Infrared radiation light wave bath room

Abstract

The utility model belongs to infrared radiation health care technical field, concretely relates to a kind of infrared radiation light wave bathroom.It includes bathroom, is provided with automatic sterilization purification module on the bathroom, and the automatic sterilization purification module includes ozone sterilization system and ozone degradation discharge system;First infrared radiation plate is respectively installed on the left side wall board, right side wall board, rear side wall board and door body inner side of the bathroom, the inner bottom of the bathroom is installed with two second infrared radiation plate and third infrared radiation plate being separately arranged, infrared physiotherapy stool is placed on the second infrared radiation plate, and footrest is placed on the third infrared radiation plate.In the utility model, the linkage design of ozone sterilization system and degradation discharge module constructs complete disinfection closed loop;Three-dimensional radiation network formed by first infrared radiation plate, second infrared radiation plate and third infrared radiation plate can also realize differentiated heat therapy.

Description

Technical Field

[0001] This utility model belongs to the field of infrared radiation health care technology, and specifically relates to an infrared radiation light wave bath room. Background Technology

[0002] The technology of infrared radiation light wave bath rooms is constantly developing.

[0003] The integration of the intelligent control system became a key turning point. A precise temperature control module based on PID algorithms can control the temperature fluctuations inside the chamber within ±0.5℃. Simultaneously, the application of IoT technology enables remote monitoring and storage of personalized treatment plans. In materials science, nanoporous ceramic coating technology increased infrared emissivity from 0.7 to 0.95, achieving an energy utilization rate exceeding 85%.

[0004] The high temperature and humidity environment inside a light wave bathing room provides an ideal breeding ground for bacteria, fungi, and viruses. After 10 uses, unsterilized bathing rooms can harbor pathogenic microorganisms such as methicillin-resistant Staphylococcus aureus (MRSA) and Candida albicans on their inner walls, with concentrations exceeding five times the safety standards for medical environments. For individuals with weakened immune systems, these pathogens can trigger skin infections and even systemic inflammatory responses. In shared settings, residual sweat and skin flakes significantly increase the probability of HPV and herpes virus transmission. Therefore, sterilizing used infrared radiation light wave bathing rooms is a crucial technical problem that this invention aims to solve. Utility Model Content

[0005] In view of this, the present invention provides an infrared radiation light wave bath room.

[0006] To solve the above-mentioned technical problems, the technical solution adopted by this utility model is as follows:

[0007] An infrared radiation light wave bath room includes a bathroom, which is equipped with an automatic sterilization and purification module, which includes an ozone sterilization system and an ozone degradation and emission system. First infrared radiation panels are respectively installed on the left side wall panel, right side wall panel, rear side wall panel and inner side of the door of the bathroom. Two second infrared radiation panels and a third infrared radiation panel are installed at the bottom of the bathroom, which are spaced apart. An infrared therapy stool is placed on the second infrared radiation panel and a footstool is placed on the third infrared radiation panel.

[0008] Furthermore, the ozone sterilization system includes multiple air inlets on the left side wall panel of the bathroom, and the multiple air inlets are respectively connected to the main air inlet pipe through sub-air inlet pipes. The air inlet end of the main air inlet pipe is connected to the ozone generator.

[0009] Furthermore, the main intake pipe is equipped with a pressure reducing valve, a first centrifugal fan, and a first shut-off valve, and a first one-way valve is installed on each of the multiple sub-intake pipes; two guide plates are obliquely arranged on the sub-intake pipes that are arranged opposite to the main intake pipe, and the two guide plates are respectively arranged on the upper end face and the lower end face of the intake port of the sub-intake pipe.

[0010] Furthermore, the ozone degradation emission system includes an air outlet on the right side wall panel of the bathroom, the air outlet being connected to a first air outlet pipe, the end of the first air outlet pipe being connected to a reaction chamber, and the reaction chamber being connected to a second air outlet pipe; a second one-way valve is installed on the first air outlet pipe, and a second shut-off valve is installed on both the first air outlet pipe and the second air outlet pipe.

[0011] Furthermore, the first exhaust pipe has a multi-section bend structure, and multiple manganese-based catalytic modules and multiple activated carbon filters are sequentially and spaced apart inside the first exhaust pipe; a second centrifugal fan is installed inside both the first exhaust pipe and the second exhaust pipe.

[0012] Furthermore, a first wall-mounted fan is installed on the ceiling of the bathroom; both the bathroom and the reaction chamber are equipped with ozone concentration sensors and temperature control sensors; a human presence sensor is also installed in the bathroom; a smart door lock is installed on the bathroom door; and a display timer is installed on the outer surface of the door.

[0013] Furthermore, a second wall-mounted fan is installed inside the reaction chamber; a heating rod is also installed inside the reaction chamber.

[0014] Furthermore, a control box is also installed on the outer surface of the bathroom. The control box is connected to the smart door lock, display timer, multiple first infrared radiation panels, second infrared radiation panels, third infrared radiation panels, ozone generator, first centrifugal fan, two second centrifugal fans, first wall-mounted fan, second wall-mounted fan, heating rod, temperature control sensor, human presence sensor, first shut-off valve, and second shut-off valve.

[0015] Furthermore, the bathroom door is also equipped with a transparent observation window and a control panel; the control panel is equipped with a power switch button, a start treatment button, a stop treatment button, a sterilization button, and a temperature adjustment button, and the control panel is also connected to the control box.

[0016] Furthermore, ventilation holes are evenly distributed on the surface of the infrared therapy stool and the footrest.

[0017] The beneficial effects of this utility model are as follows:

[0018] The integrated design of the ozone sterilization system and the degradation emission module creates a complete disinfection closed loop. During the sterilization stage, ozone can effectively kill pathogenic microorganisms attached to wall panels and bench surfaces; during the degradation stage, manganese-based catalytic technology decomposes residual ozone to a safe threshold within 5 minutes, avoiding the risk of inhalation for users.

[0019] The three-dimensional radiation network formed by the first, second, and third infrared radiation plates enables differentiated thermotherapy. The first radiation plate primarily acts on the trunk muscle group, promoting deep blood circulation; the second and third infrared radiation plates specifically heat the lower limbs and feet, respectively, improving peripheral circulation disorders. Attached Figure Description

[0020] Figure 1 This is an overall schematic diagram of the present invention. Figure 1 (Close the bathroom door).

[0021] Figure 2 This is an overall schematic diagram of the present invention. Figure 2 (Open the bathroom door).

[0022] Figure 3 This is a schematic diagram of the guide plate of this utility model.

[0023] Figure 4 This is a schematic diagram of the first air outlet pipe of this utility model.

[0024] Figure 5 This is a partial sectional view of the reaction chamber of this utility model.

[0025] Figure 6 This is a schematic diagram of the electrical connection of this utility model.

[0026] The attached diagram shows: 1: Bathroom; 2: First infrared radiation panel; 3: Second infrared radiation panel; 4: Third infrared radiation panel; 5: Infrared therapy stool; 6: Footstool; 7: Main air intake pipe; 8: Sub-air intake pipe; 9: Ozone generator; 10: Pressure reducing valve; 11: First centrifugal fan; 12: First shut-off valve; 13: First one-way valve; 14: Deflector plate; 15: First air outlet pipe; 16: Second air outlet pipe; 17: Reaction chamber; 18: Manganese-based catalytic module. Block 19: Second one-way valve; Block 20: Second shut-off valve; Block 21: Activated carbon filter; Block 22: Second centrifugal fan; Block 23: First wall-mounted fan; Block 24: Ozone concentration sensor; Block 25: Temperature control sensor; Block 26: Human presence sensor; Block 27: Smart door lock; Block 28: Display timer; Block 29: Second wall-mounted fan; Block 30: Heating rod; Block 31: Control box; Block 32: Control panel; Block 33: Color-changing light; Block 34: Observation window; Block 35: Pressure sensor. Detailed Implementation

[0027] To further illustrate the technical means and effects of this utility model in order to achieve its intended purpose, the following detailed description of the specific implementation methods, structure, features and effects of this utility model is provided in conjunction with the accompanying drawings and preferred embodiments.

[0028] It should be noted that the terms "first," "second," etc., used in the specification and claims of this application are used to distinguish similar objects, rather than to describe a specific order or sequence. It should be understood that such terms can be used interchangeably where appropriate.

[0029] It should be noted that, in this application, unless otherwise stated, directional terms such as "upper," "lower," "top," and "bottom" are generally used in relation to the direction shown in the accompanying drawings, or in relation to the vertical, perpendicular, or gravitational direction of the component itself; similarly, for ease of understanding and description, "inner" and "outer" refer to the inner and outer contours of each component itself, but the above directional terms are not used to limit this utility model.

[0030] Example

[0031] like Figure 1-6 As shown, this embodiment specifically discloses an infrared radiation light wave bathroom. It includes a bathroom 1.

[0032] The bathroom 1 is equipped with multiple infrared radiation panels, including a first infrared radiation panel 2, a second infrared radiation panel 3, and a third infrared radiation panel 4. The first infrared radiation panel 2 is installed on the left, right, and rear wall panels and the inner side of the door of bathroom 1. Two spaced-apart second infrared radiation panels 3 and 4 are installed at the bottom interior of bathroom 1. An infrared therapy stool 5 is placed on the second infrared radiation panel 3, and a footrest 6 is placed on the third infrared radiation panel 4. Ventilation holes are provided on the surfaces of both the infrared therapy stool 5 and the footrest 6. The first infrared radiation panels 2 on the inner wall of bathroom 1 can act on the trunk muscle groups, promoting deep blood circulation; the second and third infrared radiation panels 3 and 4 at the bottom can specifically heat the lower limbs, improving peripheral circulation disorders. The ventilation holes on the infrared therapy stool 5 and footrest 6 allow the heat generated by the second and third infrared radiation panels 3 and 4 at the bottom to directly reach the buttocks and feet, providing a therapeutic effect.

[0033] The bathroom 1 is equipped with an automatic sterilization and purification module, which includes an ozone sterilization system and an ozone degradation and emission system. The ozone sterilization system is used to introduce ozone into the bathroom 1 to sterilize and disinfect it; the ozone degradation and emission system is used to extract and decompose the ozone gas contained in the bathroom 1, and then release it into the air.

[0034] In this embodiment, the ozone sterilization system includes three air inlets on the left side wall panel of the bathroom 1. The three air inlets are respectively connected to the main air inlet 7 through sub-air inlet pipes 8. The air inlet end of the main air inlet 7 is connected to the ozone generator 9.

[0035] The main intake duct 7 is equipped with a pressure reducing valve 10, a first centrifugal fan 11, and a first shut-off valve 12. The pressure reducing valve 10 integrates overpressure relief; it automatically opens to release air when a blockage is detected at the downstream end, preventing duct rupture. The first centrifugal fan 11 provides an airflow of 8-12 m³ / min to overcome the flow resistance of ozone in the duct. The first shut-off valve 12 and the second shut-off valve 20 (discussed later) can both be electric ball valves for hard shut-off of the gas path, locking within 0.5 seconds in case of equipment maintenance or ozone leakage, ensuring high safety. Three sub-intake ducts 8 are equipped with first one-way valves 13, which eliminate ineffective circulation caused by gas backflow. Two guide plates 14 are obliquely arranged on the sub-intake ducts 8 opposite to the main intake duct 7. The two guide plates 14 are respectively located on the upper and lower ends of the inlet of the sub-intake duct 8, dividing the air outlet of the main intake duct 7 into three equal parts with approximately equal cross-sectional areas. This design prevents excessive airflow from the main intake duct 7 from flowing into the middle sub-intake duct 8, ensuring that the airflow into the three sub-intake ducts 8 is as similar as possible. The shape of the baffle 14 can be a straight plate or a curved plate, as long as it can divide the air outlet of the main intake duct 7 into three equal parts.

[0036] The ozone degradation emission system includes an air outlet located on the right wall panel of the bathroom 1. The air outlet is connected to a first air outlet pipe 15, the end of which is connected to a reaction chamber 17. A second air outlet pipe 16 is also connected to the reaction chamber 17. The reaction chamber 17 has heating and airflow circulation functions, and also contains a manganese-based catalytic module 18. This module extracts the ozone used for sterilization and disinfection in the bathroom into the reaction chamber 17 for further catalysis, and then discharges the low-concentration ozone gas after catalytic decomposition into the air. A second one-way valve 19 is installed on the first air outlet pipe 15 to prevent backflow; both the first air outlet pipe 15 and the second air outlet pipe 16 are equipped with second shut-off valves 20.

[0037] The first outlet pipe 15 has a multi-section bend structure. This design can slow down the airflow velocity to a certain extent, allowing the ozone-containing airflow to fully contact the manganese-based catalytic module 18 and perform preliminary catalytic decomposition. Four manganese-based catalytic modules 18 and three activated carbon filters 21 are sequentially spaced within the first outlet pipe 15. A second centrifugal fan 22 is installed in both the first outlet pipe 15 and the second outlet pipe 16. In this embodiment, the manganese-based catalytic module 18 can be installed by designing a flange-connected catalytic section, i.e., the pipe is designed with a detachable flange end, with each section embedding a manganese-based catalytic module 18. In this application, the manganese-based catalytic module 18 can be made of MnO2-CeO2 honeycomb ceramic.

[0038] A wall-mounted fan 23 is installed on the ceiling of bathroom 1 to promote airflow within the bathroom. Both bathroom 1 and the reaction chamber 17 are equipped with an ozone concentration sensor 24 and a temperature control sensor 25 to monitor the ozone concentration and temperature within the reaction chamber 17 in real time. A human presence sensor 26 is also installed in bathroom 1. A smart door lock 27 is installed on the door of bathroom 1, and a display timer 28 is installed on the outer surface of the door. The smart door lock can be a Samsung SHP-DH538 door lock, which has a temperature resistance of 85℃ for continuous operation and Wi-Fi 6 remote control functionality.

[0039] A second wall-mounted fan 29 is installed inside the reaction chamber 17; a heating rod 30 is also installed inside the reaction chamber 17, which can raise the temperature inside the reaction chamber 17 and improve the ozone catalytic efficiency.

[0040] A control box 31 is also installed on the outer surface of the bathroom 1. In this application, the control box can be a Siemens S7-1200 PLC control cabinet. The control box 31 is connected to the smart door lock 27, display timer 28, multiple first infrared radiation panels 2, second infrared radiation panels 3, third infrared radiation panels 4, ozone generator 9, first centrifugal fan 11, two second centrifugal fans 22, first wall-mounted fan 23, second wall-mounted fan 29, heating rod 30, temperature control sensor 25, human presence sensor 26, ozone concentration sensor 24, first shut-off valve 12, and second shut-off valve 20.

[0041] The bathroom 1 door is also equipped with a transparent observation window 34 and a control panel 32. The control panel 32 is equipped with a power switch button, a start treatment button, a stop treatment button, a sterilization button, and a temperature adjustment button. The control panel 32 is also equipped with a color-changing light 33. The control panel 32 is also connected to the control box 31.

[0042] In this embodiment, the working principle and steps of the infrared radiation light wave bath room during the treatment phase are as follows:

[0043] Click the power switch button on control panel 32 to put all systems in the light wave bath room into standby mode.

[0044] Next, click the Start Treatment button, and then use the "+" and "-" buttons on the Timer 28 display to adjust the treatment time. For acute pain relief or recovery after exercise, you can set it to 15-20 minutes per session, and for chronic diseases, you can set it to 30-40 minutes per session. The longest adjustable duration for a single session is no more than 45 minutes.

[0045] Click the temperature adjustment button on control panel 32. Upon first click, the color-changing light 33 on control panel 32 will turn green, indicating that the infrared radiation plate temperature range during treatment is 38-40℃. Clicking the button again will turn the light yellow, indicating a temperature range of 41-43℃. Clicking it again will turn the light red, indicating a temperature range of 44-45℃. Clicking the button again will turn the light yellow again. To adjust the temperature range, simply change the light to the corresponding color. The 38-40℃ temperature range is suitable for the elderly or those at cardiovascular risk, as it raises core temperature by ≤1℃, safely reducing blood pressure. The 41-43℃ temperature range is suitable for routine physiotherapy, raising the temperature of deep epidermal tissues by 2-3℃ and increasing collagen extensibility by 35%. The 44-45℃ temperature range is suitable for athletes undergoing high-intensity recovery, as it causes a twofold increase in heat shock protein expression.

[0046] After the temperature is selected, click the start treatment button again. The therapist can enter the shower room. When the therapist closes the door, the human presence sensor 26 installed in the shower room senses the presence of someone and sends a signal to the control box 31. The control box 31 controls the first infrared radiation plate 2, the second infrared radiation plate 3, and the third infrared radiation plate 4 located in the bathroom 1 to open, thereby performing the therapy operation.

[0047] Once the physiotherapy begins, the countdown timer 28 located outside bathroom 1 will be displayed, and outsiders can also check the situation through the observation window 34. If the person inside feels unwell, they can directly open the door to bathroom 1 by manually turning the smart door lock 27. After the physiotherapy is completed, the infrared radiation panel will stop operating, and the person receiving the physiotherapy can leave on their own.

[0048] In this embodiment, the working principle and steps of the infrared radiation light wave bath room during the sterilization stage are as follows:

[0049] First, press the power switch button on the control panel 32 to put all systems in the light wave bath room into standby mode;

[0050] The second step is to click the sterilization button, and then use the "+" and "-" buttons on the timer 28 to adjust the sterilization time. For routine preventative sterilization, the action time can be set to 10-15 minutes, at which time the ozone concentration emitted by the ozone generator 9 is 0.02-0.03 ppm. For high-intensity medical-grade sterilization, the action time can be set to 20-30 minutes, at which time the ozone concentration is 0.05-0.08 ppm, which is suitable for weekly periodic deep cleaning.

[0051] Third, click the sterilization button again, and the control box 31 controls the smart door lock 27 to lock; the second shut-off valves 20 on the first air outlet pipe 15 and the second air outlet pipe 16 are both open, and the two second centrifugal fans 22 are turned on, so that the air in the bathroom 1 is discharged sequentially through the first air outlet pipe 15 and the second air outlet pipe 16 to form a -20Pa slight negative pressure, and 30% of the original gas is discharged. At this time, ozone has not yet been injected. In this application, in order to monitor the pressure value in the bathroom 1, a piezoresistive pressure sensor 35 can be installed on the top of the bathroom 1. The piezoresistive pressure sensor 35 is also connected to the control box 31; after the discharge is completed, the second centrifugal fans 22 are turned off and the second shut-off valves 20 are closed.

[0052] Fourth step, the control box 31 controls the ozone generator 9 to input ozone-containing gas into the main air intake pipe 7. Driven by the first centrifugal fan 11, the gas enters the bathroom 1 through the three sub-air intake pipes 8. When a slight positive pressure of +5Pa-15Pa is formed in the bathroom 1, and the ozone concentration meets the requirements of 0.02-0.03ppm or 0.05-0.08ppm, the ozone generator 9 stops supplying gas, and the first shut-off valve 12 closes.

[0053] Fifth step, wait 8-12 minutes or 15-25 minutes. During this process, the heating rod 30 in the reaction chamber 17 begins to preheat, and the second wall-mounted fan 29 is turned on to make the reaction chamber 17 fully heated. During this process, the two second shut-off valves 20 remain in the shut-off state.

[0054] Step 6: After the aforementioned time has elapsed, the second shut-off valve 20 on the first outlet pipe 15 is opened, the second centrifugal fan 22 on the first outlet pipe 15 is turned on, and the first wall-mounted fan 23 on the ceiling of bathroom 1 is turned on to promote gas mixing in bathroom 1. The mixed gas in bathroom 1 is discharged from the first outlet pipe 15 after preliminary catalysis into the reaction chamber 17. The reaction chamber 17 is also equipped with a catalytic module, which is then heated and catalyzed again in the reaction chamber 17. It should be noted that, in order to ensure catalytic efficiency, the outlet of the first outlet pipe 15 on the reaction chamber 17 is located at the top of the reaction chamber 17 near the edge, and the inlet of the second outlet pipe 16 is located at the lower part of the side wall of the reaction chamber 17. This setting can prevent the gas that has just entered the reaction chamber 17 from being discharged directly, allowing for a certain catalytic waiting time.

[0055] Step 7: After waiting for 15 seconds, the second shut-off valve 20 on the second outlet pipe 16 opens, and the ozone generator 9 introduces air into the bathroom 1, continuing to promote the gas in the bathroom 1 to pass through the first outlet pipe 15 for preliminary catalysis and then into the reaction chamber 17. However, since the ozone concentration in the bathroom 1 has already decreased, the gas entering the reaction chamber 17 this time is directly discharged through the second outlet pipe 16 after mixing. During this discharge process, the second centrifugal fan 22 on the second outlet pipe 16 is not started, so as to slow down the gas extraction and discharge speed in the second outlet pipe 16 as much as possible.

[0056] Step 8: When the ozone concentration sensor 24 in bathroom 1 detects that the ozone concentration in bathroom 1 is lower than 0.01ppm, the controller stops the heating rod 30 from working and turns on the second centrifugal fan 22 on the second air outlet pipe 16. After the timer 28 is up, the controller stops the ozone generator 9 and other devices from working, closes the first stop valve 12 and the second stop valve 20, and opens the smart door lock 27 to complete the sterilization and disinfection.

[0057] Additionally, it should be noted that, to ensure the safety of indoor users as much as possible, the outlet of the second gas outlet pipe can be directly connected to the outside, further protecting the health of indoor personnel. In this application, an ozone concentration sensor can also be installed simultaneously inside the reaction chamber. To ensure a low ozone concentration in the final discharged gas, the second shut-off valve on the second gas outlet pipe can be periodically controlled during the ozone catalysis process, thereby controlling the residence time of the mixed gas in the reaction chamber and improving the catalytic decomposition efficiency.

[0058] The above description is merely a preferred embodiment of the present utility model and is not intended to limit the present utility model in any way. Although the present utility model has been disclosed above with reference to preferred embodiments, it is not intended to limit the present utility model. Any person skilled in the art can make some modifications or alterations to the above-disclosed technical content to create equivalent embodiments without departing from the scope of the present utility model. Any simple modifications, equivalent changes and alterations made to the above embodiments based on the technical essence of the present utility model without departing from the scope of the present utility model shall still fall within the scope of the present utility model.

Claims

1. An infrared radiation light wave bath room, comprising a bathroom, characterized in that, The bathroom is equipped with an automatic sterilization and purification module, which includes an ozone sterilization system and an ozone degradation and emission system. The left side wall panel, right side wall panel, rear side wall panel and inner side of the door of the bathroom are respectively equipped with a first infrared radiation panel. The bottom of the bathroom is equipped with two second infrared radiation panels and a third infrared radiation panel that are spaced apart. An infrared therapy stool is placed on the second infrared radiation panel and a footstool is placed on the third infrared radiation panel.

2. An infrared radiation light wave bath room according to claim 1, characterized in that, The ozone sterilization system includes multiple air inlets on the left side panel of the bathroom. Each of the multiple air inlets is connected to a main air inlet via a sub-air inlet pipe. The air inlet end of the main air inlet pipe is connected to an ozone generator.

3. An infrared radiation light wave bath room according to claim 2, characterized in that, The main intake pipe is equipped with a pressure reducing valve, a first centrifugal fan, and a first shut-off valve. Multiple sub-intake pipes are equipped with first one-way valves. Two guide plates are obliquely arranged on the sub-intake pipes that are arranged opposite to the main intake pipe. The two guide plates are respectively arranged on the upper end face and the lower end face of the intake port of the sub-intake pipe.

4. An infrared radiation light wave bath room according to claim 3, characterized in that, The ozone degradation emission system includes an air outlet on the right side wall panel of the bathroom, the air outlet being connected to a first air outlet pipe, the end of the first air outlet pipe being connected to a reaction chamber, and a second air outlet pipe being connected to the reaction chamber; a second one-way valve is installed on the first air outlet pipe, and a second shut-off valve is installed on both the first air outlet pipe and the second air outlet pipe.

5. An infrared radiation light wave bath room according to claim 4, characterized in that, The first exhaust pipe has a multi-section bend structure, and multiple manganese-based catalytic modules and multiple activated carbon filters are sequentially and spaced apart inside the first exhaust pipe; a second centrifugal fan is installed in both the first exhaust pipe and the second exhaust pipe.

6. An infrared radiation light wave bath room according to claim 5, characterized in that, The bathroom is equipped with a first wall-mounted fan on the ceiling; both the bathroom and the reaction chamber are equipped with ozone concentration sensors and temperature control sensors; the bathroom is also equipped with a human presence sensor; the bathroom door is equipped with a smart door lock; and the outer surface of the door is equipped with a display timer.

7. An infrared radiation light wave bath room according to claim 6, characterized in that, A second wall-mounted fan is installed inside the reaction chamber; a heating rod is also installed inside the reaction chamber.

8. An infrared radiation light wave bath room according to claim 7, characterized in that, The bathroom's outer surface is also equipped with a control box, which is connected to the smart door lock, display timer, multiple first infrared radiation panels, second infrared radiation panels, third infrared radiation panels, ozone generator, first centrifugal fan, two second centrifugal fans, first wall-mounted fan, second wall-mounted fan, heating rod, temperature control sensor, human presence sensor, first shut-off valve, and second shut-off valve.

9. An infrared radiation light wave bath room according to claim 8, characterized in that, The bathroom door is also equipped with a transparent observation window and a control panel; the control panel is equipped with a power switch button, a start treatment button, a stop treatment button, a sterilization button, and a temperature adjustment button, and the control panel is also connected to the control box.

10. An infrared radiation light wave bath room according to claim 1, characterized in that, Ventilation holes are evenly distributed on the surface of the infrared therapy stool and the footrest.

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