Medical tonsil buccal ice compress device

Abstract

The invention discloses a medical tonsil buccal type ice compress device, and belongs to the technical field of medical instruments.The medical tonsil buccal type ice compress device comprises a mounting bin and a silica gel body, a tooth cushion mechanism is arranged at one end of the silica gel body, and an adjusting mechanism matched with the silica gel body is arranged in the tooth cushion mechanism; an ice compress mechanism is arranged at the top of the silica gel body, medicine placing mechanisms matched with the ice compress mechanism are arranged on the two sides of the top of the silica gel body, a cooling mechanism is arranged at the bottom of the mounting bin, a heat exchange mechanism matched with the ice compress mechanism is arranged in the mounting bin, and a control panel is mounted at the top of the mounting bin. The bite block mechanism is contained in the mouth and is matched with the adjusting mechanism to freely adjust the depth of the silica gel body in the mouth of the patient, so that the top of the silica gel body can be tightly attached to the tonsil parts of different patients, and the ice compress effect of the ice compress mechanism on the tonsil parts of the patients is guaranteed.

Description

Technical Field

[0001] The present invention belongs to the technical field of medical devices, and particularly relates to a medical tonsil oral ice compress device. Background Art

[0002] When the tonsils are inflamed, there are often symptoms such as pain, swelling, and a rise in local temperature. Through oral ice compress, the low temperature can promote the contraction of local blood vessels, reduce the blood perfusion volume, and then lower the metabolic rate of this part, which helps to relieve pain and reduce swelling. And most patients will experience phenomena such as blood extravasation, swelling and pain at the surgical incision within 24 hours after tonsil surgery. Generally, ice cubes are needed to perform ice compress on the patient's forehead and both sides of the neck to relieve pain and close the capillaries to prevent blood extravasation.

[0003] Currently, during the process of directly applying ice cubes to the patient's tonsils for ice compress, since the ice cubes will melt quickly, it is impossible to ensure long-term and stable ice compress on the patient's tonsils, and thus it is difficult to fully relieve the pain after the operation; moreover, the position of the oral component of the existing ice compress device is often fixed, and due to the different oral depths of different patient groups, the existing oral ice compress device cannot be applied to different patient groups, reducing the applicable range of the oral ice compress device; at the same time, after tonsil surgery, patients not only need ice compress treatment but also need drug-assisted treatment at the tonsils. However, it is difficult to accurately control the position of the drug when directly containing the drug in the mouth, thereby reducing the recovery effect of patients after the operation. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to overcome the above-mentioned disadvantages of the prior art and provide a medical tonsil oral ice compress device.

[0005] The technical solution adopted to solve the above technical problem is: a medical tonsil oral ice compress device, including an installation chamber and a silica gel body. One end of the silica gel body is provided with a dental pad mechanism, and an adjustment mechanism that cooperates with the silica gel body is arranged inside the dental pad mechanism. An ice compress mechanism is arranged on the top of the silica gel body. On both sides of the top of the silica gel body, a medicine placement mechanism that cooperates with the ice compress mechanism is arranged. A cooling mechanism is arranged at the bottom of the installation chamber. A heat exchange mechanism that cooperates with the ice compress mechanism is arranged inside the installation chamber. A control panel is installed on the top of the installation chamber. A storage battery is arranged on one side inside the installation chamber, and a charging interface is arranged at a position on the outside of the installation chamber close to the storage battery.

[0006] Further, the dental pad mechanism includes an upper dental pad and a lower dental pad. Both ends of the mutually approaching sides of the upper dental pad and the lower dental pad are hinged by a hinge shaft. Installation grooves are symmetrically formed on the same side of the bottom of the upper dental pad and the top of the lower dental pad, and a first return spring is commonly installed inside the two groups of installation grooves at the same end.

[0007] Through the above technical solution, after placing the upper dental pad and the lower dental pad in the mouth and biting the upper dental pad and the lower dental pad with teeth respectively, bite tightly on the upper dental pad and the lower dental pad to make the upper dental pad and the lower dental pad completely close together. At this time, the first return spring in the installation groove is stressed and shortened to store elastic potential energy. When the user no longer applies a biting force on the upper dental pad and the lower dental pad, the elastic potential energy of the first return spring forces the upper dental pad and the lower dental pad to rotate and open around the hinge shaft where they are hinged to each other.

[0008] Further, the adjustment mechanism includes a limit sliding groove, which is located at the middle position of the top of the lower dental pad. A sliding plate is arranged inside the limit sliding groove. One end of the sliding plate is provided with a limit baffle. A limit rack is installed at the middle position of the top of the sliding plate. A clamping component that cooperates with the limit rack is arranged at the top of the limit sliding groove. A groove is formed at the middle position of the bottom of the upper dental pad, and an isosceles trapezoidal block that cooperates with the clamping component is installed at the inner top of the groove. The end of the sliding plate away from the limit baffle is fixedly connected to the silica gel body through a connecting plate.

[0009] Through the above technical solution, when the user applies a biting force on the upper dental pad and the lower dental pad, by using the cooperation between the isosceles trapezoidal block and the clamping component, the clamping component is forced to separate from the limit rack, and then the sliding plate in the limit sliding groove is no longer limited. Then manually pinch the limit baffle and push the sliding plate deeper into the mouth. During the process, the sliding plate slides in the limit sliding groove until the top of the silica gel body completely abuts against the tonsil part. After that, no longer apply a biting force on the upper dental pad and the lower dental pad, so that the isosceles trapezoidal block no longer contacts the clamping component, and then the clamping component cooperates with the limit rack to limit the sliding plate again.

[0010] Further, the clamping component includes an installation frame located at the top of the limit sliding groove. Slide rods are symmetrically installed on both inner sides of the installation frame. Two sliding blocks are symmetrically sleeved at both ends of the outer sides of the two groups of slide rods. Right-angled trapezoidal blocks are symmetrically installed on the tops of the two groups of sliding blocks. Second return springs are symmetrically sleeved at both ends of the outer sides of the slide rods, and both ends of the second return springs are fixedly connected to the sliding blocks and the inner wall of the installation frame respectively. Three limit clamping bars that are adapted to the limit rack are symmetrically installed at the bottoms of the two groups of sliding blocks.

[0011] Through the above technical solution, when the user applies a biting force to the upper dental pad and the lower dental pad, the isosceles trapezoidal block contacts the two right trapezoidal blocks and pushes the two sliding blocks to slide on the slide bar. During this process, the second return spring is stressed and shortened to store elastic potential energy, and the limit latch at the bottom of the sliding block will leave the limit rack, releasing the restriction on the sliding plate. When the biting force on the upper dental pad and the lower dental pad is no longer applied, the elastic potential energy of the second return spring pushes the two sliding blocks closer to each other, and then makes the limit latches at the bottoms of the two sliding blocks re-engage with the limit rack, restricting the sliding plate from moving any further.

[0012] Further, the ice compress mechanism includes a heat exchange chamber located at the middle position on the top of the silicone body. A heat conduction plate is installed in the middle of the heat exchange chamber through a fixed frame. A semiconductor refrigeration sheet is installed on the top of the heat conduction plate. A heat conduction silicone plate that closely adheres to the top of the semiconductor refrigeration sheet is installed on the inner top of the heat exchange chamber. A wire is installed at the bottom of the connecting plate, and one end of the wire passes through the inside of the sliding plate and the limit baffle and is electrically connected to the control panel. The other end of the wire extends into the heat exchange chamber and is electrically connected to the semiconductor refrigeration sheet.

[0013] Through the above technical solution, the control panel cooperates with the wire to control the operation of the semiconductor refrigeration sheet. The top of the semiconductor refrigeration sheet cools and conducts the cold to the heat conduction silicone plate, performing ice compress on the tonsils that closely adhere to the top of the heat conduction silicone plate. The coolant transported into the heat exchange chamber by the heat exchange mechanism cooperates with the heat conduction plate to dissipate the heat at the bottom of the semiconductor refrigeration sheet, ensuring the refrigeration effect at the top of the semiconductor refrigeration sheet, and thus ensuring the ice compress effect on the tonsil part of the patient.

[0014] Further, the medicine dispensing mechanism includes side chambers. There are two sets of side chambers, and the two sets of side chambers are symmetrically arranged on both sides of the top of the silicone body. One side inside the side chamber is communicated with the inside of the heat exchange chamber through a connecting pipe. A rubber strip is installed at the middle position inside the side chamber. Connecting grooves that communicate with the top end inside the side chamber are uniformly formed on the top of the heat conduction silicone plate and the silicone body together.

[0015] Through the above technical solution, after the heat exchange mechanism transports the coolant into the heat exchange chamber, part of the coolant enters the inside of the side chamber through the connecting pipe and pushes the rubber strip to deform and bulge upward, so that the therapeutic medicine on the rubber strip rises and closely adheres to the tonsil part of the patient. After the dissolved therapeutic medicine flows into the connecting groove, the contact area between the tonsil part and the medicine is increased.

[0016] Further, the temperature reduction mechanism includes a temperature reduction chamber located at the bottom of the installation chamber. Exhaust vents that communicate with the inside of the temperature reduction chamber are uniformly formed on the top of the outside of the temperature reduction chamber. A fan is installed at the bottom end inside the temperature reduction chamber. A filter screen is installed at the bottom of the exhaust vent.

[0017] Through the above technical solution, the control fan blows the outside air towards the side of the installation bin close to the cooling bin, and the filter screen filters the air entering the cooling bin. The air that is cooled by the wind on one side of the installation bin is then discharged back into the external environment from the air outlet, which helps to cool the coolant in the liquid storage bin.

[0018] Further, the heat exchange mechanism includes a liquid storage bin located inside the installation bin. On one side inside the installation bin, there is an electrical appliance bin, and a water pump is installed inside the electrical appliance bin. The input end of the water pump is communicated with the inside of the liquid storage bin. The output end of the water pump is installed with an infusion hose. On both sides of the connecting plate, an infusion plastic pipe and a liquid return plastic pipe are symmetrically installed. The output end of the infusion hose is communicated with the inside of the heat exchange bin through the infusion plastic pipe. One end of the liquid return plastic pipe is communicated with the inside of the heat exchange bin, and the other end of the liquid return plastic pipe extends outside the limit baffle and is installed with a liquid return hose. The end of the liquid return hose far from the liquid return plastic pipe is communicated with the inside of the liquid storage bin. A heat insulation sleeve is commonly arranged outside the connecting plate, the infusion plastic pipe and the liquid return plastic pipe.

[0019] Through the above technical solution, the control panel controls the water pump to sequentially input the coolant in the liquid storage bin into the heat exchange bin through the infusion hose and the infusion plastic pipe. The coolant entering the heat exchange bin cooperates with the heat conduction plate to dissipate the heat at the bottom of the semiconductor refrigeration sheet. Then, the coolant flows back into the liquid storage bin through the liquid return plastic pipe and the liquid return hose. The heat insulation sleeve can keep the infusion plastic pipe and the liquid return plastic pipe in the oral cavity warm, avoiding the influence of the oral temperature on the temperature of the coolant in the infusion plastic pipe and the liquid return plastic pipe.

[0020] Further, a liquid supplement port communicated with the inside of the liquid storage bin is arranged outside the installation bin, and a sealing cover is threadedly arranged outside the liquid supplement port.

[0021] Through the above technical solution, by unscrewing the sealing cover outside the liquid supplement port, coolant can be supplemented into the liquid storage bin through the liquid supplement port, ensuring that there is sufficient coolant in the liquid storage bin.

[0022] Further, silica gel pads are arranged on the outer sides of the upper dental pad and the lower dental pad, and concave grooves adapted to the teeth are arranged on the inner sides of the silica gel pads.

[0023] Through the above technical solution, after the patient's teeth bite on the upper dental pad and the lower dental pad, the silica gel pads help to improve the comfort and fitting degree of the patient biting on the upper dental pad and the lower dental pad.

[0024] The beneficial effects of the present invention are as follows: (1) By arranging an ice application mechanism inside the silica gel body and then cooperating with a heat exchange mechanism and a cooling mechanism, the present invention can effectively control the temperature of the ice application on the top of the silica gel body and can stably ensure the temperature of the ice application on the top of the silica gel body for a long time, thereby fully relieving the pain of the patient after tonsil surgery; (2) By putting the mouthguard mechanism in the mouth and cooperating with the adjustment mechanism, the present invention can freely adjust the depth of the silica gel body inserted into the patient's mouth, so that the top of the silica gel body can closely adhere to the tonsil parts of different patients, ensuring the ice application effect of the ice application mechanism on the patient's tonsil part; (3) By arranging a medicine application mechanism on both sides of the top of the silica gel body and utilizing the mutual cooperation of the ice application mechanism, the medicine application mechanism and the heat exchange mechanism, after putting the therapeutic medicine on the rubber strip inside the side compartment, the heat exchange mechanism is used to convey the coolant into the heat exchange compartment, forcing the rubber strip to deform and bulge upward, so that the therapeutic medicine on the rubber strip rises and closely adheres to the patient's tonsil part. After the dissolved therapeutic medicine flows into the connecting groove, the contact area between the tonsil part and the medicine is increased, thereby improving the therapeutic effect of the therapeutic medicine on the patient's tonsil part. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 is the first perspective structure diagram of the present invention; Figure 2 is the second perspective structure diagram of the present invention; Figure 3 is the third perspective structure diagram of the present invention; Figure 4 is the first perspective structure diagram of the mouthguard mechanism of the present invention; Figure 5 is the second perspective structure diagram of the mouthguard mechanism of the present invention; Figure 6 is the three-dimensional schematic diagram after the upper mouthguard of the mouthguard mechanism of the present invention is disassembled; Figure 7 is the three-dimensional schematic diagram of the upper mouthguard of the present invention; Figure 8 is the three-dimensional schematic diagram of the lower mouthguard of the present invention; Figure 9 is the partial structure schematic diagram of the adjustment mechanism of the present invention; Figure 10 is the first perspective structure diagram after the silica gel heat insulation sleeve outside the connecting plate of the present invention is disassembled; Figure 11 is the second perspective structure diagram after the silica gel heat insulation sleeve outside the connecting plate of the present invention is disassembled; Figure 12 is the three-dimensional schematic diagram of the sliding plate of the present invention; Figure 13 is the first perspective structure diagram of the clamping component of the present invention; Figure 14It is the second perspective structure diagram of the card position component of the present invention; Figure 15 It is the third perspective structure diagram of the card position component of the present invention; Figure 16 It is the three-dimensional schematic diagram of the silica gel body of the present invention; Figure 17 It is the first perspective structure diagram of the internal structure of the silica gel body of the present invention; Figure 18 It is the second perspective structure diagram of the internal structure of the silica gel body of the present invention; Figure 19 It is the first perspective structure diagram of the internal structure of the installation bin of the present invention; Figure 20 It is the second perspective structure diagram of the internal structure of the installation bin of the present invention; Figure 21 It is the internal schematic diagram of the installation bin of the present invention.

[0026] Reference numerals: 1. Installation bin; 2. Dental pad mechanism; 201. Upper dental pad; 202. Lower dental pad; 203. Installation groove; 204. First return spring; 3. Adjustment mechanism; 301. Limit sliding groove; 302. Sliding plate; 303. Limit baffle; 304. Limit rack; 305. Card position component; 3051. Installation frame; 3052. Slide bar; 3053. Sliding block; 3054. Right-angled trapezoidal block; 3055. Second return spring; 3056. Limit card strip; 306. Groove; 307. Isosceles trapezoidal block; 308. Connecting plate; 4. Silica gel body; 5. Ice application mechanism; 501. Heat exchange bin; 502. Fixed frame; 503. Heat conduction plate; 504. Semiconductor refrigeration sheet; 505. Heat conduction silica gel plate; 506. Electric wire; 6. Medicine placing mechanism; 601. Side bin; 602. Connecting pipe; 603. Rubber strip; 604. Connecting groove; 7. Cooling mechanism; 701. Cooling bin; 702. Air outlet; 703. Fan; 704. Filter screen; 8. Silica gel pad; 9. Heat exchange mechanism; 901. Liquid storage bin; 9011. Liquid supplement port; 9012. Sealing cover; 902. Electric appliance bin; 903. Water pump; 904. Infusion hose; 905. Infusion plastic pipe; 906. Return liquid hose; 907. Return liquid plastic pipe; 908. Heat preservation sleeve; 10. Control panel; 11. Battery; 12. Charging interface. Detailed implementation manners

[0027] In order to make the objectives, technical solutions and advantages of the present invention clearer and more understandable, the present invention 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 only used to explain the present invention and are not used to limit the present invention.

[0028] As Figures 1 - 15As shown in the figure, a medical tonsil oral ice pack device of this embodiment includes an installation bin 1 and a silica gel body 4. One end of the silica gel body 4 is provided with a dental pad mechanism 2, and an adjustment mechanism 3 that cooperates with the silica gel body 4 is arranged inside the dental pad mechanism 2. A control panel 10 is installed on the top of the installation bin 1. A storage battery 11 is arranged on one side inside the installation bin 1. A charging interface 12 is arranged at a position on the outer side of the installation bin 1 close to the storage battery 11. The dental pad mechanism 2 includes an upper dental pad 201 and a lower dental pad 202. Both ends of the mutually approaching sides of the upper dental pad 201 and the lower dental pad 202 are hinged through hinge shafts. Installation grooves 203 are symmetrically formed at the same side of the bottom of the upper dental pad 201 and the top of the lower dental pad 202, and a first return spring 204 is jointly installed inside the two groups of installation grooves 203 at the same end. Silica gel pads 8 are arranged on the outer sides of the upper dental pad 201 and the lower dental pad 202, and indentations adapted to the teeth are arranged on the inner sides of the silica gel pads 8. The adjustment mechanism 3 includes a limit sliding groove 301, and the limit sliding groove 301 is located at the middle position of the top of the lower dental pad 202. A sliding plate 302 is arranged inside the limit sliding groove 301. One end of the sliding plate 302 is installed with a limit baffle 303. A limit rack 304 is installed at the middle position of the top of the sliding plate 302. A clamping component 305 that cooperates with the limit rack 304 is arranged at the top of the limit sliding groove 301. A groove 306 is formed at the middle position of the bottom of the upper dental pad 201, and an isosceles trapezoidal block 307 that cooperates with the clamping component 305 is installed at the inner top of the groove 306. The end of the sliding plate 302 away from the limit baffle 303 is fixedly connected to the silica gel body 4 through a connecting plate 308. The clamping component 305 includes an installation frame 3051 at the top of the limit sliding groove 301. Slide bars 3052 are symmetrically installed on both inner sides of the installation frame 3051, and two groups of sliding blocks 3053 are symmetrically sleeved at both ends of the outer sides of the two groups of slide bars 3052. Right-angled trapezoidal blocks 3054 are symmetrically installed at the tops of the two groups of sliding blocks 3053. Second return springs 3055 are symmetrically sleeved at both ends of the outer sides of the slide bars 3052, and both ends of the second return springs 3055 are fixedly connected to the sliding blocks 3053 and the inner wall of the installation frame 3051 respectively. Three groups of limit clamping bars 3056 adapted to the limit rack 304 are symmetrically installed at the bottoms of the two groups of sliding blocks 3053. After placing the upper dental pad 201 and the lower dental pad 202 in the mouth and biting on the upper dental pad 201 and the lower dental pad 202 with teeth respectively, bite tightly on the upper dental pad 201 and the lower dental pad 202 to make the upper dental pad 201 and the lower dental pad 202 completely close. At this time, the first return spring 204 in the installation groove 203 is shortened under force and stores elastic potential energy. The isosceles trapezoidal block 307 contacts the two right-angled trapezoidal blocks 3054 and pushes the two groups of sliding blocks 3053 to slide on the slide bars 3052. During the process, the second return spring 3055 is shortened under force and stores elastic potential energy, and the limit clamping bars 3056 at the bottom of the sliding blocks 3053 will leave the limit rack 304, and thus no longer limit the sliding plate 302 in the limit sliding groove 301.Then manually pinch the limit baffle 303 and push the sliding plate 302 deeper into the mouth. During this process, the sliding plate 302 slides within the limit chute 301 until the top of the silica gel body 4 fully abuts against the tonsil area. After that, no biting force is applied to the upper dental pad 201 and the lower dental pad 202 anymore. The elastic potential energy of the second return spring 3055 pushes the two sliding blocks 3053 closer to each other, and then the limit latch strips 3056 at the bottoms of the two sliding blocks 3053 are reinserted into the limit rack 304, restricting the sliding plate 302 from moving any further, realizing that the depth of the silica gel body 4 inserted into the patient's mouth can be freely adjusted, so that the top of the silica gel body 4 can closely adhere to the tonsil areas of different patients, ensuring the ice compress effect of the entire device on the patient's tonsil area.

[0029] Such as Figures 1 - 2 , Figures 5 - 12 and Figures 16 - 21As shown in the figure, an ice pack mechanism 5 is provided at the top of the silica gel body 4 of this embodiment. A heat exchange mechanism 9 that cooperates with the ice pack mechanism 5 is provided inside the installation bin 1. The ice pack mechanism 5 includes a heat exchange bin 501 located at the middle position of the top of the silica gel body 4. A heat conduction plate 503 is installed in the middle position inside the heat exchange bin 501 through a fixed frame 502. A semiconductor refrigeration chip 504 is installed on the top of the heat conduction plate 503. A heat conduction silica gel plate 505 that is closely attached to the top of the semiconductor refrigeration chip 504 is installed on the inner top of the heat exchange bin 501. A wire 506 is installed at the bottom of the connection plate 308. One end of the wire 506 passes through the inside of the sliding plate 302 and the limit baffle 303 and is electrically connected to the control panel 10. The other end of the wire 506 extends into the heat exchange bin 501 and is electrically connected to the semiconductor refrigeration chip 504. The heat exchange mechanism 9 includes a liquid storage bin 901 located inside the installation bin 1. An electrical appliance bin 902 is provided on one side inside the installation bin 1, and a water pump 903 is installed inside the electrical appliance bin 902. The input end of the water pump 903 is communicated with the inside of the liquid storage bin 901. The output end of the water pump 903 is installed with an infusion hose 904. Infusion plastic pipes 905 and return liquid plastic pipes 907 are symmetrically installed on both sides of the connection plate 308. The output end of the infusion hose 904 is communicated with the inside of the heat exchange bin 501 through the infusion plastic pipe 905. One end of the return liquid plastic pipe 907 is communicated with the inside of the heat exchange bin 501. The other end of the return liquid plastic pipe 907 extends to the outside of the limit baffle 303 and is installed with a return liquid hose 906. The end of the return liquid hose 906 away from the return liquid plastic pipe 907 is communicated with the inside of the liquid storage bin 901. A heat preservation sleeve 908 is jointly sleeved on the outside of the connection plate 308, the infusion plastic pipe 905, and the return liquid plastic pipe 907. A liquid supplement port 9011 communicated with the inside of the liquid storage bin 901 is provided on the outside of the installation bin 1, and a sealing cover 9012 is threadedly arranged on the outside of the liquid supplement port 9011. By controlling the operation of the semiconductor refrigeration chip 504 through the control panel 10 and the wire 506, the top of the semiconductor refrigeration chip 504 refrigerates and conducts the cold to the heat conduction silica gel plate 505 to ice the tonsils that are closely attached to the top of the heat conduction silica gel plate 505. The coolant transported into the heat exchange bin 501 by the heat exchange mechanism 9 cooperates with the heat conduction plate 503 to dissipate the heat at the bottom of the semiconductor refrigeration chip 504, ensuring the refrigeration effect at the top of the semiconductor refrigeration chip 504. Then, the coolant flows back into the inside of the liquid storage bin 901 through the return liquid plastic pipe 907 and the return liquid hose 906. The heat preservation sleeve 908 can heat-preserve the infusion plastic pipe 905 and the return liquid plastic pipe 907 located in the oral cavity, avoiding the influence of the temperature in the oral cavity on the temperature of the coolant in the infusion plastic pipe 905 and the return liquid plastic pipe 907, and thus can fully ensure the ice pack effect of the device on the tonsil part of the patient.

[0030] As Figures 17 - 18As shown in the figure, dosing mechanisms 6 that cooperate with the ice application mechanism 5 are provided on both sides of the top of the silica gel body 4 in this embodiment. The dosing mechanism 6 includes side bins 601. There are two groups of side bins 601, and the two groups of side bins 601 are symmetrically arranged on both sides of the top of the silica gel body 4. One side inside the side bin 601 is connected to the inside of the heat exchange bin 501 through a connecting pipe 602. A rubber strip 603 is installed at the middle position inside the side bin 601. Connecting grooves 604 that communicate with the top end inside the side bin 601 are uniformly formed jointly by the heat-conducting silica gel plate 505 and the top of the silica gel body 4. After the water pump 903 conveys the coolant into the heat exchange bin 501, part of the coolant enters the inside of the side bin 601 through the connecting pipe 602 and pushes the rubber strip 603 to deform and bulge upward, so that the therapeutic drug on the rubber strip 603 rises and closely adheres to the patient's tonsil area. And after the dissolved therapeutic drug flows into the inside of the connecting groove 604, the contact area between the tonsil area and the drug is increased.

[0031] As Figures 19 - 21 shown in the figure, a cooling mechanism 7 is provided at the bottom of the installation bin 1 in this embodiment. The cooling mechanism 7 includes a cooling bin 701 located at the bottom of the installation bin 1. Exhaust vents 702 that communicate with the inside of the cooling bin 701 are uniformly formed at the top outside the cooling bin 701. A fan 703 is installed at the bottom end inside the cooling bin 701. A filter screen 704 is installed at the bottom of the exhaust vent 702. The fan 703 is controlled to blow the outside air towards the side of the installation bin 1 close to the cooling bin 701. The filter screen 704 filters the air entering the cooling bin 701. The air that cools the side of the installation bin 1 by blowing is discharged back into the external environment from the exhaust vent 702, which helps to cool the coolant in the liquid storage bin 901.

[0032] The working principle of this embodiment is as follows. First, put the therapeutic drug into the side compartments 601 on both sides of the silica gel body 4, and place the therapeutic drug on the rubber strip 603. Then, place the silica gel body 4, the upper dental pad 201, and the lower dental pad 202 in the mouth and bite on the upper dental pad 201 and the lower dental pad 202 with the teeth respectively. After that, bite tightly on the upper dental pad 201 and the lower dental pad 202 to make the upper dental pad 201 and the lower dental pad 202 fully close. At this time, the limit card strip 3056 is no longer engaged with the limit rack 304. Then, manually pinch the limit baffle 303 and push the sliding plate 302 deeper into the mouth until the top of the silica gel body 4 completely abuts against the tonsil area. After that, stop applying the biting force on the upper dental pad 201 and the lower dental pad 202. The first return spring 204 forces the upper dental pad 201 and the lower dental pad 202 to separate, making the limit card strip 3056 engage with the limit rack 304 to restrict the sliding plate 302 from moving any further. Subsequently, control the semiconductor refrigeration chip 504 to work through the control panel 10 to cool its top. Immediately afterwards, control the water pump 903 to transport the coolant in the liquid storage chamber 901 to the heat exchange chamber 501 through the infusion hose 904 and the infusion plastic pipe 905 to dissipate heat from the bottom of the semiconductor refrigeration chip 504. Then, the coolant flows back into the interior of the liquid storage chamber 901 through the return liquid plastic pipe 907 and the return liquid hose 906. During this process, the coolant in the heat exchange chamber 501 also enters the side compartment 601 through the connecting pipe 602 and pushes the rubber strip 603 to deform and bulge upwards, making the therapeutic drug on the rubber strip 603 fit the patient's tonsil area.

[0033] The above is only a preferred embodiment of the present invention and is not intended to limit the protection scope of the present invention.

Claims

1. A medical tonsil buccal ice compress device, comprising an installation bin (1) and a silica gel body (4), characterized in that: One end of the silica gel body (4) is provided with a dental pad mechanism (2), and an adjusting mechanism (3) that cooperates with the silica gel body (4) is arranged inside the dental pad mechanism (2). An ice application mechanism (5) is arranged on the top of the silica gel body (4). Medicine dispensing mechanisms (6) that cooperate with the ice application mechanism (5) are arranged on both sides of the top of the silica gel body (4). A temperature reduction mechanism (7) is arranged at the bottom of the installation bin (1). A heat exchange mechanism (9) that cooperates with the ice application mechanism (5) is arranged inside the installation bin (1). A control panel (10) is installed on the top of the installation bin (1). A storage battery (11) is arranged on one side inside the installation bin (1). A charging interface (12) is arranged at a position on the outer side of the installation bin (1) close to the storage battery (11).

2. The medical tonsil buccal ice compress device according to claim 1, wherein, The dental pad mechanism (2) includes an upper dental pad (201) and a lower dental pad (202). Both ends of the mutually approaching sides of the upper dental pad (201) and the lower dental pad (202) are hinged through hinge shafts. Installation grooves (203) are symmetrically formed on the same sides of the bottom of the upper dental pad (201) and the top of the lower dental pad (202), and a first return spring (204) is jointly installed inside the two groups of installation grooves (203) at the same end.

3. The medical tonsil buccal ice compress device according to claim 2, characterized in that, The adjusting mechanism (3) includes a limit sliding groove (301). The limit sliding groove (301) is located at the middle position of the top of the lower dental pad (202). A sliding plate (302) is arranged inside the limit sliding groove (301). A limit baffle (303) is installed at one end of the sliding plate (302). A limit rack (304) is installed at the middle position of the top of the sliding plate (302). A clamping component (305) that cooperates with the limit rack (304) is arranged at the top of the limit sliding groove (301). A groove (306) is formed at the middle position of the bottom of the upper dental pad (201), and an isosceles trapezoidal block (307) that cooperates with the clamping component (305) is installed on the inner top of the groove (306). The end of the sliding plate (302) far away from the limit baffle (303) is fixedly connected to the silica gel body (4) through a connecting plate (308).

4. The medical tonsil buccal ice compress device according to claim 3, wherein The clamping component (305) includes an installation frame (3051) located at the top of the limit sliding groove (301). Slide bars (3052) are symmetrically installed on both inner sides of the installation frame (3051). Two sliding blocks (3053) are symmetrically sleeved on the outer ends of the two groups of slide bars (3052). Right-angled trapezoidal blocks (3054) are symmetrically installed on the tops of the two groups of sliding blocks (3053). Second return springs (3055) are symmetrically sleeved on the outer ends of the slide bars (3052), and the two ends of the second return springs (3055) are respectively fixedly connected to the sliding blocks (3053) and the inner wall of the installation frame (3051). Three limit clamping bars (3056) adapted to the limit rack (304) are symmetrically installed at the bottoms of the two groups of sliding blocks (3053).

5. The medical tonsil buccal ice compress device according to claim 3, characterized in that, The ice application mechanism (5) includes a heat exchange chamber (501) located at the middle position on the top of the silica gel body (4). A heat conduction plate (503) is installed at the middle position inside the heat exchange chamber (501) through a fixed frame (502). A semiconductor refrigeration sheet (504) is installed on the top of the heat conduction plate (503). A heat conduction silica gel plate (505) that is in close contact with the top of the semiconductor refrigeration sheet (504) is installed on the inner top of the heat exchange chamber (501). A wire (506) is installed at the bottom of the connecting plate (308), and one end of the wire (506) passes through the inside of the sliding plate (302) and the limit baffle (303) and is electrically connected to the control panel (10). The other end of the wire (506) extends into the heat exchange chamber (501) and is electrically connected to the semiconductor refrigeration sheet (504).

6. The medical tonsil buccal ice compress device according to claim 5, characterized in that, The medicine dispensing mechanism (6) includes side chambers (601). There are two groups of side chambers (601), and the two groups of side chambers (601) are symmetrically arranged on both sides of the top of the silica gel body (4). One side inside the side chamber (601) is communicated with the inside of the heat exchange chamber (501) through a communicating pipe (602). A rubber strip (603) is installed at the middle position inside the side chamber (601). Connecting grooves (604) that are communicated with the top end inside the side chamber (601) are uniformly formed on the top of the heat conduction silica gel plate (505) and the silica gel body (4) together.

7. The medical tonsil buccal ice compress device according to claim 1, wherein, The temperature reduction mechanism (7) includes a temperature reduction chamber (701) located at the bottom of the installation chamber (1). Air exhaust ports (702) that are communicated with the inside of the temperature reduction chamber (701) are uniformly formed on the top of the outside of the temperature reduction chamber (701). A fan (703) is installed at the bottom end inside the temperature reduction chamber (701). A filter screen (704) is installed at the bottom of the air exhaust port (702).

8. The medical tonsil buccal ice compress device according to claim 5, characterized in that, The heat exchange mechanism (9) includes a liquid storage chamber (901) located inside the installation chamber (1). An electrical appliance chamber (902) is arranged on one side inside the installation chamber (1), and a water pump (903) is installed inside the electrical appliance chamber (902). The input end of the water pump (903) is communicated with the inside of the liquid storage chamber (901). An infusion hose (904) is installed at the output end of the water pump (903). Infusion plastic pipes (905) and return liquid plastic pipes (907) are symmetrically installed on both sides of the connecting plate (308). The output end of the infusion hose (904) is communicated with the inside of the heat exchange chamber (501) through the infusion plastic pipe (905). One end of the return liquid plastic pipe (907) is communicated with the inside of the heat exchange chamber (501). The other end of the return liquid plastic pipe (907) extends outside the limit baffle (303) and a return liquid hose (906) is installed. The end of the return liquid hose (906) far from the return liquid plastic pipe (907) is communicated with the inside of the liquid storage chamber (901). A heat insulation sleeve (908) is jointly sleeved on the outside of the connecting plate (308), the infusion plastic pipe (905) and the return liquid plastic pipe (907).

9. The medical tonsil buccal ice compress device according to claim 8, characterized in that, A liquid replenishing port (9011) communicating with the inside of the liquid storage chamber (901) is provided on the outer side of the installation chamber (1), and a sealing cover (9012) is provided with a thread on the outer side of the liquid replenishing port (9011).

10. The medical tonsil buccal ice pack device according to claim 2, characterized in that, Silicone pads (8) are provided on the outer sides of the upper dental pad (201) and the lower dental pad (202), and indentations adapted to the teeth are provided on the inner sides of the silicone pads (8).

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