Multifunctional novel air conditioning control panel system and control method

Abstract

The invention discloses a multifunctional novel air conditioning control panel system and a control method, and relates to the field of air conditioning control devices. According to the multifunctional novel air conditioning control panel system and the control method, the system comprises a bed main body, a sealing door, oxygen production equipment, an air treatment module and a monitoring module. According to the multifunctional novel air conditioning control panel system and the control method, the oxygen concentration in the bed body main body is controlled by the air processing module, the oxygen concentration in the bed body main body is accurately adjusted, the oxygen concentration in the indoor space is controlled, the use comfort of personnel is guaranteed, an oxygen bottle does not need to be manually and actively held for oxygen inhalation, and the working efficiency is improved. Under the action of the oxygen tent with certain sealing performance, oxygen is generated and escaped out of the oxygen tent to the minimum extent, it is guaranteed that the space is in the specific oxygen concentration, and altitude stress caused by plateau hypoxia is well recovered.

Description

Technical Field

[0001] The present invention relates to the technical field of air conditioning control devices, and in particular to a multifunctional novel air conditioning control panel system and a control method. Background Art

[0002] Oxygen is a basic element for maintaining human life, and when facing disease, the use of oxygen is of great help to the patient's recovery. How to use oxygen effectively is a very important and necessary issue.

[0003] In plateau environments, altitude sickness caused by lack of oxygen has also seriously restricted the development of tourism. Therefore, research on the application of oxygen has far-reaching practical significance.

[0004] At present, the solutions for the plateau reaction caused by hypoxia in the plateau environment are mainly oxygen cylinders and diffuse oxygen generators. Oxygen cylinders have capacity usage restrictions, and oxygen cylinders need to be inhaled by nose when used, which makes them inconvenient to use and requires human active oxygen inhalation. Diffused oxygen generators are suitable for rooms or conference rooms. The oxygen supply is controlled by monitoring the oxygen concentration in the indoor space. However, due to design considerations, the oxygen purity released by the diffuse oxygen generator is generally low, which cannot meet the medical needs of high-concentration oxygen. For the plateau reaction caused by plateau hypoxia, the rehabilitation process that requires a specific oxygen concentration cannot meet the requirements, and the oxygen production is usually small, which cannot guarantee the recovery of the long-term plateau reaction process. CN201420265507 discloses a tent-type oxygen inhaler to realize contactless diffuse oxygen supply in a non-completely enclosed form. However, in practical applications, it is still very scarce to propose how to more effectively increase the oxygen concentration in the tent, ensure a comfortable environment, and make the human body feel the help of body and mind. Therefore, a multifunctional new air conditioning control panel system and control method are proposed. Summary of the invention

[0005] In view of the deficiencies in the prior art, the present invention provides a multifunctional novel air conditioning control panel system and a control method, which solves the problem that in the case of altitude sickness caused by hypoxia in a plateau environment, oxygen cylinders need to be inhaled through the nose when used, which makes it inconvenient to use and requires active oxygen inhalation by humans. Diffused oxygen generators are suitable for rooms or conference rooms, and the oxygen supply is controlled by monitoring the oxygen concentration in the indoor space. However, due to design considerations, the oxygen purity released by the diffuse oxygen generator is generally low, which cannot meet the medical needs that require high-concentration oxygen. For altitude sickness caused by plateau hypoxia, the rehabilitation process that requires a specific oxygen concentration cannot meet the requirements, and the oxygen production is usually small, which cannot guarantee the recovery of long-term altitude sickness processes.

[0006] To achieve the above objectives, the present invention is implemented through the following technical solutions: a multifunctional new air conditioning control panel system and control method, including:

[0007] The main body of the bed;

[0008] Oxygen production equipment;

[0009] The air processing module is connected to the oxygen generator through an air supply pipe, and the air processing module can be selectively installed at any position on the bed body;

[0010] The monitoring module includes an oxygen concentration monitor, a carbon dioxide concentration monitor and an oxygen supply and freshness control system.

[0011] Preferably, a sealing door is provided on the bed body, and the bed body cooperates with the sealing door to isolate a separate enclosed space. A ceiling is installed on the top of the bed body, and the ceiling is used to shield the ventilation component and cooperate with the sealing door to isolate the bed body into a separate enclosed space.

[0012] Preferably, oxygen tents are symmetrically distributed on the main body of the bed, and the oxygen tents cooperate with the sealing door to further isolate the main body of the bed.

[0013] Preferably, a transverse mounting plate is provided on the main body of the bed, the mounting plate is located above the oxygen tent, the contact portion between the oxygen tent and the transverse mounting plate is connected by Velcro to ensure sealing, the air treatment module is provided on the mounting plate of the main body of the bed, the air treatment module is installed above the oxygen tent, and the air treatment module comprises:

[0014] The software control box includes a heating control panel, and the monitoring module is arranged at the bottom of the software control box. The monitoring module also includes a temperature monitoring unit and an altitude monitoring unit;

[0015] The oxygen supply port is arranged in the software control box, the oxygen supply port is connected to the oxygen production equipment through the air supply pipe, and the oxygen supply port extends downward into the oxygen tent;

[0016] The exhaust equipment extends into the oxygen tent and extends out of the ceiling to facilitate the exhaust of air in the oxygen tent;

[0017] The air treatment module extends downward into the oxygen tent, and removes impurities and odors in the air through physical purification, electrostatic purification and chemical purification provided in the air treatment module;

[0018] The air processing module is provided with fresh air equipment, heating equipment and humidifying equipment. The power cords of the fresh air equipment, heating equipment and humidifying equipment are respectively plugged into the power sockets. The air outlets of the fresh air equipment, heating equipment and humidifying equipment extend downward into the oxygen tent.

[0019] Preferably, the oxygen supply pipe of the oxygen generator is connected to the software control box, and then flows out from the oxygen supply port in the software control box;

[0020] The software control box comprises:

[0021] Upper shell,

[0022] A lower shell, wherein the bottom of the lower shell is respectively provided with openings corresponding to the temperature sensor, the oxygen concentration sensor, the carbon dioxide concentration sensor, and the humidity sensor;

[0023] The detection heads of the temperature sensor, oxygen concentration sensor, carbon dioxide concentration sensor, and humidity sensor extend out of the opening respectively;

[0024] A control circuit board is located between the upper shell and the lower shell, wherein the temperature sensor, the oxygen concentration sensor, the carbon dioxide concentration sensor, and the humidity sensor are electrically connected to the control circuit board respectively;

[0025] The number of sensor shells can be equal to the number of sensors and is used to snap onto the bottom of the lower shell to protect the sensor probe.

[0026] Preferably, the oxygen production equipment is arranged in a space far away from the main body of the bed, so as to avoid the noise of the air compressor in the oxygen production equipment affecting the human body resting in the main body of the bed.

[0027] Preferably, a mounting frame is installed on the wall side of the bed body, and an operation and display integrated device is slidably provided on the mounting frame, in which a numerical setting interface and a numerical display interface are provided, and the operation and display integrated device is electrically connected to the control circuit board.

[0028] Preferably, a buzzer is also provided in the integrated operation and display device.

[0029] Preferably, the monitoring module is arranged in the integrated operation and display device, the gas supply pipe of the oxygen production equipment can be connected to the integrated operation and display device, and the oxygen flows out from the gas outlet arranged in the integrated operation and display device.

[0030] When the carbon dioxide concentration monitoring value is greater than the set upper limit, the exhaust device is turned on, and the fresh air device in the air treatment module is started to actively reduce the carbon dioxide concentration in the micro space until the carbon dioxide monitoring value is lower than the set lower limit, and then the exhaust device and the air treatment module are turned off at the same time. In this embodiment, the upper limit is set to 1500ppm and the lower limit is set to 1000ppm, where 1000ppm is the indoor standard concentration proven by a large number of clinical studies by predecessors;

[0031] The oxygen generator is electrically connected to the control circuit board. When the oxygen concentration monitoring value is lower than the set lower limit value, the oxygen supply and freshness control system turns on the oxygen generator's oxygen generation function until the oxygen concentration monitoring value is greater than the set upper limit value and then turns off the oxygen generator's oxygen generation function. In this embodiment, the lower limit value is set to 25% and the upper limit value is set to 27%;

[0032] The lower limit of oxygen concentration is set to 25%, and the upper limit is set to 27%. This setting corresponds to an altitude of 5,000 meters. The real-time data is monitored through the altitude sensor. As the altitude changes, the corresponding adjustment level is appropriately reduced;

[0033] When the temperature monitoring value is less than the set lower limit, the heating device is turned on; when the temperature monitoring value is greater than the set upper limit, the heating device is turned off. The upper and lower limits are set according to individual needs to meet the needs of different people.

[0034] When the humidity monitoring value is less than the set lower limit, the humidification device is turned on. When the humidity monitoring value is greater than the set upper limit, the heating device is turned off. The upper and lower limits are set according to individual needs to meet the usage requirements of different people.

[0035] The present invention discloses a multifunctional novel air conditioning control panel system and control method, which has the following beneficial effects:

[0036] 1. The multifunctional new air conditioning control panel system and control method, under the action of the oxygen tent and the sealed door, effectively prevent the oxygen in the bed body from being emitted outward, so that the oxygen concentration in the bed body is controlled by the air processing module, accurately adjusts the oxygen concentration in the bed body, controls the oxygen concentration in the indoor space, ensures the comfort of personnel, and does not require people to actively hold oxygen cylinders for oxygen inhalation.

[0037] 2. The multifunctional new air conditioning control panel system and control method has a soft oxygen tent with a certain sealing property. When the pressure is too high, the gas will be automatically discharged, so that the space system will not generate too much pressure. It is ensured that under this not too high pressure, under the action of the oxygen tent with a certain sealing property, oxygen will be produced and escaped from the oxygen tent to a minimum, ensuring that the space is at a specific oxygen concentration, and providing good recovery for the altitude sickness caused by plateau hypoxia.

[0038] This new multifunctional air conditioning control panel system and control method monitors real-time data through an altitude sensor. As the altitude changes, the corresponding adjustment level is appropriately reduced to better adapt to the plateau environment. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0040] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0041] Figure 2 This is a schematic diagram of the connection of the main body of the bed of the present invention;

[0042] Figure 3 This is a block diagram of the multifunctional new air conditioning control system of the present invention;

[0043] Figure 4 This is a control system block diagram of the control panel control monitoring module of the present invention;

[0044] Figure 5 This is a control system block diagram of the monitoring module and display module of the present invention;

[0045] Figure 6 This is a block diagram of the oxygen concentration and altitude sensor control system of the present invention;

[0046] Figure 7 This is a block diagram of the oxygen concentration sensor and oxygen production equipment control system of the present invention;

[0047] Figure 8 This is a block diagram of the carbon dioxide concentration sensor and air processing module control system of the present invention;

[0048] Fig. 9 This is a block diagram of the temperature sensor and heating equipment control system of the present invention.

[0049] Fig.10 This is a block diagram of the humidity sensor and humidification equipment control system of the present invention.

[0050] In the figure: 1. bed body; 2. sealed door; 201. ceiling; 202. oxygen tent; 3. oxygen generator; 4. mounting frame; 5. software control box; 6. oxygen supply port; 7. exhaust equipment; 8. air handling module. DETAILED DESCRIPTION

[0051] In order to make the purpose, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention are clearly and completely described. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0052] The embodiment of the present application provides a multifunctional new air conditioning control panel system and control method, which solves the problem that in plateau environments, when altitude sickness is caused by hypoxia, oxygen needs to be inhaled for rehabilitation. When using oxygen cylinders, it is necessary to inhale oxygen through the nose, which makes it inconvenient to use and requires people to actively inhale oxygen. The diffuse oxygen generator is suitable for rooms or conference rooms. By monitoring the oxygen concentration in the indoor space to control the oxygen supply, the effect of rehabilitation of altitude sickness caused by plateau hypoxia is achieved. However, due to design considerations, the oxygen purity released by the diffuse oxygen generator is generally low, which cannot meet the medical needs of high-concentration oxygen. For the altitude sickness caused by plateau hypoxia, the rehabilitation process that requires a specific oxygen concentration cannot meet the requirements, and the oxygen production is usually small, which cannot guarantee the recovery of the long-term altitude sickness process. Under the action of the oxygen tent 202 and the sealed door 2, the oxygen in the bed body 1 is effectively prevented from being emitted outward, so that the oxygen concentration in the bed body 1 is controlled by the air processing module 8, the oxygen concentration in the bed body 1 is accurately adjusted, the oxygen concentration in the indoor space is controlled, and the comfort of personnel is guaranteed, and there is no need for people to actively hold oxygen cylinders for oxygen inhalation.

[0053] The oxygen tent 202 is soft and has a certain degree of sealing. When the pressure is too high, the gas will be automatically discharged, so that the space system will not generate too much pressure. Under the action of the oxygen tent 202 with a certain degree of sealing, the oxygen produced and escaped from the oxygen tent 202 is minimized, ensuring that the space is at a specific oxygen concentration, and the altitude sickness caused by plateau hypoxia is well recovered;

[0054] Real-time data is monitored through altitude sensors. As the altitude changes, the corresponding adjustment level is appropriately reduced to better adapt to the plateau environment.

[0055] In order to better understand the technical solution, the technical solution will be described in detail below in conjunction with the accompanying drawings and specific implementation methods.

[0056] The embodiment of the invention discloses a multifunctional novel air conditioning control panel system and a control method.

[0057] According to the attached Figure 1 -10, including:

[0058] Bed body 1;

[0059] Oxygen production equipment 3;

[0060] The air processing module 8 is connected to the oxygen production equipment 3 through the air supply pipe. The air processing module 8 can be selectively installed at any position on the bed body 1;

[0061] The monitoring module includes an oxygen concentration monitor, a carbon dioxide concentration monitor and an oxygen supply and freshness control system.

[0062] A sealing door 2 is provided on the bed body 1, and the bed body 1 cooperates with the sealing door 2 to isolate a separate enclosed space. A ceiling 201 is installed on the top of the bed body 1, and the ceiling 201 is used to shield the ventilation component. At the same time, the sealing door 2 is cooperated with the bed body 1 to isolate a separate enclosed space, thereby creating an enclosed space, effectively ensuring that the oxygen inside the space does not diffuse to the outside. By adjusting the gas in the enclosed space, it is convenient to adjust it to a high-oxygen environment, which is suitable for the recovery of people suffering from altitude sickness.

[0063] It is particularly important to emphasize that an air outlet is provided on the ceiling 201 and the air outlet is connected to the ventilation component for discharging carbon dioxide in the enclosed space.

[0064] Oxygen tents 202 are symmetrically distributed on the bed body 1. The oxygen tents 202 simply isolate the bed body 1. The oxygen tents 202 can be optionally used for sealing so that the oxygen inside is at a certain concentration, which is suitable for different groups of people. The oxygen tents 202 cooperate with the sealed door 2 to further isolate the bed body 1 and increase the internal oxygen concentration, which is suitable for different situations. The sealed door 2 can also be closed and the internal oxygen tent 202 can be opened. Under the action of the oxygen tent 202 and the sealed door 2, the air in the bed body 1 is effectively prevented from being emitted outward, so that the air in the bed body 1 is controlled by the air treatment module 8, and the air composition in the bed body 1 is accurately adjusted to ensure the comfort of personnel.

[0065] At the same time, it can meet the needs of places where oxygen is insufficient or where increased oxygen supply is needed, so that the oxygen concentration reaches the required concentration and the required oxygen supply value, providing a comfortable environment.

[0066] Furthermore, the oxygen tent 202 is soft and has a certain sealing property. When the pressure is too high, the gas will be automatically discharged, so that the space system will not generate too much pressure, ensuring that under this not too high pressure, under the action of the oxygen tent 202 with a certain sealing property, the oxygen will be generated and escaped from the oxygen tent 202 to a minimum.

[0067] In particular, the oxygen tent 202 in this embodiment uses a transparent PU film with a thickness of less than 0.5 mm.

[0068] In particular, the transparent PU film is adhered with tent yarn, so that the human body feels light-transmitting and comfortable when the oxygen tent 202 is closed;

[0069] In particular, the oxygen tent 202 is placed on the ground to ensure sealing. The bottom of the oxygen tent 202 has a surrounding edge that acts as a soft counterweight to ensure a certain sealing of the bed body 1.

[0070] A transverse mounting plate is provided on the bed body 1, and the mounting plate is located above the oxygen tent 202. The contact part between the oxygen tent 202 and the transverse mounting plate is connected by Velcro to ensure sealing. The air treatment module 8 is provided on the mounting plate of the bed body 1, and the air treatment module 8 is installed above the oxygen tent 202. The air treatment module 8 includes:

[0071] The software control box 5 includes a heating control panel, and a monitoring module is arranged at the bottom of the software control box 5. The monitoring module also includes a temperature monitoring unit and an altitude monitoring unit;

[0072] The oxygen supply port 6 is provided in the software control box 5, the oxygen supply port 6 is connected to the oxygen production equipment 3 through the air supply pipe, and the oxygen supply port 6 extends downward into the oxygen tent 202;

[0073] The exhaust device 7 extends downward into the oxygen tent 202 and upward out of the ceiling 201 to facilitate exhausting the air in the oxygen tent 202;

[0074] The air processing module 8 is provided with a fresh air device, a heating device and a humidifying device. The power cords of the fresh air device, the heating device and the humidifying device are respectively connected to the power sockets. The control circuit board controls whether the power source socket is powered on according to the detection data signal of the sensor to adjust the air in the oxygen tent 202 space.

[0075] The air outlets of the fresh air device, heating device and humidifying device extend downward into the oxygen tent 202. The fresh air device provided in the air processing module 8 removes impurities and odors in the air in the space, and cooperates with the heating device and humidifying device to control the temperature and humidity in the air.

[0076] In particular, an ion generator is provided in the software control box 5, so that oxygen ions are generated in the space, further improving the comfort in the space.

[0077] In the micro-space environment, in cooperation with the air treatment module 8, the air in the micro-space environment is continuously purified to effectively provide the fresh air needed by the human body;

[0078] At the same time, with the help of the ion generator in the software control box 5, negative ions are released into the air, thereby significantly improving the indoor air quality, increasing the concentration of negative hydrogen ions in the microspace, and effectively providing the negative hydrogen ions needed by the human body. The negative hydrogen ions enhance the life kinetic energy ATP, improve the body's metabolic capacity, thereby enhancing the body's antioxidant system and other capabilities, effectively improving the body's recovery, and ensuring the body's comfort.

[0079] In particular, the exhaust equipment is set to multiple low-power ones to reduce the noise in the space;

[0080] The software control box 5 includes a heating control panel, and a monitoring module is arranged at the bottom of the software control box 5. The monitoring module also includes a temperature monitoring unit and an altitude monitoring unit. When the monitoring value of the temperature monitoring unit is lower than the set minimum value, the heating device is automatically turned on. When the monitoring value of the temperature monitoring unit is higher than the set maximum value, the heating device is automatically turned off, thereby further improving the physical comfort according to the setting in the plateau environment.

[0081] The air supply pipe of the oxygen production equipment 3 is connected to the software control box 5 , and then flows out from the oxygen supply port 6 in the software control box 5 .

[0082] Software control box 5 includes:

[0083] Upper shell,

[0084] A lower shell, wherein the bottom of the lower shell is respectively provided with openings corresponding to the temperature sensor, the oxygen concentration sensor, the carbon dioxide concentration sensor, and the humidity sensor;

[0085] The detection heads of the temperature sensor, the oxygen concentration sensor, the carbon dioxide concentration sensor, and the humidity sensor extend out of the openings respectively;

[0086] A control circuit board is located between the upper shell and the lower shell, wherein the temperature sensor, the oxygen concentration sensor, the carbon dioxide concentration sensor, and the humidity sensor are electrically connected to the control circuit board respectively;

[0087] The number of sensor shells can be equal to the number of sensors, and they are used to snap on the bottom of the lower shell to protect the sensor probe. In this way, the sensor shell is arranged to protrude from the bottom of the lower shell, so that the sensor extends into the oxygen tent 202. The oxygen tent 202 only needs to be provided with a corresponding opening at the top, which is beautiful and practical as a whole;

[0088] In particular, the lower housing is in the shape of a housing with a certain thickness, and the upper housing is a cover, which covers the lower housing to protect the built-in control circuit board;

[0089] In particular, a plurality of power sockets are arranged on the side of the lower shell, and the plurality of power sockets are electrically connected to the control circuit board respectively, and the control circuit board controls whether the power sockets are powered on.

[0090] The oxygen generator 3 is arranged in a space far away from the bed body 1 , so as to prevent the noise of the air compressor in the oxygen generator 3 from affecting the human body resting in the bed body 1 .

[0091] A mounting frame 4 is installed on the wall side of the bed body 1, and an operation display integrated device is slidably arranged on the mounting frame 4, in which a numerical setting interface and a numerical display interface are arranged, and the operation display integrated device is electrically connected to the control circuit board.

[0092] It is particularly disclosed that a buzzer is also provided in the integrated operation and display device. When it is detected that the oxygen concentration is below the set value for a long time, the buzzer will sound to remind the user. In this embodiment, the buzzer will be sounded when it is less than 20% within 10 minutes to prevent hypoxia.

[0093] The monitoring module is arranged in the integrated operation and display device, the gas supply pipe of the oxygen production equipment 3 can be connected to the integrated operation and display device, and the oxygen flows out from the gas outlet arranged in the integrated operation and display device.

[0094] 1. Initialization

[0095] According to the sensor's specification, configure its working mode, determine the communication method with the sensor, and set the microcontroller's working mode, clock, interrupt, etc.

[0096] 2. Data Collection

[0097] Set a timer to trigger data collection at predetermined intervals.

[0098] When collecting data from multiple sensors at the same time, an interrupt synchronization mechanism can be used to ensure data consistency.

[0099] 3. Data processing

[0100] Correct the sensor data to eliminate the sensor error.

[0101] Use filtering algorithms to reduce noise.

[0102] Convert the raw data from the sensor into physical quantities such as temperature, humidity, oxygen concentration, and carbon dioxide concentration.

[0103] 4. Status judgment

[0104] Based on the preset thresholds, determine whether the environmental parameters are within the safe range.

[0105] Detect outliers in sensor data.

[0106] 5. Control output

[0107] According to the status judgment result, a corresponding control signal is generated, such as starting the oxygen production equipment 3, the air processing module 8, the exhaust equipment 7 and the heating equipment.

[0108] The control signal is sent to the actuator through the output port of the control circuit board.

[0109] 6. Feedback Control

[0110] Compare the actuator's feedback information with the target value, adjust the control signal, and achieve closed-loop control.

[0111] Record sensor data, control signals, actuator feedback and other information to facilitate subsequent analysis and troubleshooting.

[0112] Through the above steps, the control and management of various environmental sensors can be realized to ensure the stability and reliability of monitoring in the bed body 1. The temperature sensor, humidity sensor, oxygen concentration sensor, carbon dioxide concentration sensor, negative oxygen ion concentration sensor, PM2.5 monitoring sensor, TVOC sensor and altitude sensor are controlled by the control circuit board to ensure that the air in the bed body 1 is good and the recovery of personnel in the long-term altitude reaction process is guaranteed.

[0113] Working principle: When the carbon dioxide concentration monitoring value is greater than the set upper limit, the exhaust device 7 is turned on, and the fresh air device in the air treatment module 8 is started to actively reduce the carbon dioxide concentration in the micro space until the carbon dioxide monitoring value is lower than the set lower limit, and then the exhaust device 7 and the air treatment module 8 are turned off at the same time. In this embodiment, the upper limit is set to 1500ppm and the lower limit is set to 1000ppm, where 1000ppm is the indoor standard concentration proven by a large number of clinical studies by predecessors;

[0114] The carbon dioxide concentration sensor uses the infrared absorption principle to detect the carbon dioxide concentration and converts it into an electrical signal. The control circuit board determines whether the current carbon dioxide concentration is too high based on the electrical signal. If the carbon dioxide concentration is too high, the fresh air device is started to send fresh air in, and the exhaust device 7 is used to draw out the air to exchange the internal air with the external air.

[0115] By monitoring carbon dioxide, the carbon dioxide concentration in the microspace can be actively reduced and controlled within the standard range.

[0116] When the negative oxygen ion concentration sensor and PM2.5 monitoring sensor monitor the air in the oxygen tent 202 and the sealed door 2, when the monitoring value is greater than the set upper limit, the corresponding negative ion generator and fresh air equipment are started until the monitoring value is lower than the set lower limit.

[0117] The negative oxygen ion concentration sensor collects negative oxygen ions in the air and converts them into electrical signals. The control circuit board determines whether the current negative oxygen ion concentration meets health requirements based on the electrical signals. If not, the negative ion generator is started or its working state is adjusted.

[0118] The PM2.5 monitoring sensor uses the laser scattering principle or weighing method to detect the concentration of PM2.5 particles. The control circuit board determines whether the current air quality meets the standard based on the concentration data. If it does not meet the standard, the fresh air equipment will be started.

[0119] The TVOC sensor detects the concentration of total volatile organic compounds in the air through electrochemical or optical principles. The control circuit board determines whether the current air quality is safe based on the concentration data. If it is unsafe, the fresh air equipment will be started.

[0120] The oxygen generator 3 is electrically connected to the control circuit board. When the oxygen concentration monitoring value is lower than the set lower limit, the oxygen supply and freshness control system turns on the oxygen generator 3 oxygen generation function until the oxygen concentration monitoring value is greater than the set upper limit and then turns off the oxygen generator 3 oxygen generation function. In this embodiment, the lower limit is set to 25% and the upper limit is set to 27%.

[0121] The oxygen concentration sensor detects oxygen concentration through electrochemical and optical principles and converts it into electrical signals. The control circuit board determines whether the current oxygen concentration is safe based on the electrical signals. If it is lower than the safety threshold, the oxygen supply and freshness control system turns on the oxygen production function of the oxygen generator 3.

[0122] The lower limit of oxygen concentration is set to 25%, and the upper limit is set to 27%. This setting corresponds to an altitude of 5,000 meters. The real-time data is monitored through the altitude sensor. As the altitude changes, the corresponding adjustment level is appropriately reduced;

[0123] The lower and upper limits of oxygen concentration can be set according to the set program. When the display device is set as a sleep assistance system, the natural environment can be simulated in the micro space. The oxygen production equipment 3 cooperates with the air treatment module 8 to control the micro space environment to be in the set environment, which is suitable for assisting sleep and relieving human fatigue. Similarly, a high oxygen micro environment can be set to meet different usage requirements.

[0124] The altitude sensor uses a pressure sensor to detect atmospheric pressure and converts it into altitude through an algorithm. The control circuit board determines whether the current position is within a safe range based on the altitude data, and issues corresponding control instructions accordingly, and the corresponding adjustment level is appropriately reduced.

[0125] When the temperature monitoring value is less than the set lower limit, the heating device is turned on; when the temperature monitoring value is greater than the set upper limit, the heating device is turned off. The upper and lower limits are set according to individual needs to meet the needs of different people.

[0126] The temperature sensor uses temperature sensing elements such as thermistors or thermocouples to convert temperature into electrical signals. The actual temperature is compared with the set temperature through a comparator. When the actual temperature is higher or lower than the set temperature, the control circuit board issues a command to adjust the working state of the corresponding heating or cooling equipment.

[0127] When the humidity monitoring value is less than the set lower limit, the humidification device is turned on. When the humidity monitoring value is greater than the set upper limit, the heating device is turned off. The upper and lower limits are set according to individual needs to meet the usage requirements of different people.

[0128] The humidity sensor converts the humidity into an electrical signal, and then converts it into a digital signal through an A / D conversion circuit. The control circuit board determines whether the current humidity meets the requirements based on the digital signal. If not, the working state of the humidification equipment or dehumidifier is adjusted.

[0129] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A new multifunctional air conditioning control panel system, characterized in that: include: Bed body (1); Oxygen production equipment (3); An air processing module (8) is connected to the oxygen production device (3) via an air supply pipe, and the air processing module (8) can be selectively installed at any position on the bed body (1); The monitoring module includes an oxygen concentration monitor, a carbon dioxide concentration monitor and an oxygen supply and freshness control system.

2. A multifunctional new air conditioning control panel system according to claim 1, characterized in that: The bed body (1) is provided with a sealing door (2), and the bed body (1) cooperates with the sealing door (2) to isolate a separate enclosed space. A ceiling (201) is installed on the top of the bed body (1), and the ceiling (201) is used to shield the ventilation component and cooperate with the sealing door (2) to isolate the bed body (1) into a separate enclosed space.

3. A multifunctional new air conditioning control panel system according to claim 2, characterized in that: Oxygen tents (202) are symmetrically distributed on the bed body (1). The oxygen tents (202) simply isolate the bed body (1). The oxygen tents (202) cooperate with the sealing door (2) to further isolate the bed body (1).

4. A multifunctional new air conditioning control panel system according to claim 3, characterized in that: The bed body (1) is provided with a transverse mounting plate, the mounting plate being located above the oxygen tent (202), the contact portion between the oxygen tent (202) and the transverse mounting plate being connected by Velcro to ensure sealing, the air treatment module (8) being provided on the mounting plate of the bed body (1), the air treatment module (8) being installed above the oxygen tent (202), the air treatment module (8) comprising: A software control box (5) includes a heating control panel, a monitoring module is arranged at the bottom of the software control box (5), and the monitoring module also includes a temperature monitoring unit and an altitude monitoring unit; An oxygen supply port (6) is provided in the software control box (5), the oxygen supply port (6) is connected to the oxygen production equipment (3) through an air supply pipe, and the oxygen supply port (6) extends downward into the oxygen tent (202); An exhaust device (7) extends downward into the oxygen tent (202) and upward out of the ceiling (201) to facilitate exhausting the air in the oxygen tent (202); The air processing module (8) is provided with a fresh air device, a heating device and a humidifying device. The power cords of the fresh air device, the heating device and the humidifying device are respectively connected to the power sockets. The air outlets of the fresh air device, the heating device and the humidifying device extend downward into the oxygen tent (202).

5. A multifunctional new air conditioning control panel system according to claim 4, characterized in that: The air supply pipe of the oxygen production equipment (3) is connected to the software control box (5), and then flows out from the oxygen supply port (6) in the software control box (5); The software control box (5) comprises: Upper shell, A lower shell, wherein the bottom of the lower shell is respectively provided with openings corresponding to the temperature sensor, the oxygen concentration sensor, the carbon dioxide concentration sensor, and the humidity sensor; The detection heads of the temperature sensor, oxygen concentration sensor, carbon dioxide concentration sensor, and humidity sensor extend out of the opening respectively; A control circuit board is located between the upper shell and the lower shell, wherein the temperature sensor, the oxygen concentration sensor, the carbon dioxide concentration sensor, and the humidity sensor are electrically connected to the control circuit board respectively; The number of sensor shells can be equal to the number of sensors and is used to snap onto the bottom of the lower shell to protect the sensor probe.

6. A multifunctional new air conditioning control panel system according to claim 5, characterized in that: The oxygen production equipment (3) is arranged in a space relatively far away from the bed body (1), thereby preventing the noise of the air compressor in the oxygen production equipment (3) from affecting the human body resting in the bed body (1).

7. A multifunctional new air conditioning control panel system according to claim 1, characterized in that: A mounting frame (4) is installed on the side of the bed body (1) close to the wall, and an operation and display integrated device is slidably arranged on the mounting frame (4), wherein a numerical setting interface and a numerical display interface are arranged, and the operation and display integrated device is electrically connected to the control circuit board.

8. A multifunctional new air conditioning control panel system according to claim 7, characterized in that: A buzzer is also provided in the integrated operation and display device.

9. A multifunctional new air conditioning control panel system according to claim 7, characterized in that: The monitoring module is arranged in the integrated operation and display device, the gas supply pipe of the oxygen production equipment (3) is connected to the integrated operation and display device, and oxygen flows out from the gas outlet arranged in the integrated operation and display device.

10. A control method for a multifunctional novel air conditioning control panel system according to any one of claims 1 to 9, characterized in that: The following steps are involved: S1: When the carbon dioxide concentration monitoring value is greater than the set upper limit, the exhaust device (7) is turned on, and the fresh air device in the air treatment module (8) is started to actively reduce the carbon dioxide concentration in the micro space until the carbon dioxide monitoring value is lower than the set lower limit, and then the exhaust device (7) and the air treatment module (8) are turned off at the same time. In this embodiment, the upper limit is set to 1500ppm and the lower limit is set to 1000ppm, where 1000ppm is the indoor standard concentration proven by a large number of clinical studies by previous researchers; S2: The oxygen generator (3) is electrically connected to the control circuit board. When the oxygen concentration monitoring value is lower than the set lower limit value, the oxygen supply and freshness control system turns on the oxygen generator (3) oxygen generation function until the oxygen concentration monitoring value is greater than the set upper limit value and then turns off the oxygen generator (3) oxygen generation function. In this embodiment, the lower limit value is set to 25% and the upper limit value is set to 27%; S3: The lower limit of oxygen concentration is set to 25%, and the upper limit is set to 27%. This setting corresponds to an altitude of 5,000 meters. The real-time data is monitored by the altitude sensor. As the altitude changes, the corresponding adjustment level is appropriately reduced; S4: When the temperature monitoring value is less than the set lower limit, the heating device is turned on; when the temperature monitoring value is greater than the set upper limit, the heating device is turned off. The upper limit and lower limit are set according to individual needs to meet the needs of different people; S5: When the humidity monitoring value is less than the set lower limit, turn on the humidification device; when the humidity monitoring value is greater than the set upper limit, turn off the heating device. The upper and lower limits are set according to individual needs to meet the usage requirements of different people.

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