Gas analysis control device for oxygen cabin

Abstract

The utility model discloses a gas analysis control device for an oxygen cabin. The gas analysis control device comprises an air compressor, an oxygen tank, an air filter, an air inlet electric control valve, an exhaust electric control valve, the oxygen cabin and a gas analysis control system, the gas analysis control system comprises an air quality sensor, an air quality monitoring system, an oxygen concentration sensor, an oxygen concentration monitoring system and a control system; the automatic control technology is applied, the flow of the gas introduced into the oxygen cabin is fed back and adjusted according to the detected air quality and oxygen concentration data, the gas content in the cabin finally reaches the standard through multiple times of feedback adjustment, the treatment quality is ensured, and the requirement for the comfort degree of people in the cabin is met. Meanwhile, the control system can timely find out faults by monitoring the gas data change condition in real time, and the working stability and safety of the oxygen cabin are ensured.

Description

Technical Field

[0001] This utility model belongs to the field of hyperbaric oxygen chamber technology, specifically relating to a gas analysis and control device for an oxygen chamber. Background Technology

[0002] In modern medical systems, hyperbaric oxygen therapy is an important treatment method. It uses oxygen and pressurized gas as a medium to treat anaerobic infections, carbon monoxide poisoning, air embolism, decompression sickness, hypoxic-ischemic encephalopathy, traumatic brain injury, and cerebrovascular diseases. Therefore, the quality of the gas source within the hyperbaric chamber directly affects the treatment outcome. The main components of the gas in the hyperbaric chamber come from the source gas and waste gases generated by human activity. Besides being affected by the ambient air at the air inlet, the source gas is also influenced by the air compressor, storage tank, and pressure pipelines. Current hyperbaric chambers control the source gas quality using a single detector, which is labor-intensive, lacks real-time monitoring, and can easily lead to low medical quality and undetected equipment malfunctions. Furthermore, while focusing on the control and monitoring of the source gas, the physiological hygiene and comfort needs of the personnel inside the chamber are neglected. Therefore, designing a gas analysis and control device for hyperbaric chambers is of great significance. Utility Model Content

[0003] To address the aforementioned deficiencies, this utility model aims to provide a gas analysis and control device for oxygen chambers. This device monitors the gas quality inside the oxygen chamber in real time, ensuring a stable gas supply, timely discharge of waste gas, and a comfortable experience for personnel.

[0004] To achieve the above technical objectives, the following technical solutions were adopted:

[0005] A gas analysis and control device for an oxygen chamber includes an air compressor, an oxygen tank, an air filter, an electric intake regulating valve, an electric exhaust regulating valve, an oxygen chamber, and a gas analysis and control system; the gas analysis and control system includes an air quality sensor, an air quality monitoring system, an oxygen concentration sensor, an oxygen concentration monitoring system, and a control system.

[0006] The air compressor is connected to an air filter. The filtered compressed air passes through an air quality sensor and an electric intake regulating valve before entering the oxygen chamber. An air quality sensor is also installed in the oxygen chamber. The air quality sensor collects the air quality data of the filtered air and the air quality data inside the chamber, and then transmits it to the air quality monitoring system.

[0007] The oxygen tank is directly connected to the oxygen chamber to provide oxygen to the oxygen chamber. The oxygen chamber is equipped with an oxygen concentration sensor, which is used to collect oxygen concentration data in the oxygen chamber and then transmit it to the oxygen concentration monitoring system.

[0008] The air quality monitoring system is used to monitor the air quality at the back end of the air filter and inside the oxygen chamber, and transmits the results to the control system; the oxygen concentration monitoring system is used to monitor the oxygen concentration inside the oxygen chamber, and transmits the results to the control system; the control system is connected to the intake electric regulating valve and the exhaust electric regulating valve and is used to adjust the opening degree of the intake electric regulating valve and the exhaust electric regulating valve.

[0009] Furthermore, there are multiple oxygen concentration sensors, each connected to an oxygen concentration monitoring system.

[0010] Furthermore, the number of oxygen concentration sensors is two.

[0011] Furthermore, the air quality sensor and oxygen concentration sensor each include an audible and visual alarm device.

[0012] Furthermore, the air compressor is an oil-free air compressor.

[0013] Furthermore, the air filter is filled with an adsorbent to adsorb the compressed gas particles, oil, and harmful gases generated by the oil-free air compressor (1).

[0014] Furthermore, the adsorbent is activated carbon.

[0015] The beneficial effects achieved by this utility model are:

[0016] Compared with existing technologies, this invention utilizes air quality sensors and oxygen concentration sensors to collect data on compressed air and oxygen levels within the oxygen chamber, respectively. The detected data is then transmitted to an air quality monitoring system and an oxygen concentration monitoring system. These systems monitor the compressed air quality and oxygen concentration in real time and transmit the results to a control system. The control system connects to an electric intake valve and an electric exhaust valve, adjusting the flow rate of the introduced gas based on the detected air quality and oxygen concentration data. Through multiple feedback adjustments, the gas content within the chamber ultimately meets the standards, ensuring treatment quality and meeting the comfort requirements of the personnel inside. Simultaneously, by monitoring changes in gas data in real time, the control system can promptly detect faults, ensuring the stability and safety of the oxygen chamber operation. Therefore, this invention has the advantages of comprehensive monitoring, real-time monitoring, timely response, and ensuring medical quality. Attached Figure Description

[0017] The present invention will now be described in conjunction with the accompanying drawings.

[0018] Appendix Figure 1 This is a schematic diagram of a gas analysis and control device system for an oxygen chamber according to the present invention.

[0019] In the diagram: 1. Air compressor; 2. Air filter; 3. Air quality sensor; 4. Intake electric regulating valve; 5. Air quality monitoring system; 6. Oxygen chamber; 7. Control system; 8. Oxygen concentration monitoring system; 9. Exhaust electric regulating valve; 10. Oxygen concentration sensor; 11. Oxygen tank. Detailed Implementation

[0020] The following specific embodiments illustrate the implementation of this utility model. Those skilled in the art can easily understand other advantages and effects of this utility model from the content disclosed in this specification. The described embodiments are merely some embodiments of this invention, not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this utility model.

[0021] like Figure 1 As shown, the present invention provides a gas analysis and control device for an oxygen chamber, comprising an air compressor 1, an oxygen tank 11, an air filter 2, an intake electric regulating valve 4, an exhaust electric regulating valve 9, an oxygen chamber 6, and a gas analysis and control system.

[0022] The air compressor 1 delivers compressed air into the oxygen chamber 6, and an oil-free air compressor is selected to greatly reduce the pollution of hydrocarbons and oil mist during the compression process.

[0023] The air filter 2 is filled with activated carbon of various types. Activated carbon is used to adsorb particulate matter, oil and harmful gases in compressed gas.

[0024] The intake electric regulating valve 4 is used to control the rate and flow of compressed air entering the oxygen chamber.

[0025] The exhaust electric regulating valve 9 is used to control the rate and flow rate of the mixed gas such as compressed air and exhaust gas discharged from the oxygen chamber;

[0026] The gas analysis and control system includes an air quality sensor 3, an air quality monitoring system 5, an oxygen concentration sensor 10, an oxygen concentration monitoring system 8, and a control system 7.

[0027] The air quality sensor 3 samples the compressed air at the rear end of the air filter 2 and into the oxygen chamber 6, and transmits the data to the air quality monitoring system 5; the oxygen concentration sensor 10 samples the oxygen concentration in the oxygen chamber 6 and transmits the data to the oxygen concentration monitoring system 8; the air quality monitoring system 5 monitors the air quality at the rear end of the air filter 2 and in the oxygen chamber 6 in real time, and transmits the results to the control system 7; the oxygen concentration monitoring system 8 monitors the oxygen concentration in the oxygen chamber 6 in real time, and transmits the signal to the control system 7; the control system 7 processes the data signals from the air quality monitoring system 5 and the oxygen concentration monitoring system 8, controls the intake electric regulating valve 4 and the exhaust electric regulating valve 9, and adjusts the gas flow rate in real time to control the air quality in the oxygen chamber 6. Example 1

[0028] The air compressor 1 is connected to the air filter 2. The filtered compressed air passes through the air quality sensor 3 and the intake electric regulating valve 4 in sequence before entering the oxygen chamber 6. The oxygen chamber 6 is also equipped with an air quality sensor 3. The air quality sensor 3 outside the oxygen chamber 6 and the air quality sensor 3 inside the oxygen chamber 6 are respectively connected to the air quality monitoring system 5 to monitor changes in air quality in real time.

[0029] The oxygen tank 11 is directly connected to the oxygen chamber 6 to provide oxygen to the oxygen chamber 6. The oxygen chamber 6 is equipped with an oxygen concentration sensor 10, which is connected to the oxygen concentration monitoring system 8 to monitor changes in oxygen concentration in real time.

[0030] The air quality monitoring system 5 and the oxygen concentration monitoring system 8 are respectively connected to the control system 7; the control system 7 is connected to the intake electric regulating valve 4 and the exhaust electric regulating valve 9, and adjusts the opening of the intake electric regulating valve 4 and the exhaust electric regulating valve 9 according to the monitored air quality and oxygen concentration results, and performs multiple feedback adjustments until the gas environment is stable. Example 2

[0031] This embodiment is based on Embodiment 1. In order to monitor the changes in oxygen concentration in the oxygen chamber 6 more evenly and comprehensively, two oxygen concentration sensors 10 are installed in the oxygen chamber 6. The two oxygen concentration sensors 10 are located at the front and rear sides of the oxygen chamber, respectively, and are connected to the oxygen concentration monitoring system 8. Example 3

[0032] This embodiment, based on Embodiment 1, adds an audible and visual alarm device to the air quality sensor 3 and oxygen concentration sensor 10 to enable real-time monitoring of the air entering the oxygen chamber 6 and changes in the air and oxygen content within the chamber, and to provide timely feedback on whether the gas quality within the chamber 6 meets the standards, so as to better regulate the intake electric regulating valve 4 and the exhaust electric regulating valve 9. If the gas quality collected by the air quality sensor 3 and oxygen concentration sensor 10 is substandard, the air quality sensor 3 and oxygen concentration sensor 10 will issue both audible and visual alarm signals.

[0033] The following is the detailed implementation process of Example 3:

[0034] Option 1: When the air quality data collected by the air quality sensor 3 located at the rear end of the air filter 2 is monitored in real time by the air quality monitoring system 5, if the air quality data does not meet the standards, the air quality monitoring system 5 will feed back the results to the air quality sensor 3 and the control system 7. At this time, the air quality sensor 31 located at the rear end of the air filter 2 will emit both audible and visual alarm signals, and the control system 7 will issue a prompt to replace the adsorbent material filled in the air filter 2.

[0035] Option 2: When the oxygen concentration sensor 10 and air quality sensor 3 located in oxygen chamber 6 collect oxygen concentration and air quality data that do not meet the standards, the air quality monitoring system 5 and oxygen concentration monitoring system 8 respectively feed back the results to the control system 7. At this time, the oxygen concentration sensor 10 and air quality sensor 3 located in oxygen chamber 6 will emit both audible and visual alarm signals. The control system 7 will issue a prompt and simultaneously automatically switch the ventilation mode, increase the opening of the intake electric regulating valve 4 and the exhaust electric regulating valve 9, and automatically perform fresh air replenishment. While maintaining a stable pressure in oxygen chamber 6, the excess gas in oxygen chamber 6 is removed, and the air is replaced to ensure that the gas concentration indicators in the chamber are within the normal range.

[0036] Other aspects of this utility model that are not detailed herein are all conventional techniques known to those skilled in the art.

[0037] It should be noted that the terms “comprising,” “including,” or any other variations are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0038] The scope of protection of this utility model is not limited to the technical solutions disclosed in the specific embodiments. Any modifications, equivalent substitutions, improvements, etc., made to the above embodiments based on the technical essence of this utility model shall fall within the scope of protection of this utility model.

Claims

1. A gas analysis and control device for an oxygen chamber, comprising an air compressor (1), an oxygen tank (11), an air filter (2), an intake electric regulating valve (4), an exhaust electric regulating valve (9), an oxygen chamber (6), and a gas analysis and control system; characterized in that: The gas analysis and control system includes an air quality sensor (3), an air quality monitoring system (5), an oxygen concentration sensor (10), an oxygen concentration monitoring system (8), and a control system (7). The air compressor (1) is connected to the air filter (2). The filtered compressed air passes through the air quality sensor (3) and the intake electric regulating valve (4) in sequence before entering the oxygen chamber (6). The oxygen chamber (6) is also equipped with an air quality sensor (3). The air quality sensor (3) collects the air quality data after filtration and the air quality data in the chamber, and then transmits it to the air quality monitoring system (5). The oxygen tank (11) is directly connected to the oxygen chamber (6) to provide oxygen to the oxygen chamber (6). The oxygen chamber (6) is equipped with an oxygen concentration sensor (10). The oxygen concentration sensor (10) is used to collect oxygen concentration data in the oxygen chamber (6) and then transmit it to the oxygen concentration monitoring system (8). The air quality monitoring system (5) is used to monitor the air quality at the back end of the air filter (2) and in the oxygen chamber (6), and transmits the results to the control system (7); the oxygen concentration monitoring system (8) is used to monitor the oxygen concentration in the oxygen chamber (6), and transmits the results to the control system (7); the control system (7) is connected to the intake electric regulating valve (4) and the exhaust electric regulating valve (9) and is used to adjust the opening of the intake electric regulating valve (4) and the exhaust electric regulating valve (9).

2. The gas analysis and control device for an oxygen chamber according to claim 1, characterized in that: There are multiple oxygen concentration sensors (10), each connected to the oxygen concentration monitoring system (8).

3. The gas analysis and control device for an oxygen chamber according to claim 2, characterized in that: The number of oxygen concentration sensors (10) is two.

4. The gas analysis and control device for an oxygen chamber according to claim 1, characterized in that: The air quality sensor (3) and oxygen concentration sensor (10) each contain an audible and visual alarm device.

5. The gas analysis and control device for an oxygen chamber according to claim 1, characterized in that: The air compressor (1) is an oil-free air compressor.

6. The gas analysis and control device for an oxygen chamber according to claim 1, characterized in that: The air filter (2) is filled with an adsorbent to adsorb compressed gas particles, oil, and harmful gases generated by the air compressor (1).

7. The gas analysis and control device for an oxygen chamber according to claim 6, characterized in that: The adsorbent is activated carbon.

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