CN114099198A - Intelligent oxygen cabin control system and method - Google Patents
Intelligent oxygen cabin control system and method Download PDFInfo
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- CN114099198A CN114099198A CN202111416406.4A CN202111416406A CN114099198A CN 114099198 A CN114099198 A CN 114099198A CN 202111416406 A CN202111416406 A CN 202111416406A CN 114099198 A CN114099198 A CN 114099198A
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- QVGXLLKOCUKJST-UHFFFAOYSA-N atomic oxygen Chemical compound [O] QVGXLLKOCUKJST-UHFFFAOYSA-N 0.000 title claims abstract description 329
- 229910052760 oxygen Inorganic materials 0.000 title claims abstract description 329
- 239000001301 oxygen Substances 0.000 title claims abstract description 329
- 238000000034 method Methods 0.000 title claims abstract description 34
- 238000012544 monitoring process Methods 0.000 claims abstract description 58
- 230000008569 process Effects 0.000 claims abstract description 10
- 238000011022 operating instruction Methods 0.000 claims abstract description 4
- 230000001105 regulatory effect Effects 0.000 claims description 22
- 230000036541 health Effects 0.000 claims description 18
- 230000007613 environmental effect Effects 0.000 claims description 15
- 230000003750 conditioning effect Effects 0.000 claims description 11
- 201000010099 disease Diseases 0.000 claims description 9
- 208000037265 diseases, disorders, signs and symptoms Diseases 0.000 claims description 9
- 108010066057 cabin-1 Proteins 0.000 description 46
- 150000002500 ions Chemical class 0.000 description 10
- 238000000554 physical therapy Methods 0.000 description 8
- 238000010586 diagram Methods 0.000 description 6
- 230000006870 function Effects 0.000 description 6
- 230000001276 controlling effect Effects 0.000 description 5
- 206010008132 Cerebral thrombosis Diseases 0.000 description 4
- 201000001429 Intracranial Thrombosis Diseases 0.000 description 4
- 150000001450 anions Chemical class 0.000 description 4
- 238000007791 dehumidification Methods 0.000 description 4
- 238000012545 processing Methods 0.000 description 3
- 208000005584 Alcoholic Intoxication Diseases 0.000 description 2
- 208000019901 Anxiety disease Diseases 0.000 description 2
- 208000024172 Cardiovascular disease Diseases 0.000 description 2
- 206010013954 Dysphoria Diseases 0.000 description 2
- 201000005569 Gout Diseases 0.000 description 2
- 206010019233 Headaches Diseases 0.000 description 2
- 206010020772 Hypertension Diseases 0.000 description 2
- 208000013738 Sleep Initiation and Maintenance disease Diseases 0.000 description 2
- 230000002159 abnormal effect Effects 0.000 description 2
- 230000003213 activating effect Effects 0.000 description 2
- 238000004887 air purification Methods 0.000 description 2
- 230000036506 anxiety Effects 0.000 description 2
- 206010008129 cerebral palsy Diseases 0.000 description 2
- 208000026106 cerebrovascular disease Diseases 0.000 description 2
- 238000001514 detection method Methods 0.000 description 2
- 230000002526 effect on cardiovascular system Effects 0.000 description 2
- 231100000869 headache Toxicity 0.000 description 2
- 201000001421 hyperglycemia Diseases 0.000 description 2
- 206010022437 insomnia Diseases 0.000 description 2
- 208000024891 symptom Diseases 0.000 description 2
- 230000017260 vegetative to reproductive phase transition of meristem Effects 0.000 description 2
- 230000009471 action Effects 0.000 description 1
- 230000003796 beauty Effects 0.000 description 1
- 230000006872 improvement Effects 0.000 description 1
- 238000011835 investigation Methods 0.000 description 1
- 238000011017 operating method Methods 0.000 description 1
- 238000003908 quality control method Methods 0.000 description 1
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- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61G—TRANSPORT, PERSONAL CONVEYANCES, OR ACCOMMODATION SPECIALLY ADAPTED FOR PATIENTS OR DISABLED PERSONS; OPERATING TABLES OR CHAIRS; CHAIRS FOR DENTISTRY; FUNERAL DEVICES
- A61G10/00—Treatment rooms or enclosures for medical purposes
- A61G10/02—Treatment rooms or enclosures for medical purposes with artificial climate; with means to maintain a desired pressure, e.g. for germ-free rooms
- A61G10/023—Rooms for the treatment of patients at over- or under-pressure or at a variable pressure
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61G—TRANSPORT, PERSONAL CONVEYANCES, OR ACCOMMODATION SPECIALLY ADAPTED FOR PATIENTS OR DISABLED PERSONS; OPERATING TABLES OR CHAIRS; CHAIRS FOR DENTISTRY; FUNERAL DEVICES
- A61G2203/00—General characteristics of devices
- A61G2203/30—General characteristics of devices characterised by sensor means
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61G—TRANSPORT, PERSONAL CONVEYANCES, OR ACCOMMODATION SPECIALLY ADAPTED FOR PATIENTS OR DISABLED PERSONS; OPERATING TABLES OR CHAIRS; CHAIRS FOR DENTISTRY; FUNERAL DEVICES
- A61G2203/00—General characteristics of devices
- A61G2203/30—General characteristics of devices characterised by sensor means
- A61G2203/34—General characteristics of devices characterised by sensor means for pressure
-
- A—HUMAN NECESSITIES
- A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
- A61G—TRANSPORT, PERSONAL CONVEYANCES, OR ACCOMMODATION SPECIALLY ADAPTED FOR PATIENTS OR DISABLED PERSONS; OPERATING TABLES OR CHAIRS; CHAIRS FOR DENTISTRY; FUNERAL DEVICES
- A61G2203/00—General characteristics of devices
- A61G2203/30—General characteristics of devices characterised by sensor means
- A61G2203/46—General characteristics of devices characterised by sensor means for temperature
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- Health & Medical Sciences (AREA)
- Pulmonology (AREA)
- Life Sciences & Earth Sciences (AREA)
- Animal Behavior & Ethology (AREA)
- General Health & Medical Sciences (AREA)
- Public Health (AREA)
- Veterinary Medicine (AREA)
- Accommodation For Nursing Or Treatment Tables (AREA)
Abstract
The application relates to an intelligent oxygen cabin control system and method, belonging to the technical field of medical equipment, wherein the method comprises the following steps: before use, acquiring external environment information, and adjusting the internal environment state of the oxygen cabin based on the external environment information; acquiring basic information of a user, and adjusting the oxygen supply state of the oxygen cabin based on the basic information; in the using process, the internal environment state and the oxygen supply state of the oxygen cabin are monitored in real time, a monitoring result is generated, the environment state and the oxygen supply state are adjusted or the operating instruction of a user is received based on the monitoring result, and the internal environment state and the oxygen supply state are adjusted based on the operating instruction. The oxygen cabin intelligent control method has the advantages that manual operation steps are reduced, and the intelligent degree of the oxygen cabin is improved.
Description
Technical Field
The application relates to the technical field of medical equipment, in particular to an intelligent oxygen cabin control system and method.
Background
The oxygen chamber is a special medical device, can be divided into a hyperbaric oxygen chamber and a micro-hyperbaric oxygen chamber, and can be applied to the fields of economy, medical treatment, health management, beauty treatment, sports, military, scientific investigation, aviation, families and the like.
For ordinary people, when the oxygen cabin is used, professional medical staff are required to adjust a large number of parameters of the oxygen cabin, including setting environmental information such as temperature and humidity in the oxygen cabin, oxygen supply information such as oxygen flow and oxygen cabin pressure, and the like.
In view of the above-mentioned related arts, the inventor has considered that when medical staff is absent or the user wants to use the oxygen chamber alone, the parameters of the oxygen chamber are too large, and the manual operation steps are too many, which is inconvenient, and therefore, improvement is needed.
Disclosure of Invention
In order to reduce the steps of manual operation and improve the intelligent automation degree of the oxygen chamber, the application provides an intelligent oxygen chamber control system and method.
In a first aspect, the present application provides an intelligent oxygen cabin control method, which adopts the following technical scheme:
an intelligent oxygen chamber control method comprises the following steps:
before use, acquiring external environment information, and adjusting the internal environment state of the oxygen cabin based on the external environment information;
acquiring basic information of a user, and adjusting the oxygen supply state of the oxygen cabin based on the basic information;
during the use process, the internal environment state and the oxygen supply state of the oxygen cabin are monitored in real time to generate monitoring results, and the environment state and the oxygen supply state are adjusted based on the monitoring results,
Or
And receiving an operation instruction of a user, and adjusting the internal environment state and the oxygen supply state based on the operation instruction.
Through adopting above-mentioned technical scheme, acquire external environment information, according to external environment information automatic adjustment oxygen cabin internal environment state, acquire user's the use reason, tentatively confirm the inside oxygen suppliment state in oxygen cabin according to the use reason to adapt to most user personnel, user personnel can also adjust oxygen cabin internal environment state and oxygen suppliment state at any time in the use simultaneously. The utility model provides a set up the manual operation step that has reduced user of service personnel, improved the intelligent degree in oxygen cabin, user of service still can adjust oxygen cabin internal environment state and oxygen suppliment state at any time according to self demand in the use, improved the multifunctionality and the suitability in oxygen cabin.
Optionally, the external environment information includes an external temperature, an external humidity and an external PM2.5 value, and adjusting the internal environment state of the oxygen cabin based on the external environment information includes the following steps:
comparing and analyzing the external temperature with a preset human body comfortable temperature range, and if the external temperature exceeds the human body comfortable temperature range, adjusting the internal temperature of the oxygen cabin to the human body comfortable temperature range;
comparing and analyzing the external humidity with a preset human body comfortable humidity range, and if the external humidity exceeds the human body comfortable temperature range, adjusting the internal humidity of the oxygen cabin to the human body comfortable humidity range;
and comparing and analyzing the external PM2.5 value with a preset PM2.5 normal range, and purifying the air in the oxygen cabin if the external PM2.5 value exceeds the normal range.
By adopting the technical scheme, the oxygen chamber automatically adjusts the internal environment state, reduces the operation steps of users and is very convenient.
Optionally, the basic information includes age and reason for use, the oxygen supply requirement includes oxygen flow and oxygen chamber pressure, and adjusting the oxygen supply state of the oxygen chamber based on the basic information includes the following steps:
judging whether the age of the user exceeds a preset age threshold range or not;
if the age of the user is within a preset age threshold range, preliminarily determining that the oxygen cabin pressure is in a normal pressure state;
and if the age of the user exceeds a preset age threshold value, preliminarily determining that the oxygen chamber pressure is in a low-pressure state.
Through adopting above-mentioned technical scheme, according to user's age preliminary definite oxygen cabin pressure to adapt to most user's demand, reduced user's operating procedure equally, it is very convenient.
Optionally, the adjusting the oxygen supply state of the oxygen cabin based on the basic information further comprises the following steps:
determining the health type of a user according to the use reason of the user, and selecting the corresponding oxygen flow based on the health type, wherein the health type comprises healthy people, sub-healthy people and disease people;
if the health type is determined to be the disease crowd, primarily determining the oxygen flow in the oxygen cabin to be a flow increasing mode;
and if the health type is determined to be healthy people or sub-healthy people, preliminarily determining that the oxygen flow in the oxygen cabin is in a conventional mode.
By adopting the technical scheme, the oxygen flow in the oxygen chamber is determined according to the use reasons of users, so that the operation steps of the users are further reduced, and the oxygen chamber is convenient to use.
Optionally, the operation instruction includes a temperature adjustment instruction, a humidity adjustment instruction, an air quality adjustment instruction, an oxygen concentration adjustment instruction, a pressure increase adjustment instruction, and a pressure release adjustment instruction.
By adopting the technical scheme, the user can select to send out an operation instruction suitable for the user according to the condition of the user, so that the versatility and the applicability of the oxygen cabin are improved.
In a second aspect, the present application provides an intelligent oxygen cabin control system, which adopts the following technical scheme:
an intelligent oxygen cabin control system comprises a cabin body, an acquisition subsystem, a monitoring subsystem, an environment regulation subsystem, an oxygen supply regulation subsystem, a control subsystem and an operation terminal, wherein the acquisition subsystem, the monitoring subsystem, the environment regulation subsystem, the oxygen supply regulation subsystem, the control subsystem and the operation terminal are arranged on the cabin body;
the acquisition subsystem is used for acquiring external environment information and basic information of users;
the monitoring subsystem is used for monitoring the internal environment state and the oxygen supply state of the oxygen cabin in real time and obtaining a monitoring result;
the environment adjusting subsystem is used for adjusting the internal environment state of the cabin;
the oxygen supply regulating subsystem is used for regulating the oxygen supply state in the cabin;
the operation terminal is used for receiving an operation instruction of a user and sending the operation instruction to the control subsystem;
and the control subsystem is used for generating a control instruction based on the external environment information, the basic information, the monitoring result and the operation instruction, and controlling the environment regulation subsystem and the oxygen supply regulation subsystem to regulate the environment state and the oxygen supply state in the cabin based on the control instruction.
By adopting the technical scheme, the control module automatically generates a proper internal environment state and an oxygen supply state of the cabin according to the external environment information acquired by the acquisition subsystem and the basic information of the user; if the user needs to adjust the internal environment state and the oxygen supply state of the cabin in the using process, the user can select the intended option through the operation terminal. The method and the device reduce the steps of manual setting by users, and improve the automation degree of the oxygen chamber; meanwhile, the oxygen cabin can be compatible with personal selection of users, and the versatility and the applicability of the oxygen cabin are reflected.
Optionally, the environment adjusting subsystem includes:
the temperature adjusting module is used for adjusting the temperature in the cabin body based on the control instruction;
the humidity adjusting module is used for adjusting the humidity in the cabin body based on the control instruction;
and the air quality adjusting module is used for purifying the air in the cabin based on the control instruction.
By adopting the technical scheme, the environment adjusting subsystem adjusts the temperature, the humidity and the air according to the control instruction, and the automation degree of the system is improved.
Optionally, the oxygen supply regulator subsystem comprises;
the flow regulating module is used for regulating the oxygen flow in the cabin based on the control instruction;
and the pressure adjusting module is used for adjusting the pressure of the oxygen chamber based on the control instruction.
By adopting the technical scheme, the oxygen supply regulating subsystem regulates the oxygen flow and the oxygen cabin pressure according to the control instruction, reduces the operation steps of users and further improves the automation degree of the system.
Optionally, the pressure regulating module includes:
the boosting unit performs boosting operation on the interior of the cabin according to the control command;
the protection unit is used for carrying out air pressure balancing operation on the cabin when the pressure monitoring unit monitors that the interior of the cabin reaches a preset air pressure value;
and the pressure relief module executes pressure relief operation on the interior of the cabin body based on the operation instruction.
Optionally, the operation terminal includes:
the display module is used for displaying the internal environmental information and the oxygen supply state of the oxygen cabin;
and the operation module is used for issuing an operation instruction by a user.
Drawings
Fig. 1 is an overall module schematic diagram of an intelligent oxygen cabin control system according to an embodiment of the present application.
Fig. 2 is a schematic block diagram of an acquisition subsystem in an intelligent oxygen cabin control system according to an embodiment of the present application.
Fig. 3 is a schematic block diagram of a monitoring subsystem in an intelligent oxygen cabin control system according to an embodiment of the present application.
Fig. 4 is a schematic block diagram of an environmental regulation subsystem and an oxygen supply regulation subsystem in an intelligent oxygen cabin control system according to an embodiment of the present application.
Fig. 5 is a schematic structural diagram of a pressure boosting unit, a protection unit and a pressure relief unit in an intelligent oxygen cabin control system according to an embodiment of the present application.
Fig. 6 is a schematic block diagram of an operation terminal and a control subsystem in an intelligent oxygen cabin control system according to an embodiment of the present application.
Fig. 7 is a schematic overall flow chart of an intelligent oxygen cabin control method according to an embodiment of the present application.
Fig. 8 is a schematic flow chart of steps S201 to S203 in an intelligent oxygen cabin control method according to an embodiment of the present application.
Fig. 9 is a schematic flow chart of steps S301 to S303 in an intelligent oxygen cabin control method according to an embodiment of the present application.
Fig. 10 is a schematic flow chart of steps S401 to S403 in an intelligent oxygen cabin control method according to an embodiment of the present application.
Description of reference numerals:
1. a cabin body; 2. acquiring a subsystem; 21. an environment information acquisition module; 22. a basic information acquisition module; 221. a recording unit; 222. a holding unit; 3. a monitoring subsystem; 31. an internal environment monitoring module; 32. an oxygen supply monitoring module; 321. a flow monitoring unit; 322. a pressure monitoring unit; 4. an environmental conditioning subsystem; 41. a temperature adjustment module; 42. a humidity adjustment module; 43. an air quality adjustment module; 5. an oxygen supply regulation subsystem; 51. a flow regulation module; 52. a pressure regulation module; 521. a voltage boosting unit; 522. a protection unit; 523. a pressure relief unit; 6. an operation terminal; 61. a display module; 62. an operation module; 7. a control subsystem; 71. a first control module; 711. a storage unit; 712. a comparison unit; 72. a second control module; 721. an analysis unit; 722. a memory unit; 73. a third control module; 74. and a fourth control module.
Detailed Description
The present application is described in further detail below with reference to figures 1-10.
The embodiment of the application discloses an intelligent oxygen cabin control system, refer to fig. 1, including cabin 1 and the acquisition subsystem 2, monitoring subsystem 3, environmental conditioning subsystem 4, oxygen supply conditioning subsystem 5, operation terminal 6 and control subsystem 7 of setting on cabin 1. The acquisition subsystem 2 is used for acquiring external environment information and basic information of users; the monitoring subsystem 3 is used for monitoring the internal environment state and the oxygen supply state of the oxygen cabin in real time and obtaining a monitoring result; the environment adjusting subsystem 4 is used for adjusting the internal environment state of the cabin 1; the oxygen supply regulating subsystem 5 is used for regulating the oxygen supply state in the cabin 1; the operation terminal 6 is used for receiving an operation instruction of a user and sending the operation instruction to the control subsystem 7; the control subsystem 7 is used for generating a control instruction based on the external information, the basic information, the monitoring result and the operation instruction, and controlling the environmental conditioning subsystem 4 and the oxygen supply conditioning subsystem 5 to adjust the environmental state and the oxygen supply state in the cabin 1 based on the control instruction.
Referring to fig. 2, the acquiring subsystem 2 includes an environment information acquiring module 21 and a basic information acquiring module 22, where the environment information acquiring module 21 is configured to acquire external environment information, and the external environment information includes an external temperature, an external humidity, an external PM2.5 value, and the like. The basic information collecting module 22 is used for collecting basic information of a user, and the basic information includes the age of the user, the reason for using the user, and the like.
Specifically, in this embodiment, the acquisition subsystem 2 may be a network device connected to the internet, such as a computer, and it can be known that the computer is installed inside the cabin 1 or outside the cabin 1. The environment information obtaining module 21 may be a system in a tablet computer, and may obtain local real-time temperature, humidity, and PM2.5 value, and send real-time external temperature, external humidity, and external PM2.5 value to the control subsystem 7. In addition, the environmental information acquisition module can also be a thermometer, a hygrometer and a PM2.5 detector which are installed outside the cabin body 1, detect the temperature, the humidity and the PM2.5 value outside the cabin body 1 in real time, and send the detected outside temperature, outside humidity and outside PM2.5 value into the tablet personal computer.
Specifically, the basic information collecting module 22 includes a recording unit 221 and a storing unit 222, and the user records the basic information of the user in the recording unit 221 before the user uses the basic information for the first time, in this embodiment, the recording mode of the recording unit 221 may be directly recorded on a computer, or the recording mode may be recorded by a mobile phone for scanning the public number two-dimensional code of the oxygen cabin. The storage unit 222 may be a cloud disk, and is configured to associate and store basic information of a user for reuse.
More specifically, the user needs to select and fill in his age and reason for use from the background, and the reason for use of the oxygen chamber includes the following categories:
1. aiming at healthy people: relieving pressure, resisting fatigue, relieving alcoholic intoxication, and activating skin for women;
2. aiming at sub-health population: auxiliary physiotherapy of sub-health symptoms such as insomnia, headache, dysphoria, anxiety, etc.;
3. aiming at the disease groups: auxiliary physical therapy for cardiovascular and cerebrovascular diseases, hypertension, hyperglycemia, depression, cerebral palsy, gout and the like.
The age and reason for use may be recorded in the following pattern: wangzhi, age: 55, use reason: cerebral thrombosis physiotherapy; lie, age: 28, use reason: relieving pressure … …
Referring to fig. 3, the monitoring subsystem 3 includes an internal environment monitoring module 31 and an oxygen supply monitoring module 32, the internal environment monitoring module 31 is configured to monitor an internal environment state of the cabin 1, and the internal environment state includes an internal temperature, an internal humidity, an internal PM2.5 value, and the like; the oxygen supply monitoring module 32 is used for monitoring the oxygen supply state inside the oxygen chamber in real time, and the oxygen supply state comprises oxygen flow and oxygen chamber pressure.
Specifically, the internal environment monitoring module 31 includes a temperature monitoring unit, a humidity monitoring unit and a PM2.5 monitoring unit, the temperature monitoring unit is a temperature sensor arranged inside the cabin 1, and monitors the internal temperature of the cabin 1 in real time and sends the internal temperature to the control subsystem 7; the humidity monitoring unit is a humidity sensor arranged in the cabin 1, monitors the humidity in the cabin 1 in real time and sends the internal humidity to the control subsystem 7; the PM2.5 monitoring unit is a PM2.5 detector arranged inside the cabin body 1, monitors the PM2.5 value inside the cabin body 1 in real time, and sends the PM2.5 value to the control subsystem 7.
Specifically, the oxygen supply monitoring module 32 includes a flow monitoring unit 321 and a pressure monitoring unit 322, an oxygen generator is connected to the cabin 1, the oxygen generator delivers oxygen to the cabin 1 through an oxygen pipe, and the flow monitoring unit 321 is used for monitoring the oxygen flow rate in the oxygen pipe. The pressure monitoring unit 322 is an air pressure detection sensor arranged inside the cabin body 1, and the air pressure detection sensor monitors the oxygen cabin pressure in real time and sends the oxygen cabin pressure to the control subsystem 7.
Referring to fig. 4, the environment conditioning subsystem 4 includes a temperature conditioning module 41, a humidity conditioning module 42, and an air quality conditioning module 43, wherein the temperature conditioning module 41 is configured to condition the temperature inside the cabin 1; the humidity adjusting module 42 is used for adjusting the humidity inside the cabin 1; the air quality control module 43 is used for purifying the air inside the cabin 1.
Specifically, in the present embodiment, the temperature adjusting module 41 is an air conditioner disposed inside the oxygen chamber, and can adjust the temperature inside the chamber body 1; the humidity adjusting module 42 is a humidifier arranged inside the oxygen chamber, and can perform humidification adjustment on the inside of the chamber body 1 when the inside of the chamber body 1 is dry; the air quality adjusting module 43 is an air purifier disposed inside the cabin 1, and purifies air in the cabin 1 when the PM2.5 value inside the cabin 1 is too high.
The oxygen supply regulation subsystem 5 comprises a flow regulation module 51 and a pressure regulation module 52, wherein the flow regulation module 51 regulates the oxygen flow in the oxygen pipe so as to control the oxygen flow; the pressure regulating module 52 is used for regulating the pressure inside the cabin 1.
Specifically, the flow regulating module 51 is a stepping motor of the oxygen generator, and regulates the power of the oxygen generator by regulating the rotating speed of the oxygen generator to provide oxygen flows of different sizes, so that various requirements of users can be met.
Specifically, referring to fig. 4 and 5, the pressure regulating module 52 includes a pressure boosting unit 521, a protection unit 522 and a pressure relief unit 523, wherein the pressure boosting unit 521 is used for performing a pressure boosting operation on the cabin 1; the protection unit 522 is used for performing air pressure balancing operation when the oxygen chamber pressure reaches a preset pressure value; the pressure relief unit 523 is used to perform a pressure relief operation on the cabin 1.
More specifically, in the present embodiment, the pressure boosting unit 521 includes a plurality of air inlet pipes communicating with the cabin 1 and air inlet solenoid valves disposed on the air inlet pipes, and one end of the air inlet pipe away from the cabin 1 is connected with a pressure boosting device. The air inlet electromagnetic valves are arranged in one-to-one correspondence with the air inlet pipes, the air inlet electromagnetic valves control the opening and closing of the corresponding air inlet pipes, and when the air inlet electromagnetic valves are opened, the pressure inside the oxygen cabin is increased.
More specifically, referring to fig. 5, the protection unit 522 includes a plurality of safety valves provided on the intake pipe, the safety valves being provided with safety pressure values, and the safety valves automatically open when the pressure at the safety valves reaches the safety pressure values of the safety valves. In this embodiment, the safety valves are arranged in one-to-one correspondence with the air intake solenoid valves, and when one of the air intake solenoid valves is opened, the air intake solenoid valve and the corresponding safety valve form a passage inside the cabin 1; when the inlet solenoid valves are not open, no passage can be formed inside the cabin 1, between the inlet solenoid valves and the corresponding safety valves.
When one of the air inlet electromagnetic valves is controlled to be opened and the safety valve corresponding to the air inlet electromagnetic valve is not opened, the interior of the cabin body 1 is pressurized under the action of the pressurization equipment; when the pressure inside the cabin body 1 is increased to the safe pressure value of the safety valve, the safety valve is opened, and the oxygen cabin performs air leakage operation, so that the pressure inside the cabin body 1 is maintained at the safe pressure value of the safety valve. In this embodiment, there are five intake pipes, correspondingly, there are five intake solenoid valves and five safety valves, and the safety pressure values of the five safety valves are all different, and in other embodiments, there may be other numbers.
For example, the relief pressure values of five intake solenoid valves and corresponding relief valves are set to:
intake solenoid valve 01 — safety valve 01: 1.1 standard atmosphere;
air intake solenoid valve 02 — safety valve 02: 1.15 standard atmospheres;
air inlet solenoid valve 03-safety valve 03: 1.2 standard atmospheres;
intake solenoid valve 04 — safety valve 04: 1.25 standard atmospheres;
air intake solenoid valve 05-safety valve 05: 1.3 standard atmospheres.
When the pressure needs to be adjusted to 1.1 standard atmospheric pressure, the air inlet electromagnetic valve 01 is controlled to be opened, the rest air inlet electromagnetic valves are closed, the safety valve 01 forms a passage through the air inlet electromagnetic valve 01 at the moment, and when the pressure in the cabin body 1 reaches 1.1 standard atmospheric pressure, the safety valve 01 is opened to perform air leakage operation, so that the pressure of the oxygen cabin is kept at 1.1 standard atmospheric pressure.
Specifically, referring to fig. 5, the pressure relief unit 523 includes a plurality of pressure relief pipes communicated with the cabin 1 and pressure relief solenoid valves disposed on the pressure relief pipes, and the pressure relief solenoid valves are disposed in one-to-one correspondence with the pressure relief pipes. In this embodiment, the pressure release pipe is provided with three, and correspondingly, the pressure release solenoid valve is provided with three, in other embodiments, also can set up to other quantity. For convenience of explanation, the pressure relief pipe and the corresponding pressure relief solenoid valve are set as follows:
pressure relief pipe 01-pressure relief solenoid valve 01;
pressure relief pipe 02-pressure relief solenoid valve 02;
pressure relief pipe 03-pressure relief solenoid valve 03.
When the pressure relief operation is required, the pressure relief solenoid valve 01 is controlled to be opened, so that the oxygen cabin can be slowly relieved; the pressure relief electromagnetic valve 01 and the pressure relief electromagnetic valve 02 are controlled to be opened, so that the oxygen cabin can be quickly relieved; and the pressure relief solenoid valve 01, the pressure relief solenoid valve 02 and the pressure relief solenoid valve 03 are controlled to be opened, so that the oxygen cabin can be subjected to extremely-fast pressure relief.
Referring to fig. 6, the operation terminal 6 includes a display module 61 and an operation module 62, the display module 61 is used for displaying the operation state of the oxygen cabin, and the operation state includes an internal environment state and an oxygen supply state; the operation module 62 is used for the user to issue an operation instruction to adjust the internal environment state and the oxygen supply state of the oxygen cabin.
Specifically, in this embodiment, the operation terminal 6 may be a touch display screen disposed inside the oxygen cabin, and in fact, the operation terminal 6 may be integrated with the acquisition subsystem 2 and appear as a tablet computer installed inside the cabin 1. The display module 61 comprises a plurality of display units, which respectively display real-time oxygen chamber pressure, oxygen flow, oxygen chamber internal temperature, oxygen chamber internal humidity, oxygen chamber internal PM2.5 grade, oxygen concentration, anion concentration and service time, and are convenient for users to check.
Specifically, the operation module 62 includes a pressure boosting operation unit, a pressure relief operation unit, a flow rate operation unit, a temperature operation unit, a humidity operation unit, an air quality operation unit, and an anion operation unit.
More specifically, the boost operation unit is used for the user to select the intended oxygen cabin pressure, in this embodiment, the boost operation unit includes five levels for the user to select, and the levels are respectively 1.1 atm, 1.15 atm, 1.2 atm, 1.25 atm and 1.3 atm, and after the user selects, the boost operation unit generates a boost adjustment command and sends the boost adjustment command to the control subsystem 7.
More specifically, the pressure relief operation unit allows a user to select an intended pressure relief speed, and in the embodiment, the pressure relief operation unit automatically selects a pressure relief closing option during use. In the use, the pressure release operating unit provides three levels for the user to select, is slow pressure release, quick pressure release and extremely fast pressure release respectively, and after the user selects corresponding option, the pressure release operating unit generates the pressure release instruction of adjusting to adjust the instruction with the pressure release and send control subsystem 7.
More specifically, the flow operation unit is used for the user to select the intended oxygen flow, and in this embodiment, the flow operation unit may provide three levels for the user to select, which are a normal mode, a soft mode in which the oxygen flow is relatively low, and a flow increasing mode in which the oxygen flow is relatively high. After the user selects the corresponding option, the flow operation unit generates a flow adjustment instruction and sends the flow adjustment instruction to the control subsystem 7.
More specifically, the temperature operation unit is used for the user to select the intended internal temperature of the oxygen chamber, and in the embodiment, the temperature operation unit can provide a plurality of internal temperatures of the oxygen chamber for the user to adjust according to self-adaptation conditions. After the user selects the corresponding option, the temperature operation unit generates a temperature adjustment instruction and sends the temperature adjustment instruction to the control subsystem 7.
More specifically, in the present embodiment, the humidity operation unit is used by a user to select a dehumidification or humidification function, and when the user selects a corresponding option, the humidity operation unit generates a humidity adjustment instruction and sends the humidity adjustment instruction to the control subsystem 7.
More specifically, in the present embodiment, the air quality operation unit is used for the user to select whether to turn on the air purification function, and when the user selects the corresponding option, the air quality operation unit generates the air quality adjustment unit and sends an air quality adjustment instruction to the control subsystem 7.
More specifically, in the present embodiment, the negative ion operation unit is used for the user to select whether to turn on the function of increasing the negative ion concentration, and when the user selects the corresponding option, the negative ion operation unit generates a negative ion adjustment instruction and sends the negative ion adjustment instruction to the control subsystem 7.
Referring to fig. 6, the control subsystem 7 includes a first control module 71, a second control module 72, and a third control module 73, where the first control module 71 is configured to receive the external environment information acquired by the acquisition subsystem 2, analyze the external environment information, and generate a first control instruction; the second control module 72 is configured to receive basic information of a user, analyze the basic information, and generate a second control instruction; the third control module 73 is used for analyzing the monitoring result generated by the monitoring subsystem 3, controlling the environment adjusting subsystem 4 to adjust the internal environment of the cabin 1 and controlling the oxygen supply state of the cabin 1 by the oxygen supply adjusting subsystem 5; the fourth control module 74 is configured to receive an operation instruction from the operation terminal 6, and control the environment adjusting subsystem 4 to adjust the internal environment of the cabin 1 and the oxygen supply adjusting subsystem 5 to adjust the internal oxygen supply state of the cabin 1 according to the operation instruction.
Specifically, the first control module 71 includes a storage unit 711 and a comparison unit 712, the storage unit 711 is configured to store a preset human body comfort temperature range, a preset human body comfort humidity range and a preset PM2.5 normal range, and the comparison unit 712 compares the external temperature, the external humidity and the external PM2.5 value with the preset human body comfort temperature range, the preset human body comfort humidity range and the preset PM2.5 normal range in the storage unit 711.
If the external temperature exceeds the comfortable temperature range of the human body, a first temperature control instruction is generated to adjust the internal temperature of the cabin body 1. For example, the preset human body comfortable temperature range is as follows: 23-28 ℃ (summer); 10-20 deg.C (winter). When the outside temperature is higher than 28 ℃ in summer, the comparison unit 712 determines that the outside temperature exceeds the comfortable temperature range of the human body, generates a first temperature control instruction, and controls the air conditioner inside the cabin body 1 to reduce the temperature inside the cabin body 1 to 26 ℃; when the outside temperature is lower than 10 ℃ in winter, the comparison unit 712 determines that the outside temperature exceeds the comfortable temperature range of the human body, generates a first temperature control command, and controls the air conditioner inside the cabin 1 to raise the temperature inside the cabin 1 to 16 ℃.
If the external humidity exceeds the comfortable temperature range of the human body, a first humidity control instruction is generated to adjust the internal humidity of the cabin body 1. For example, the preset human body comfort humidity range is 30% -80%. When the external humidity is less than 30%, the comparison unit 712 determines that the external humidity is lower than the comfortable humidity range of the human body, generates a first humidity control instruction, and controls the humidifier inside the cabin 1 to perform humidification processing; when the external humidity is higher than 80%, the comparison unit 712 determines that the external humidity is higher than the comfortable humidity range of the human body, generates a first humidity control command, and performs dehumidification on the cabin 1, i.e., turns off the humidifier, and waits for the air inside the cabin 1 to be discharged.
And if the external PM2.5 value exceeds the normal range, generating a first air control instruction to purify the air in the cabin body 1. For example, a predetermined PM2.5 value normally ranges from 0 to 35 μ g/m for flowering. When the external PM2.5 value is higher than 35 μ g/m, the comparison unit 712 determines that the PM2.5 value exceeds the normal range, generates the first air control command, and controls the air purifier to purify the air inside the cabin 1.
The first control module 71 can control the environment adjusting subsystem 4 to adjust the environment state inside the cabin 1, so that the environment state is suitable for most people, the steps of manual operation are reduced, and the intelligent automation degree of the oxygen cabin is improved.
Specifically, the second control module 72 includes an analysis unit 721 and a memory unit 722, wherein the analysis unit 721 is configured to analyze the basic information of the user, generate a suitable oxygen supply state of the user, and generate a second control instruction based on the oxygen supply state; the memory unit 722 associates and stores the basic information of the user with the appropriate oxygen supply state, so that the user can use the device again.
More specifically, the analysis unit 721 analyzes the age of the user, and preliminarily selects an appropriate oxygen chamber pressure. For example, the preset age threshold range is 16 to 50 years, when the age of the user is 28 years, the analysis unit 721 determines that the age threshold range is not exceeded, and preliminarily generates a first pressure control command for "normal person", controlling the oxygen chamber pressure to be a normal oxygen chamber pressure, for example, 1.2 atm; when the user has an age of 55 years, the analysis unit 721 determines that the age threshold range is exceeded, and preliminarily generates a first pressure control command for "old people" to adjust the oxygen chamber pressure to a low pressure, for example, 1.1 atm.
More specifically, the analysis unit 721 analyzes the reason for use selected by the user, determines the type of health of the user, and preliminarily selects an appropriate oxygen flow rate. For example, when the reason for use is cerebral thrombosis physiotherapy, the analysis unit 721 determines that the user is a sick person, and primarily determines that the oxygen flow in the oxygen cabin is in a flow increasing mode, at this time, the analysis unit 721 generates a first flow control instruction of the flow increasing mode, and controls the power of a stepping motor of the oxygen generator to increase; when the using reason is that the pressure is relieved, the analysis unit 721 determines that the user is a healthy person, and preliminarily determines that the oxygen flow in the oxygen chamber is in a normal mode, and at this time, the analysis unit 721 generates a first flow control instruction in the normal mode to control the stepping motor of the oxygen generator to be in a normal working state.
The second control module 72 can analyze the use reason of the user, preliminarily determine the oxygen supply state to adapt to the normal requirements of most users, reduce the steps of manual operation, and further improve the intelligent automation degree of the oxygen cabin.
Specifically, in the using process, if it is monitored that the internal environment state exceeds the preset range or the oxygen supply state is abnormal, the third control module 73 generates a third control instruction according to the monitoring result, and the environment regulating subsystem 4 and the oxygen supply regulating subsystem 5 regulate the internal environment state and the oxygen supply state of the cabin 1 according to the third control instruction.
Specifically, the fourth control module 74 generates a fourth control instruction according to the operation instruction of the user, the control environment adjusting subsystem 4 adjusts the internal environment of the cabin 1 according to the fourth control instruction, and the oxygen supply adjusting subsystem 5 adjusts the internal oxygen supply state of the cabin 1, and the specific processing flow can be known from the steps in the operation terminal 6. If the user feels uncomfortable during the actual use process or wants to adjust the internal environment state or the oxygen supply state of the cabin 1 for other reasons, the user can operate the operation terminal 6.
It should be noted that, in the present embodiment, the priority of the fourth control instruction is higher than that of the first control instruction, the second control instruction, and the third control instruction.
The implementation principle of the intelligent oxygen cabin control system in the embodiment of the application is as follows: the control module automatically generates a proper internal environment state and an oxygen supply state of the cabin 1 according to the external environment information acquired by the acquisition subsystem 2 and the basic information of the user; if the user needs to adjust the internal environment state and the oxygen supply state of the cabin 1 during the use process, the user can select the intended option through the operation terminal 6. The method and the device reduce the steps of manual setting by users, and improve the automation degree of the oxygen chamber; meanwhile, the oxygen cabin can be compatible with personal selection of users, and the versatility and the applicability of the oxygen cabin are reflected.
The application of this embodiment also discloses an intelligent oxygen cabin control method, which is applied to the above intelligent oxygen cabin control system, and with reference to fig. 7, the method includes the following steps:
s101, before use, obtaining external environment information, and adjusting the internal environment state of the oxygen cabin based on the external environment information;
s102, acquiring basic information of a user, and adjusting the oxygen supply state in the oxygen cabin based on the basic information;
s103, in the using process, the environmental state and the oxygen supply state in the oxygen cabin are monitored in real time, a monitoring result is generated, and the environmental state and the oxygen supply state are adjusted based on the monitoring result, or
And S104, receiving an operation instruction of a user, and adjusting the environment state and the oxygen supply state based on the operation instruction.
In step S101, before the user starts using the oxygen chamber, the external environmental information is analyzed, so as to automatically adjust the internal environmental state of the oxygen chamber.
In this embodiment, the external environment information is acquired through the acquisition subsystem, the acquisition subsystem includes an environment information acquisition module and a basic information acquisition module, the environment information acquisition module is used to acquire the external environment information, and the external environment information includes an external temperature, an external humidity, an external PM2.5 value, and the like. The basic information acquisition module is used for acquiring basic information of users, and the basic information comprises the ages, the use reasons and the like of the users.
Specifically, in this embodiment, the acquisition subsystem may be a network device connected to the internet, such as a computer, and it is understood that the computer may be installed inside the cabin or outside the cabin. The environment information acquisition module can be a system in a tablet computer, can acquire local real-time temperature, humidity and PM2.5 values, and sends real-time external temperature, external humidity and external PM2.5 values to the control subsystem. In addition, the environmental information acquisition module can also be a thermometer, a hygrometer and a PM2.5 detector which are installed outside the cabin body, detect the temperature, the humidity and the PM2.5 value outside the cabin body in real time, and send the detected outside temperature, outside humidity and outside PM2.5 value to the tablet personal computer.
Referring to fig. 8, after the external environment information is acquired, adjusting the internal environment state of the oxygen cabin based on the external environment information includes the steps of:
s201, comparing and analyzing the external temperature with a preset human body comfortable temperature range, and if the external temperature exceeds the human body comfortable temperature range, adjusting the internal temperature of the oxygen cabin to the human body comfortable temperature range;
s202, comparing and analyzing the external humidity with a preset human body comfortable humidity range, and if the external humidity exceeds the human body comfortable temperature range, adjusting the internal humidity of the oxygen cabin to the human body comfortable humidity range;
s203, comparing and analyzing the external PM2.5 value with a preset PM2.5 normal range, and purifying the air in the oxygen cabin if the external PM2.5 value exceeds the normal range.
Specifically, in this embodiment, the external environment information is analyzed by the first control module, and the internal environment state of the oxygen chamber is adjusted. The first control module comprises a storage unit and a comparison unit, the storage unit is used for storing a preset human body comfortable temperature range, a human body comfortable humidity range and a PM2.5 normal range, and the comparison unit compares the external temperature, the external humidity and an external PM2.5 value with the preset human body comfortable temperature range, the human body comfortable humidity range and the PM2.5 normal range in the storage unit.
And if the external temperature exceeds the comfortable temperature range of the human body, generating a first temperature control instruction to adjust the internal temperature of the cabin body. For example, the preset human body comfortable temperature range is as follows: 23-28 ℃ (summer); 10-20 deg.C (winter). When the outside temperature is higher than 28 ℃ in summer, the comparison unit determines that the outside temperature exceeds the comfortable temperature range of the human body, generates a first temperature control instruction and controls an air conditioner in the cabin to reduce the temperature in the cabin to 26 ℃; when the external temperature is lower than 10 ℃ in winter, the comparison unit determines that the external temperature exceeds the comfortable temperature range of the human body, generates a first temperature control instruction and controls the air conditioner inside the cabin body to raise the internal temperature of the cabin body to 16 ℃.
And if the external humidity exceeds the comfortable temperature range of the human body, generating a first humidity control instruction to adjust the internal humidity of the cabin. For example, the preset human body comfort humidity range is 30% -80%. When the external humidity is less than 30%, the comparison unit determines that the external humidity is lower than the comfortable humidity range of the human body, generates a first humidity control instruction and controls a humidifier in the cabin to perform humidification treatment; when the external humidity is higher than 80%, the comparison unit determines that the external humidity is higher than the comfortable humidity range of the human body, generates a first humidity control instruction, performs dehumidification treatment on the cabin body, namely closes the humidifier, and waits for the air in the cabin body to be discharged.
And if the external PM2.5 value exceeds the normal range, generating a first air control instruction to purify the air in the cabin. For example, a predetermined PM2.5 value normally ranges from 0 to 35 μ g/m for flowering. When the external PM2.5 value is higher than 35 mug/m, the comparison unit determines that the PM2.5 value exceeds the normal range, generates a first air control instruction, and controls the air purifier to purify the air in the cabin.
In step S102, the basic information of the user is collected by the basic information collection module.
Specifically, the basic information acquisition module includes recording element and save unit, and the user of service records the basic information of self in the recording element before using for the first time, and in this embodiment, the record mode of recording element can directly record on the computer, or scan the public number two-dimensional code in oxygen cabin and record with the cell-phone. The storage unit can be a cloud disk and is used for associating and storing the basic information of the user for reuse.
More specifically, the user needs to select and fill in his age and reason for use from the background, and the reason for use of the oxygen chamber includes the following categories:
1. aiming at healthy people: relieving pressure, resisting fatigue, relieving alcoholic intoxication, and activating skin for women;
2. aiming at sub-health population: auxiliary physiotherapy of sub-health symptoms such as insomnia, headache, dysphoria, anxiety, etc.;
3. aiming at the disease groups: auxiliary physical therapy for cardiovascular and cerebrovascular diseases, hypertension, hyperglycemia, depression, cerebral palsy, gout and the like.
The age and reason for use may be recorded in the following pattern: wangzhi, age: 55, use reason: cerebral thrombosis physiotherapy; lie, age: 28, use reason: relieving pressure … …
Specifically, referring to fig. 9 and 10, after the basic information is acquired, the oxygen supply state of the oxygen cabin is adjusted based on the basic information, where the oxygen supply state includes oxygen flow and oxygen cabin pressure, and the method specifically includes the following steps:
s301, judging whether the age of a user exceeds a preset age threshold range;
s302, if the age of the user is within a preset age threshold range, preliminarily determining that the oxygen cabin pressure is in a normal pressure state;
and S303, if the age of the user exceeds a preset age threshold, preliminarily determining that the oxygen chamber pressure is in a low-pressure state.
S304, determining the health type of the user according to the use reason of the user, and selecting the corresponding oxygen flow based on the health type, wherein the health type comprises healthy people, sub-healthy people and disease people;
s305, if the health type is determined to be the disease crowd, primarily determining the oxygen flow in the oxygen cabin to be in a flow increasing mode;
s306, if the health type is determined to be healthy people or sub-healthy people, the oxygen flow in the oxygen cabin is preliminarily determined to be in a conventional mode.
Specifically, in the present embodiment, the second control module is used to analyze the basic information. The second control module comprises an analysis unit and a memory unit, wherein the analysis unit is used for analyzing the basic information of the user, generating a proper oxygen supply state of the user and generating a second control instruction based on the oxygen supply state; the memory unit associates and stores the basic information of the user with the suitable oxygen supply state, so that the user can use the oxygen supply device again conveniently.
More specifically, the analysis unit analyzes the age of the user and preliminarily selects an appropriate oxygen chamber pressure. For example, the preset age threshold range is 16-50 years, when the age of the user is 28 years, the analysis unit determines that the age threshold range is not exceeded, and preliminarily generates a first pressure control command of "normal person", and controls the oxygen chamber pressure to be the normal oxygen chamber pressure, for example, 1.2 atmospheres; when the user has an age of 55 years, the analysis unit determines that the age threshold range is exceeded and initially generates a first pressure control command for "elderly" to adjust the oxygen chamber pressure to a low pressure, for example 1.1 atmospheres.
More specifically, the analysis unit analyzes the use reason selected by the user, determines the health type of the user, and preliminarily selects an appropriate oxygen flow rate. For example, when the using reason is cerebral thrombosis physiotherapy, the analysis unit determines that the user is a disease crowd and preliminarily determines that the oxygen flow in the oxygen cabin is in a flow increasing mode, and at the moment, the analysis unit generates a first flow control instruction of the flow increasing mode and controls the power of a stepping motor of the oxygen generator to be increased; when the using reason is that the pressure is relieved, the analysis unit determines that the using personnel are healthy people, preliminarily determines that the oxygen flow in the oxygen cabin is in a conventional mode, and generates a first flow control instruction in the conventional mode to control the stepping motor of the oxygen generator to be in a normal working state.
The second control module can analyze the use reason of the user, preliminarily determine the oxygen supply state, adapt to the normal requirements of most users, reduce the steps of manual operation, and further improve the intelligent automation degree of the oxygen cabin.
In step S103, the monitoring result is analyzed by the third control module, and in the using process, if it is monitored that the internal environment state exceeds the preset range or the oxygen supply state is abnormal, the third control module generates a third control instruction according to the monitoring result, and the environment regulation subsystem and the oxygen supply regulation subsystem regulate the internal environment state and the oxygen supply state of the cabin according to the third control instruction.
In step S104, the operation command includes a temperature adjustment command, a humidity adjustment command, an air quality adjustment command, an oxygen concentration adjustment command, a pressure increase adjustment command, and a pressure release adjustment command. In this embodiment, the user may issue an operation instruction through the operation terminal. The operation terminal comprises a display module and an operation module, wherein the display module is used for displaying the running state of the oxygen cabin, and the running state comprises an internal environment state and an oxygen supply state; the operation module is used for the operating personnel to issue the operating instruction, adjusts the internal environment state and the oxygen suppliment state of oxygen cabin.
Specifically, in this embodiment, the operation terminal may be a touch display screen disposed inside the oxygen cabin, and in fact, the operation terminal may be integrated with the acquisition subsystem to be represented as a tablet computer installed inside the cabin. The display module comprises a plurality of display units, and the display units respectively display real-time oxygen cabin pressure, oxygen flow, oxygen cabin internal temperature, oxygen cabin internal humidity, oxygen cabin internal PM2.5 grade, oxygen concentration, anion concentration and service time, so that the display units are convenient for users to check.
Specifically, the operation module comprises a boosting operation unit, a pressure relief operation unit, a flow operation unit, a temperature operation unit, a humidity operation unit, an air quality operation unit and an anion operation unit.
More specifically, the boost operation unit is used for the user to select the intended oxygen cabin pressure, in this embodiment, the boost operation unit includes five levels for the user to select, and the five levels are respectively 1.1 atm, 1.15 atm, 1.2 atm, 1.25 atm and 1.3 atm, and after the user selects, the boost operation unit generates a boost adjustment instruction and sends the boost adjustment instruction to the control subsystem.
More specifically, the pressure relief operation unit allows a user to select an intended pressure relief speed, and in the embodiment, the pressure relief operation unit automatically selects a pressure relief closing option during use. In the use, the pressure release operating unit provides three levels for the user to select, is slow pressure release, quick pressure release and extremely fast pressure release respectively, and after the user selects corresponding option, the pressure release operating unit generates the pressure release instruction of adjusting to adjust the instruction with the pressure release and send control subsystem.
More specifically, the flow operation unit is used for the user to select the intended oxygen flow, and in this embodiment, the flow operation unit may provide three levels for the user to select, which are a normal mode, a soft mode in which the oxygen flow is relatively low, and a flow increasing mode in which the oxygen flow is relatively high. And after the user selects the corresponding option, the flow operation unit generates a flow regulation instruction and sends the flow regulation instruction to the control subsystem.
More specifically, the temperature operation unit is used for the user to select the intended internal temperature of the oxygen chamber, and in the embodiment, the temperature operation unit can provide a plurality of internal temperatures of the oxygen chamber for the user to adjust according to self-adaptation conditions. And after the user selects the corresponding option, the temperature operation unit generates a temperature adjustment instruction and sends the temperature adjustment instruction to the control subsystem.
More specifically, in this embodiment, the humidity operation unit is used for a user to select a dehumidification or humidification function, and when the user selects a corresponding option, the humidity operation unit generates a humidity adjustment instruction and sends the humidity adjustment instruction to the control subsystem.
More specifically, in this embodiment, the air quality operation unit is used for the user to select whether to turn on the air purification function, and when the user selects the corresponding option, the air quality operation unit generates the air quality adjustment unit and sends an air quality adjustment instruction to the control subsystem.
More specifically, in this embodiment, the negative ion operation unit is used for the user to select whether to turn on the function of increasing the negative ion concentration, and after the user selects the corresponding option, the negative ion operation unit generates a negative ion adjustment instruction and sends the negative ion adjustment instruction to the control subsystem.
The fourth control module generates a fourth control instruction according to the operation instruction of the user, the control environment adjusting subsystem adjusts the internal environment of the cabin according to the fourth control instruction and the oxygen supply adjusting subsystem adjusts the oxygen supply state of the internal of the cabin, and the specific processing flow can be known through the steps in the operation terminal. If the user feels uncomfortable or wants to adjust the internal environment state or the oxygen supply state of the cabin body due to other reasons in the actual use process, the operation is carried out through the operation terminal.
The implementation principle of the intelligent oxygen cabin control method in the embodiment of the application is as follows: acquire external environment information, according to external environment information automatic adjustment oxygen cabin internal environment state, acquire user's use reason, tentatively confirm the inside oxygen suppliment state in oxygen cabin according to the use reason to adapt to most user personnel, user personnel can also adjust oxygen cabin internal environment state and oxygen suppliment state at any time in the use simultaneously. The utility model provides a set up the manual operation step that has reduced user of service personnel, improved the intelligent degree in oxygen cabin, user of service still can adjust oxygen cabin internal environment state and oxygen suppliment state at any time according to self demand in the use, improved the multifunctionality and the suitability in oxygen cabin.
The above embodiments are preferred embodiments of the present application, and the protection scope of the present application is not limited by the above embodiments, so: all equivalent changes made according to the structure, shape and principle of the present application shall be covered by the protection scope of the present application.
Claims (10)
1. An intelligent oxygen chamber control method is characterized by comprising the following steps:
before use, acquiring external environment information, and adjusting the internal environment state of the oxygen cabin based on the external environment information;
acquiring basic information of a user, and adjusting the oxygen supply state of the oxygen cabin based on the basic information;
during the use process, the internal environment state and the oxygen supply state of the oxygen cabin are monitored in real time to generate monitoring results, and the environment state and the oxygen supply state are adjusted based on the monitoring results,
Or
And receiving an operation instruction of a user, and adjusting the internal environment state and the oxygen supply state based on the operation instruction.
2. The intelligent oxygen chamber control method as claimed in claim 1, wherein the external environment information comprises an external temperature, an external humidity and an external PM2.5 value, and the adjusting of the internal environment state of the oxygen chamber based on the external environment information comprises the following steps:
comparing and analyzing the external temperature with a preset human body comfortable temperature range, and if the external temperature exceeds the human body comfortable temperature range, adjusting the internal temperature of the oxygen cabin to the human body comfortable temperature range;
comparing and analyzing the external humidity with a preset human body comfortable humidity range, and if the external humidity exceeds the human body comfortable temperature range, adjusting the internal humidity of the oxygen cabin to the human body comfortable humidity range;
and comparing and analyzing the external PM2.5 value with a preset PM2.5 normal range, and purifying the air in the oxygen cabin if the external PM2.5 value exceeds the normal range.
3. The intelligent oxygen chamber control method as claimed in claim 2, wherein the basic information comprises age and reason for use, the oxygen demand comprises oxygen flow and oxygen chamber pressure, and the adjusting of the oxygen supply state of the oxygen chamber based on the basic information comprises the following steps:
judging whether the age of the user exceeds a preset age threshold range or not;
if the age of the user is within a preset age threshold range, preliminarily determining that the oxygen cabin pressure is in a normal pressure state;
and if the age of the user exceeds a preset age threshold value, preliminarily determining that the oxygen chamber pressure is in a low-pressure state.
4. The intelligent oxygen cabin control method according to claim 3, wherein the adjusting of the oxygen supply state of the oxygen cabin based on the basic information further comprises the following steps:
determining the health type of a user according to the use reason of the user, and selecting the corresponding oxygen flow based on the health type, wherein the health type comprises healthy people, sub-healthy people and disease people;
if the health type is determined to be the disease crowd, primarily determining the oxygen flow in the oxygen cabin to be a flow increasing mode;
and if the health type is determined to be healthy people or sub-healthy people, preliminarily determining that the oxygen flow in the oxygen cabin is in a conventional mode.
5. The intelligent oxygen cabin control method of claim 1, wherein the operating instructions comprise a temperature regulation instruction, a humidity regulation instruction, an air quality regulation instruction, an oxygen concentration regulation instruction, a pressure rise regulation instruction, and a pressure release regulation instruction.
6. An intelligent oxygen cabin control system is characterized by comprising a cabin body (1), an acquisition subsystem (2), a monitoring subsystem (3), an environment regulation subsystem (4), an oxygen supply regulation subsystem (5), a control subsystem (7) and an operation terminal (6), wherein the acquisition subsystem (2), the monitoring subsystem (3), the environment regulation subsystem (4) and the oxygen supply regulation subsystem (5) are arranged on the cabin body (1), and the operation terminal (6) is respectively connected with the acquisition subsystem (2), the monitoring subsystem (3), the environment regulation subsystem (4) and the oxygen supply regulation subsystem (5);
the acquisition subsystem (2) is used for acquiring external environment information and basic information of users;
the monitoring subsystem (3) is used for monitoring the internal environment state and the oxygen supply state of the oxygen cabin in real time and obtaining a monitoring result;
the environment adjusting subsystem (4) is used for adjusting the internal environment state of the cabin (1);
the oxygen supply regulating subsystem (5) is used for regulating the oxygen supply state in the cabin (1);
the operation terminal (6) is used for receiving an operation instruction of a user and sending the operation instruction to the control subsystem (7);
the control subsystem (7) is configured to generate a control instruction based on the external environment information, the basic information, the monitoring result, and the operation instruction, and control the environment regulation subsystem (4) and the oxygen supply regulation subsystem (5) to adjust an environment state and an oxygen supply state inside the cabin (1) based on the control instruction.
7. An intelligent oxygen cabin control system according to claim 6, characterized in that the environmental conditioning subsystem (4) comprises:
a temperature adjustment module (41), wherein the temperature adjustment module (41) is used for adjusting the temperature in the cabin (1) based on the control instruction;
a humidity adjustment module (42), wherein the humidity adjustment module (42) is used for adjusting the humidity in the cabin (1) based on the control instruction;
and the air quality adjusting module (43), wherein the air quality adjusting module (43) purifies the air in the cabin body (1) based on the control instruction.
8. An intelligent oxygen cabin control system according to claim 6, characterized in that the oxygen supply regulation subsystem (5) comprises;
a flow regulating module (51), wherein the flow regulating module (51) is used for regulating the oxygen flow inside the cabin (1) based on the control instruction;
and a pressure regulation module (52), wherein the pressure regulation module (52) is used for regulating the oxygen chamber pressure based on the control instruction.
9. The intelligent oxygen cabin control system of claim 6, wherein the pressure regulating module (52) comprises:
the boosting unit (521), the boosting unit (521) performs boosting operation on the interior of the cabin (1) according to the control command;
the protection unit (522) is used for carrying out balanced air pressure operation on the cabin body (1) when the pressure monitoring unit (322) monitors that the interior of the cabin body (1) reaches a preset air pressure value;
and the pressure relief unit (523) is used for performing pressure relief operation on the interior of the cabin (1) based on the operation instruction.
10. An intelligent oxygen cabin control system according to claim 6, characterized in that the operation terminal (6) comprises:
the display module (61), the said display module (61) is used for revealing the interior environmental information of oxygen cabin and oxygen supply state;
and the operation module (62), the operation module (62) is used for the operating personnel to issue the operation instruction.
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