Anti-cold light wave room and control system thereof

By designing an automated door lock and temperature control system in the light wave room, the problem of unintelligent temperature regulation of the light wave room is solved, and the temperature of the outer room increases after the sauna is over, avoiding cold catching, and improving user experience and health effects.

CN119083777APending Publication Date: 2024-12-06缪连武
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Patent Information

Application Number
CN202411031077.5
Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
Filing Date
2024-07-30
Publication Date
2024-12-06

AI Technical Summary

Technical Problem

The existing light wave room temperature control system is not smart and has poor user experience, which causes people to catch a cold after coming out of the light wave room, which affects their health.

Method used

A cooling-proof light wave room and its control system are designed, including the inner and outer room bodies and an automated door lock system. It uses programmable controllers, far infrared heaters, electric heaters, temperature sensors and timers to automatically adjust the inner and outer room bodies. Temperature, ensure that the temperature of the outer room increases after the sauna and avoid catching a cold.

Benefits of technology

Through the automatic control system, people are effectively avoided from catching a cold, improved user experience, and ensured human health. It also provides reminders at the end of the sauna to facilitate people to enter the rest area.

✦ Generated by Eureka AI based on patent content.

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    Figure CN119083777A_ABST
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Abstract

The invention relates to an anti-cold light wave room which comprises an inner room body and an outer room body. A door opening is reserved in one side wall of the outer room body, a first room door is arranged in the door opening, two side walls, adjacent to the first room door, of the outer room body are heat preservation wall bodies, a roof is arranged on the top of the outer room body, and a floor is arranged at the bottom of the outer room body. The inner room body is communicated with the outer room body, a partition is arranged at the communication position of the inner room body and the outer room body, the other three side walls of the inner room body are heat preservation wall bodies, a roof is arranged at the top of the inner room body, and a floor is arranged at the bottom of the outer room body. The invention further comprises an anti-cold light wave room system which is used for controlling the temperature of the inner room body and the outer room body of the anti-cold light wave room. The invention mainly aims to provide an anti-cold light wave room and a control system thereof. The technical problems that an existing light wave room temperature control system is not intelligent and poor in use experience are solved.
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Description

Technical Field

[0001] The present invention relates to a light wave room, in particular to a light wave room for preventing cold and a control system thereof. Background Art

[0002] Light wave rooms are gaining widespread use as a new healthcare product. Using far-infrared radiation ranging from 5.6 to 15 microns as its primary energy source and employing low-temperature sweating technology, they offer beneficial health benefits. However, due to the high temperatures inside these rooms, users are susceptible to catching a cold upon exiting, which seriously impacts their health. Existing temperature control systems for light wave rooms require manual adjustment and lack automation, so users may forget to adjust the temperature, impacting their user experience. Summary of the Invention

[0003] The main purpose of the present invention is to provide a cold prevention light wave room and its control system, which solves the technical problems of the existing light wave room temperature control system being unintelligent and having poor user experience.

[0004] In order to achieve the above-mentioned purpose, the present invention provides a light wave room for preventing cold, comprising an inner room body and an outer room body; A door opening is reserved on one side wall of the outer room, and a first door is arranged in the door opening. The two side walls of the outer room adjacent to the first door are insulation walls. A roof is arranged on the top of the outer room, and a floor is arranged on the bottom of the outer room. The inner room is connected to the outer room, and there is a partition at the connection between the inner and outer rooms. The other three side walls of the inner room are insulated walls. The top of the inner room is covered with a roof, and the bottom of the outer room is covered with a floor.

[0005] Preferably, the first door includes a fixed leaf, a movable leaf, a door lock and a door frame; The door frame is fixedly installed inside the door opening; One end of the door frame is fixedly connected to the fixed leaf; The top and bottom of the door frame are both fixed with slide rails, which are slidably connected to the movable door. A lock hole is opened on one side of the movable door. The door lock is installed on one side wall of the door frame, inside the door frame, away from the fixed door leaf, and a baffle is fixed to the outside of the door lock. The door lock is inserted into the lock hole to fix the movable door leaf.

[0006] Preferably, limiting cavities are provided at both the upper and lower ends of the keyhole; The door lock includes a first motor, a lead screw, a first slider, and a first bolt; The first motor is fixedly connected to the inner side wall of the door frame. The output end of the first motor extends upward and is connected to the lead screw drive. The lead screw is threadedly connected to the first slider. The first slider is fixedly connected to the first pin. The first pin is inserted into the limiting cavity at the lower end of the lock hole.

[0007] Preferably, the door lock also includes a second slider and a second latch; The lower and upper ends of the lead screw body are respectively provided with a forward thread and a reverse thread; The first slider is threadedly connected to the screw rod at the forward thread, the second slider is threadedly connected to the screw rod at the reverse thread, the second slider is fixedly connected to the second latch, and the second latch is inserted into the limiting cavity at the upper end of the lock hole; The baffle has a vertical groove, and both the first pin and the second pin extend through the vertical groove to the outside of the baffle.

[0008] Preferably, the door lock also includes a manual adjustment component, which includes a first bevel gear, a second bevel gear, and a knob; The first bevel gear is connected to the screw key, the first bevel gear is meshed with the second bevel gear, the second bevel gear is arranged horizontally, the second bevel gear is connected to the knob key, the knob passes through the door frame, and one end of the knob extends to the interior of the outer room body.

[0009] Preferably, the partition is a second door, which has the same structure as the first door, and the knob of the second door extends into the interior of the inner room.

[0010] Preferably, a pop-out component is provided at the connection between the door frame and the movable leaf. The pop-out component includes an electromagnet and a permanent magnet. The electromagnet is fixedly connected to the door frame, and the permanent magnet is fixedly connected to the movable leaf. When the fan is closed, the permanent magnet and the electromagnet come into contact; when the electromagnet is energized, the electromagnet and the permanent magnet repel each other.

[0011] The present invention also discloses a control system for a light wave room for preventing cold, comprising a programmable controller, a far infrared heater, an electric heater, a first motor, a second motor, a sound system, an electromagnet, a timer, a first temperature sensor and a second temperature sensor; The programmable controller is connected to the far-infrared heater via a signal, and the far-infrared heater is located inside the inner chamber. The programmable controller is connected to the electric heater via a signal, and the electric heater is located inside the outer chamber. The programmable controller is connected to the first motor via a signal, and the first motor is used to drive the door lock of the first room door; The programmable controller is connected to the second motor via a signal, and the second motor is used to drive the door lock of the second room door; The programmable controller is connected to the audio signal, and the audio system is located inside the room. The programmable controller is connected to the electromagnet signal; The timer is connected to the programmable controller signal; The first temperature sensor is installed inside the inner chamber. The first temperature sensor is connected to the programmable controller. The first temperature sensor and the far-infrared heater work simultaneously. The second temperature sensor is installed inside the outer chamber and is connected to the programmable controller. The second temperature sensor and the electric heater work simultaneously.

[0012] Preferably, the programmable controller is preset with temperature T1 and temperature T2, the first temperature sensor monitors temperature T3, the second temperature sensor monitors temperature T4, and the programmable controller is also preset with time t1 and time t2, and the timer records time t3. After personnel enter the inner room and close the second door, they manually activate the far-infrared heater. When T3 equals T1, the programmable controller sends a signal, and the timer starts counting from zero. Simultaneously, the first temperature sensor begins monitoring the temperature. Throughout the entire process, timer 76 counts from zero only once. When T3 < T1-1℃ and t3 < t1, the far-infrared heater continues to heat, and the temperature of the inner chamber rises. When T1-1℃≤T3≤T1+1℃ and t3≤t1, the far-infrared heater maintains the temperature, and the temperature of the inner chamber remains constant. When T3 > T1+1℃ or t3 > t1, the far-infrared heater stops working and the inner chamber cools down. When t2>t3≥t1-10min, the programmable controller sends a signal, the electric heater starts heating, the second temperature sensor starts monitoring the temperature, and the temperature of the outer chamber rises; When t3 < t2 and T4 < T2-1℃, the electric heater heats the outer chamber, and the temperature of the outer chamber increases. When t3 = t1, the programmable controller sends a signal, the second motor starts, the lock of the second room door opens, the electromagnet is powered, the movable door of the second room door is opened, the sound emits the first prompt tone, and the personnel enter the outer room. While the personnel are in the outer room, they eat a nutritious meal. When t3≤t2 and T2-1℃≤T4≤T2+1℃, the electric heater maintains the temperature, and the temperature of the outer chamber remains constant. When t3 > t2 or T4 > T2 + 1℃, the programmable controller sends a signal, the electric heater stops heating, the first motor starts, the lock of the first door opens, the electromagnet is powered, the movable door of the first door opens, and the second prompt tone is emitted.

[0013] Preferably, 45min≤t1≤60min; 100min≤t2-t1≤130min; t1+t2≥180min 38℃≤T1≤45℃, 7℃≤T1-T2≤10℃.

[0014] The beneficial effects achieved by the present invention are: The inner chamber of this invention is a far-infrared sauna area, and the outer chamber is a heated rest area. After people finish sauna in the inner chamber, they can enter the outer chamber to rest. The temperature of the outer chamber is higher than the general indoor temperature, which can effectively prevent people from catching a cold and is beneficial to human health.

[0015] The movable fan and door lock in this invention work together. By setting the door lock, the movable fan is fixed to the door frame, thereby playing a role in heat preservation. The rotation of the motor can realize the automatic unlocking of the door lock, which is convenient to use. The door lock also includes a manual adjustment structure. The door lock can be opened by turning the knob, which prevents the door lock from being unable to open in the event of a power outage. This invention also realizes the automatic pop-out after the door is unlocked by the cooperation of electromagnet and permanent magnet.

[0016] This invention controls the sauna temperature of the inner chamber through a control system, ensuring that the temperature remains within a suitable sauna range. A timer records the sauna time. When the sauna is about to end, the programmable controller activates the electric heater to warm the outer chamber. When the sauna time is over, the second door automatically opens, and an audible alert reminds the user that the sauna is finished and they can enter the outer chamber to rest. Because the outer chamber has been preheated, users are protected from catching a cold. Once the user's sweat has completely evaporated, the first door automatically opens, and an audible alert reminds the user that they can exit the outer chamber. This control system automatically controls the temperature of the sauna and is easy to use. Attached Figure Description

[0017] The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0018] Figure 1 This is a schematic diagram of a light wave room for preventing cold exposure, which is a specific embodiment of the present invention. Figure 2 yes Figure 1 Enlarged view of part A in the middle; Figure 3 This is another schematic diagram of a light wave room for preventing cold exposure, which is a specific embodiment of the present invention. Figure 4 yes Figure 3 Enlarged view of section B; Figure 5 Schematic diagram of a door lock disclosed in a specific embodiment of the present invention; Figure 6 This is another schematic diagram of a light wave room for preventing cold exposure, which is a specific embodiment of the present invention. Figure 7 yes Figure 6 Enlarged view of section C; Figure 8 This is a schematic diagram of the control system for a light wave room designed to prevent catching a cold, as disclosed in a specific embodiment of the present invention.

[0019] Description of reference numerals: 1. Inner chamber; 2. Outer chamber; 21. First door; 211. Fixed door; 212. Movable door; 2121. Lock hole; 213. Door lock; 2131. First motor; 2132. Lead screw; 21321. Forward thread; 21322. Reverse thread; 2133. First slider; 2134. First pin; 2135. Second slider; 2136. Second pin; 2137. First bevel gear; 2138. Second bevel gear; 2139. Knob; 214. Slide rail; 215. Door frame; 216. Baffle; 2161. Vertical groove; 22. Insulated wall; 3. Partition; 4. Sauna chair; 5. Lounge chair; 6. Pop-out assembly; 61. Electromagnet; 62. Permanent magnet; 71. Far-infrared heater; 72. Electric heater; 73. Audio system; 74. Second motor; 75. Programmable controller; 76. Timer; 77. First temperature sensor; 78. Second temperature sensor. DETAILED DESCRIPTION

[0020] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Many specific details are set forth in the following description to provide a thorough understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Those skilled in the art can make similar extensions without departing from the spirit of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.

[0021] like Figure 1-Figure 7 As shown, this invention discloses a light wave room for preventing cold exposure, comprising an inner room 1 and an outer room 2. The inner room 1 is a sauna area, equipped with sauna chairs 4 and other accessories. The bottom of the inner room 1 is a wooden floor, and the top is a wooden roof. The three side walls of the inner room 1 are wooden insulated walls 22. The inner room 1 is connected to the outer room 2, and a partition 3 is provided at the connection point. The two side walls of the outer room 2 adjacent to the partition 3 are wooden insulated walls 22. The top of the outer room 2 is a wooden roof, and the bottom is a wooden floor. Please refer to [reference needed]. Figure 1 and Figure 3 A doorway is reserved on the side wall of the outer room 2 away from the inner room 1. The first door 21 is installed in the doorway, and a rest chair 5 is placed inside the outer room 2.

[0022] Please continue to refer to Figure 1 、 Figure 2 and Figure 3 The first door 21 can be a sliding door, including a fixed door 211, a movable door 212, a door lock 213, and a door frame 215. The door frame 215 is fixedly installed in the doorway reserved in the outer body 2, so as to... Figure 1For example, the left end of the door frame 215 is fixedly connected to the fixed fan 211, and the fixed fan 211 will not be opened after installation. The top and bottom of the door frame 215 are fixed with slide rails 214, which are slidably connected to the movable fan 212. When the movable fan 212 slides to Figure 1 At the far right, the doorway is completely covered by the movable door panel 212 and the fixed door panel 211. Please refer to [reference needed]. Figure 3 A lock hole 2121 is provided on the right side of the movable fan 212. Please refer to [further details]. Figure 1 and Figure 2 A door lock 213 is fixedly arranged in the frame on the right side of the door frame 215, and a baffle 216 is arranged outside the door lock 213. The baffle 216 begins to have a vertical groove 2161. When the door lock 213 locks the movable fan 212, the door lock 213 is inserted in the lock hole 2121.

[0023] For one implementation method of door lock 213, please refer to Figure 5 The door lock 213 includes a first motor 2131, a lead screw 2132, a first slider 2133, and a first pin 2134. The first motor 2131 is fixedly connected to the inner wall of the door frame 215. The output end of the first motor 2131 extends upward and is connected to the lead screw 2132 via a coupling, meaning the first motor 2131 can drive the lead screw 2132 to rotate. The lead screw 2132 is threadedly connected to the first slider 2133, which is fixedly connected to the first pin 2134. The first pin 2134 extends through a vertical groove 2161 into the lock hole 2121, and its end has a downward protrusion. To accommodate the door lock 213, a limiting cavity is formed at the lower end of the lock hole 2121, and the protrusion of the first pin 2134 is inserted into the limiting cavity, thereby locking the movable door 212.

[0024] To further enhance the locking capability of the door lock 213 to the movable fan 212, the door lock 213 also includes a second slider 2135 and a second pin 2136. In this embodiment, the upper and lower ends of the lead screw 2132 are respectively provided with a forward thread 21321 and a reverse thread 21322. The first slider 2133 is threadedly connected to the lead screw 2132 at the forward thread 21321, and the second slider 2135 is threadedly connected to the lead screw 2132 at the reverse thread 21322. The second slider 2135 is fixedly connected to the second pin 2136. The second pin 2136 extends through the vertical groove 2161 into the lock hole 2121, and the end of the second pin 2136 is provided with an upward protrusion. In order to cooperate with the rising door lock 213, limit cavities are provided at the upper and lower ends of the lock hole 2121, wherein the protrusion of the first latch 2134 is inserted into the limit cavity at the lower end, and the protrusion of the second latch 2136 is inserted into the limit cavity at the upper end.

[0025] To prevent the door lock 213 from becoming unusable after a breakdown, the door lock 213 also includes a manual adjustment component. Please refer to [link / reference needed]. Figure 5 The manual adjustment assembly includes a first bevel gear 2137, a second bevel gear 2138 and a knob 2139. The first bevel gear 2137 is arranged at the top of the screw rod 2132 and is keyed to the screw rod 2132. The first bevel gear 2137 is meshed with the second bevel gear 2138. The second bevel gear 2138 is arranged horizontally. The second bevel gear 2138 is keyed to the right end of the knob 2139. The knob 2139 passes through the door frame 215 and extends to the outside of the door frame 215. At this time, the knob 2139 is inside the outer room body 2. When a power outage occurs and the first motor 2131 cannot work, the knob 2139 is turned. The knob 2139 drives the second bevel gear 2138 to rotate, the second bevel gear 2138 drives the first bevel gear 2137 to rotate, and further drives the lead screw 2132 to rotate, thereby driving the first pin 2134 and the second pin 2136 to move, so that the first pin 2134 and the second pin 2136 are moved out of the limiting cavity, thereby opening the door lock 213.

[0026] like Figure 1 As shown, the partition 3 can be a second door, wherein the second door has the same structure as the first door 21. It should be noted that the knob 2139 of the second door is arranged inside the inner room body 1.

[0027] In order to facilitate the automatic pop-up of the movable fan 212 after unlocking, a pop-up component 6 is further provided at the connection between the door frame 215 and the movable fan 212. The pop-up component 6 includes an electromagnet 61 and a permanent magnet 62. Figure 1 As shown, electromagnet 61 is fixedly connected to door frame 215, and electromagnet 61 and door lock 213 are located on the same side of door frame 215; Figure 3 As shown, the permanent magnet 62 is fixedly connected to the movable fan 212, and the permanent magnet 62 and the lock hole 2121 are located on the same side. In use, when the movable fan 212 is closed, the electromagnet 61 and the permanent magnet 62 are in contact with each other; when the electromagnet 61 is energized, the electromagnet 61 and the permanent magnet 62 repel each other.

[0028] like Figure 8 As shown, the present invention also discloses a control system for a cold-prevention light wave room, comprising a programmable controller 75, a far-infrared heater 71, an electric heater 72, a first motor 2131, a second motor 74, a speaker 73, an electromagnet 61, a timer 76, a first temperature sensor 77, and a second temperature sensor 78. The programmable controller 75 can receive signals from the timer 76, the first temperature sensor 77, and the second temperature sensor 78. The programmable controller 75 processes these signals and transmits them to the far-infrared heater 71, the electric heater 72, the first motor 2131, the second motor 74, the speaker 73, and the electromagnet 61, thereby controlling the switching of these components.

[0029] Specifically, the programmable controller 75 is signal-connected to the far-infrared heater 71, which is located on the top of the inner chamber 1 and used to heat the inner chamber 1. The programmable controller 75 is also signal-connected to the electric heater 72, located on the top of the outer chamber 2 and used to heat the outer chamber 2. The programmable controller 75 is signal-connected to the first motor 2131, which drives the door lock 213 of the first door 21. The programmable controller 75 is signal-connected to the second motor 74, which drives the door lock of the second door. The programmable controller 75 is signal-connected to the speaker 73, which is fixed to the side wall of the inner chamber 1 and can emit a prompt tone. The programmable controller 75 is also signal-connected to an electromagnet.

[0030] The timer 76 is connected to the programmable controller 75. The first temperature sensor 77 is installed inside the inner chamber 1 to monitor the temperature of the inner chamber 1. The first temperature sensor 77 works synchronously with the far-infrared heater 71. The second temperature sensor 78 is installed inside the outer chamber 2 to monitor the temperature of the outer chamber 2. The second temperature sensor 78 works synchronously with the electric heater 72.

[0031] The principle of a control system for a cold-prevention light wave room is as follows: A programmable controller 75 presets temperatures T1 and T2, where T1 is the optimal temperature for the inner room 1 and T2 is the optimal temperature for the outer room 2. A first temperature sensor 77 monitors temperature T3, and a second temperature sensor 78 monitors temperature T4. The programmable controller 75 also presets time t1 and t2, where t1 is the optimal time for a person to stay in the inner room 1, and t2 is the sum of the optimal time for a person to stay in the inner room 1 and the optimal time for a person to stay in the outer room 2. t2 - t1 represents the optimal temperature for a person to stay in the outer room 2. A timer 76 records time t3.

[0032] When in use, after entering the inner chamber 1, the personnel close the first door 21 and the second door, and start the far-infrared heater 71. When T3=T1, the timer 76 starts counting from zero, and the programmable controller 75 sends a signal to control the first temperature sensor 77 to monitor the temperature inside the inner chamber 1. Throughout the process, the timer 76 only counts from zero once.

[0033] When T3 < T1-1℃ and t3 < t1, that is, when the first temperature sensor 77 detects that the temperature inside the inner chamber 1 has not reached the optimal temperature and the time the person stays in the inner chamber 1 has not reached the optimal time, the first temperature sensor 77 transmits the signal to the programmable controller 75, and the programmable controller 75 controls the far-infrared heater 71 to continue heating, and the temperature of the inner chamber 1 rises.

[0034] When T1 - 1°C ≤ T3 ≤ T1 + 1°C and t3 < t1, that is, when the temperature inside the inner chamber 1 reaches near the optimal temperature and the residence time of the person inside the inner chamber 1 has not reached the optimal residence time, the far-infrared heater 71 maintains the temperature and the temperature of the inner chamber 1 remains constant.

[0035] When T3 > T1 + 1°C or t3 ≥ t1, that is, when the temperature inside the inner chamber 1 is too high or the residence time of the person inside the inner chamber 1 is too long, the far-infrared heater 71 stops working and the temperature of the inner chamber 1 drops.

[0036] When t2 > t3 ≥ t1 - 10 min, that is, when there are still 10 minutes left until the optimal residence time inside the inner chamber 1, the outer chamber 2 starts to preheat and warm up. The programmable logic controller 75 sends a signal to make the electric heater 72 start heating, and the second temperature sensor 78 starts to monitor the temperature of the outer chamber 2, and the temperature of the outer chamber 2 rises.

[0037] When t3 < t2 and T4 < T2 - 1°C, that is, when the outer chamber 2 has not reached the optimal temperature and the residence time of the person inside the outer chamber 2 has not reached the optimal time, the electric heater 72 continues to heat, and the outer chamber 2 continues to warm up until it reaches the optimal temperature T2.

[0038] When t3 = t1, that is, when the residence time of the person inside the inner chamber 1 reaches the optimal time, the programmable logic controller 75 sends a signal, the second motor 74 starts, and the door lock of the second door opens; at the same time, the electromagnet is powered to pop open the movable fan of the second door, and the inner chamber 1 and the outer chamber 2 are connected. The speaker 73 emits a first prompt sound, and the first prompt sound reminds the person that they can leave the inner chamber 1 but not leave the outer chamber 2. During the period from when the person enters the outer chamber 2 until before the person leaves the outer chamber 2 (that is, t1 < t3 < t2), the person eats the nutritious meal.

[0039] When t3 ≤ t2 and T2 - 1°C ≤ T4 ≤ T2 + 1°C, that is, when the residence time of the person inside the outer chamber 2 has not reached the optimal time, the electric heater 能72 maintains the temperature to keep the temperature inside the outer chamber 2 near the optimal temperature.

[0040] When t3 > t2 or T4 > T2 + 1°C, when the residence time of the person inside the outer chamber 2 exceeds the optimal time or the temperature inside the outer chamber 2 exceeds the optimal temperature, the programmable logic controller 75 sends a signal to control the electric heater 72 to stop heating, starts the first motor 2131, the door lock 213 of the first door 21 opens, and at the same time the electromagnet 61 is powered to pop open the movable fan 212 of the first door 21, and the speaker 73 emits a second prompt sound, and the second prompt sound reminds the person that they can leave the outer chamber 2.

[0041] The optimal ranges of T1, T2, t1, and t2 are: 45min≤t1≤60min; 100min≤t2-t1≤130min; t1+t2≥180min 38℃≤T1≤45℃, 7℃≤T1-T2≤10℃.

[0042] Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without inventive effort are within the scope of protection of the present invention.

Claims

1. A light wave room to prevent cold, characterized in that: Including inner chamber body (1) and outer chamber body (2); A door opening is reserved on one side wall of the outer room body (2), a first door (21) is arranged in the door opening, two side walls of the outer room body (2) adjacent to the first door (21) are heat-insulating walls (22), a roof is arranged on the top of the outer room body (2), and a floor is arranged on the bottom of the outer room body (2); The inner room body (1) is connected to the outer room body (2), a partition (3) is provided at the connection point between the inner room body (1) and the outer room body (2), the other three side walls of the inner room body (1) are heat-insulating walls (22), the top of the inner room body (1) is provided with a roof, and the bottom of the outer room body (2) is provided with a floor.

2. The anti-cold light wave room according to claim 1, characterized in that: The first door (21) comprises a fixed leaf (211), a movable leaf (212), a door lock (213) and a door frame (215); The door frame (215) is fixedly arranged in the door opening; One end of the door frame (215) is fixedly connected to the fixed leaf (211); The top and bottom of the door frame (215) are both fixedly provided with slide rails (214), the slide rails (214) are slidably connected to the movable leaf (212), and a lock hole (2121) is provided on one side of the movable leaf (212); The door lock (213) is arranged on a side wall of the door frame (215), the door lock (213) is arranged inside the door frame (215), the door lock (213) is far away from the fixed leaf (211), a baffle (216) is fixed outside the door lock (213), and the door lock (213) is inserted into the lock hole (2121) to fix the movable leaf (212).

3. The anti-cold light wave room according to claim 2, characterized in that: The upper and lower ends of the lock hole (2121) are both provided with limited position cavities; The door lock (213) comprises a first motor (2131), a screw rod (2132), a first slider (2133) and a first latch (2134); The first motor (2131) is fixedly connected to the inner wall of the door frame (215); the output end of the first motor (2131) extends upward; the output end of the first motor (2131) is transmission-connected to the screw rod (2132); the screw rod (2132) is threadedly connected to the first slider (2133); the first slider (2133) is fixedly connected to the first latch pin (2134); and the first latch pin (2134) is inserted into a limiting cavity at the lower end of the lock hole (2121).

4. The anti-cold light wave room according to claim 3, characterized in that: The door lock (213) further comprises a second sliding block (2135) and a second latch (2136); The lower end and upper end of the rod body of the screw rod (2132) are respectively provided with a forward thread (21321) and a reverse thread (21322); The first slider (2133) is threadedly connected to the screw rod (2132) at the forward thread (21321), the second slider (2135) is threadedly connected to the screw rod (2132) at the reverse thread (21322), the second slider (2135) is fixedly connected to the second latch pin (2136), and the second latch pin (2136) is inserted into a limiting cavity at the upper end of the lock hole (2121); The baffle plate (216) is provided with a vertical slot (2161), and the first latch pin (2134) and the second latch pin (2136) both pass through the vertical slot (2161) and extend to the outside of the baffle plate (216).

5. The anti-cold light wave room according to claim 4, characterized in that: The door lock (213) further comprises a manual adjustment component, wherein the manual adjustment component comprises a first bevel gear (2137), a second bevel gear (2138) and a knob (2139); The first bevel gear (2137) is key-connected to the screw rod (2132), the first bevel gear (2137) and the second bevel gear (2138) are meshed, the second bevel gear (2138) is arranged transversely, the second bevel gear (2138) is key-connected to the knob (2139), the knob (2139) passes through the door frame (215), and one end of the knob (2139) extends to the interior of the outer room body (2).

6. The anti-cold light wave room according to claim 5, characterized in that: The partition (3) is a second door, the second door has the same structure as the first door (21), and the knob of the second door extends to the interior of the inner room body (1).

7. The anti-cold light wave room according to claim 2, characterized in that: A pop-up assembly (6) is provided at the connection between the door frame (215) and the movable fan (212), wherein the pop-up assembly (6) comprises an electromagnet (61) and a permanent magnet (62), wherein the electromagnet (61) is fixedly connected to the door frame (215), and the permanent magnet (62) is fixedly connected to the movable fan (212); When the movable fan (212) is closed, the permanent magnet (62) and the electromagnet (61) abut against each other, and when the electromagnet (61) is energized, the electromagnet (61) and the permanent magnet (62) repel each other.

8. The control system of the anti-cold light wave room according to claim 7 is characterized in that: It comprises a programmable controller (75), a far-infrared heater (71), an electric heater (72), a first motor (2131), a second motor (74), a sounder (73), an electromagnet (61), a timer (76), a first temperature sensor (77) and a second temperature sensor (78); The programmable controller (75) is connected to the far-infrared heater (71) by signal, and the far-infrared heater (71) is arranged in the inner room (1); The programmable controller (75) is signal-connected to the electric heater (72), and the electric heater (72) is arranged in the outer room (2); The programmable controller (75) is signal-connected to the first motor (2131), and the first motor (2131) is used to drive the door lock of the first door (21); The programmable controller (75) is signal-connected to the second motor (74), and the second motor (74) is used to drive the door lock of the second door; The programmable controller (75) is connected to the audio system (73) by signal, and the audio system (73) is arranged in the inner room (1); The programmable controller (75) is signal-connected to the electromagnet (61); The timer (76) is connected to the programmable controller signal (75); The first temperature sensor (77) is arranged in the inner room (1), the first temperature sensor (77) is connected to the programmable controller (75) by signal, and the first temperature sensor (77) and the far-infrared heater (71) work simultaneously; The second temperature sensor (78) is arranged in the outer room (2), the second temperature sensor (78) is signal-connected to the programmable controller (75), and the second temperature sensor (78) and the electric heater (72) work simultaneously.

9. The control system of the anti-cold light wave room according to claim 8, characterized in that: The programmable controller (75) is preset with a temperature T1 and a temperature T2, the first temperature sensor (77) monitors a temperature T3, the second temperature sensor (78) monitors a temperature T4, the programmable controller (75) is also preset with a time t1 and a time t2, and the timer records a time t3; When a person enters the inner room (1), closes the second door, manually starts the far-infrared heater (71), and the programmable controller (75) sends a signal. When T3=T1, the timer (76) starts counting from zero, and at the same time controls the first temperature sensor (77) to start monitoring the temperature. During the whole process, the timer (76) counts from zero only once. When T3<T1-1℃ and t3<t1, the far-infrared heater (71) continues to heat, and the temperature of the inner room (1) rises; When T1-1°C≤T3≤T1+1°C and t3≤t1, the far-infrared heater (71) maintains the temperature and the temperature of the inner room (1) remains constant; When T3>T1+1°C or t3>t1, the far-infrared heater (71) stops working and the temperature of the inner room (1) decreases; When t2>t3≥t1-10min, the programmable controller sends a signal (75), the electric heater (72) starts heating, the second temperature sensor (77) starts monitoring the temperature, and the temperature of the outer room (2) rises; When t3<t2 and T4<T2-1°C, the electric heater (72) continues to heat, and the temperature of the outer room (2) rises; When t3=t1, the programmable controller (75) sends a signal, the second motor (74) starts, the door lock of the second door is opened, and the electromagnet is powered to spring open the movable leaf of the second door. The speaker (73) sends a first prompt sound, and the person enters the outer room (2). When the person is in the outer room (3), he eats the nutritious meal; When t3≤t2 and T2-1°C≤T4≤T2+1°C, the electric heater (72) maintains the temperature and the temperature of the outer room (2) remains constant; When t3>t2 or T4>T2+1°C, the programmable controller (75) sends a signal, the electric heater (72) stops heating, the first motor (2131) starts, the door lock (213) of the first door (21) is opened, and at the same time, the electromagnet (61) is powered to pop open the movable fan (212) of the first door (21), and the speaker (73) emits a second prompt sound.

10. The control system of the anti-cold light wave room according to claim 9, characterized in that: 45min≤t1≤60min; 100min≤t2-t1≤130min; t1+t2≥180min 38℃≤T1≤45℃, 7℃≤T1-T2≤10℃.