control the intensity or frequency of the alternating current.

[0050] Furthermore, the sliding plate 20 includes a first plate body 21 and a second plate body 22 that are fitted together. The second plate body 22 is disposed on the side of the first plate body 21 near the support platform 11. The two ends of the first plate body 21 protrude along the first direction and are disposed on the two ends of the second plate body 22. The second plate body 22 is connected to the side of the second treatment plate 141 near the first treatment plate 131.

[0051] The procedure for using this double-layer plate-type pet magnetic thermotherapy device to treat subjects with implanted magnetic media at the lesion site includes:

[0052] Before treatment, take appropriate hygiene and disinfection measures, such as trimming the treatment area and disinfecting the injection area with povidone-iodine.

[0053] After determining the appropriate dosage, use a 23-27 gauge needle to draw the necessary volume into a sterile syringe;

[0054] During injection, insert the needle into a single injection site on the tumor mass; while applying uniform pressure to the syringe plunger, move the needle back and forth to inject the veterinary drug into different locations within the tumor; ensure that the injection is confined to the tumor mass only, and do not inject into the tumor edge or beyond the tumor periphery;

[0055] After injecting the full dose of veterinary drug, pause for 5 seconds to allow it to disperse into the tissue before removing the needle from the tumor;

[0056] After injection, the location of the magnetorheological fluid was determined by CT scan, and then the pet was placed in the magnetic field generating device.

[0057] Adjust the intensity and frequency of the magnetic field generator, and wait for the temperature in the center of the heat therapy area to reach a stable 46°C before continuing the treatment for another 15 minutes.

[0058] It should be noted that the magnetic medium implanted at the lesion site is equivalent to a magnetorheological fluid. The main component of the magnetorheological fluid is PEG2000-coated iron oxide nanoparticles at a concentration of 200 mg / mL, or a concentration of 112 mg / mL (in Fe). This invention is primarily used for treating solid tumors in cats and dogs, and is suitable for tumors with a volume of 1 cm². 3 ~8cm 3 Within a suitable range and easily administered intratumorally. The magnetic fluid is stored in a vial for intratumoral injection, with an injection dose of [missing information - likely a unit of measurement] cm². 3 Inject 0.2 μL of magnetic fluid into the tumor volume. The formula for calculating the tumor size must satisfy: Tumor volume (cm²) 3 The formula for calculating tumor volume (length * width * height) is π / 6, which is closer to the actual volume. The dosage calculation formula satisfies: Injection volume (mL) = Tumor volume (cm²). 3 )*0.2.

[0059] The double-layer plate-type pet magnetic thermotherapy device provided by this utility model has a first coil assembly 13 on the support 12 and a second coil assembly on the support platform 11. The first coil assembly 13 includes a first treatment plate 131, and the second coil assembly 14 includes a second treatment plate 141. The orthographic projections of the first treatment plate 131 and the second treatment plate 141 on the vertical plane in the first direction at least partially overlap to form a sensing area, so that the treatment object with the magnetic medium implanted in the lesion site can generate an alternating magnetic field in the sensing area. A sliding plate 20 is set on the side of the second treatment plate 141 facing the first treatment plate 131 and is used to support the treatment object with the magnetic medium implanted in the lesion site. The sliding plate 20 extends along the first direction and protrudes from both ends of the second treatment plate 141. When the treatment object with the magnetic medium implanted in the lesion site passes through the alternating magnetic field, an electric current is passed through the first treatment plate 131 or the second treatment plate 141 to generate an alternating magnetic field in the lesion site of the treatment object, thereby performing magnetic thermotherapy on the treatment object. At the same time, the structure of this application is simple and easy to install, making the operation more convenient.

[0060] The above are merely preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A double-layer plate-type pet magnetic thermotherapy device, characterized in that, include: The host includes a support platform and a bracket, wherein the bracket is disposed on the support platform; The coil assembly includes a first treatment plate and a second treatment plate. The first treatment plate is disposed on the support, and the second treatment plate is disposed on the support platform. The orthographic projections of the first treatment plate and the second treatment plate on the vertical plane in a first direction at least partially overlap to form a sensing area. A sliding plate is disposed on the side of the second treatment plate facing the first treatment plate. The sliding plate extends along the first direction and protrudes from both ends of the second treatment plate, and is used to support the treatment object on which a magnetic medium has been implanted at the lesion site to generate an alternating magnetic field in the sensing area.

2. The double-layer plate-type pet magnetic thermotherapy device as described in claim 1, characterized in that, The first treatment plate has a plurality of first magnetic blocks on the side facing the second treatment plate; the second treatment plate has a plurality of second magnetic blocks on the side facing the first treatment plate. Along a third direction, the first magnetic block and the second magnetic block are aligned and arranged. The first magnetic block and the second magnetic block are arranged at intervals along the first direction; Either the first magnetic block or the second magnetic block is arranged at intervals along the second direction.

3. The double-layer plate-type pet magnetic thermotherapy device as described in claim 2, characterized in that, Along the first direction, a first spacing is formed between adjacent first magnetic blocks, and a third spacing is formed between adjacent second magnetic blocks; along the second direction, a second spacing is formed between adjacent first magnetic blocks, and a fourth spacing is formed between adjacent second magnetic blocks. The first spacing, the second spacing, the third spacing, and the fourth spacing are all fixed values; the first spacing is equal to the second spacing; and the third spacing is equal to the fourth spacing.

4. The double-layer plate type pet magnetic thermotherapy device as described in claim 1, characterized in that, Also includes: Cooling components are respectively disposed on the opposite sides of the first treatment plate and the second treatment plate; the cooling components are in contact with the surface of the first treatment plate opposite to the second treatment plate; the cooling components are in contact with the surface of the second treatment plate opposite to the first treatment plate.

5. A double-layer plate-type pet magnetic thermotherapy device as described in claim 4, characterized in that, The cooling assembly includes: The receiving frame includes a base plate, a side plate protruding around the edge of the base plate, and a connecting plate. The side plate and the base plate enclose a receiving cavity. The connecting plate is disposed on the side of the side plate away from the receiving cavity and is connected to the first treatment plate or the second treatment plate. A mold is disposed within the accommodating cavity, and a reflux groove is provided on the side of the mold facing away from the bottom plate; Cooling components are adapted to fit within the reflux-type tank.

6. A double-layer plate-type pet magnetic thermotherapy device as described in claim 5, characterized in that, The cooling assembly also includes: The first guide member is disposed on the side plate, with one end extending to the outside of the receiving frame and the other end connecting the receiving cavity and the cooling component; The second guide member has one end connected to the mold and the other end passing through the side plate and extending to the outside of the receiving frame.

7. A double-layer plate-type pet magnetic thermotherapy device as described in claim 4, characterized in that, The host also includes a control component electrically connected to the sliding plate, which is used to drive the sliding plate to move in the direction, displacement or speed relative to the support platform.

8. A double-layer plate-type pet magnetic thermotherapy device as described in claim 7, characterized in that, It also includes a lifting assembly, which is disposed between the cooling assembly on the side away from the first treatment plate and the support, or the lifting assembly is disposed between the cooling assembly on the side away from the second treatment plate and the support platform; The control component is connected to the lifting component. The control component is used to control the lifting component to move the cooling component and the first treatment plate, and to control the lifting component to move the cooling component and the second treatment plate.

9. A double-layer plate-type pet magnetic thermotherapy device as described in claim 7, characterized in that, The host also includes: A power supply assembly is disposed on the support platform. The first treatment plate and / or the second treatment plate are connected to the power supply assembly and are used to provide alternating current to the first treatment plate and / or the second treatment plate. The control assembly is electrically connected to the power supply assembly and is used to control the intensity or frequency of the alternating current.

10. A double-layer plate-type pet magnetic thermotherapy device as described in claim 1, characterized in that, The sliding plate includes a first plate and a second plate that are fitted together. The second plate is disposed on the side of the first plate near the support platform. The two ends of the first plate protrude along the first direction and are respectively disposed on the two ends of the second plate. The second plate is connected to the side of the second treatment plate near the first treatment plate.

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