320 results about "Hyperbaric oxygen chambers" patented technology

The invention relates to the technical field of water level monitoring, in particular to a visual monitoring system for the condensate water level of a micro-hyperbaric oxygen chamber, which adopts the technical scheme that an internal image of a water receiving box is acquired at a preset frequency, and water mist and reflective interference are eliminated by adopting a dynamic illumination compensation and frequency domain filtering technology; a U-Net deep learning model is integrated, a water level line is segmented through multi-scale feature fusion, foam and impurity artifacts are recognized in combination with time sequence analysis, a water level value is dynamically corrected, graded alarm is triggered according to a water level threshold value, an air conditioner drainage system is linked, traditional image processing and the deep learning model are combined, and detection robustness under complex working conditions is improved. Real water levels and interferents are effectively distinguished through time sequence analysis and physical characteristic modeling, the real-time requirement under the high-pressure environment is met through the model compression and hardware acceleration technology, and absolute reliability of equipment operation is ensured through linkage of a grading early warning mechanism and a drainage system.

The invention discloses a control system and method based on an integrated intelligent micro-high-pressure oxygen-enriched cabin, and the system comprises a data collection module which collects the real-time physiological parameters of a user and the environment data in the cabin, and obtains a multi-modal fusion data set; the decision obtaining module is used for constructing a high-fidelity physiological deduction model to predict the health trend and oxygen therapy response of the user by utilizing an adversarial digital twinborn body and combining a physiological environment dynamic causal mining mechanism based on the multi-modal fusion data, and obtaining a personalized oxygen therapy optimization scheme; the structure of the high-fidelity physiological deduction model comprises a causal antagonism digital twin body improved through a physiological environment dynamic causal mining mechanism, a causal generator and a causal discriminator; the intelligent control module is used for adjusting the pressure, the oxygen concentration and the treatment duration of the micro hyperbaric oxygen chamber in real time on the basis of a personalized oxygen therapy optimization scheme, and intelligent control is achieved.

The invention particularly relates to a micro-hyperbaric oxygen chamber oxygen supply system and a micro-hyperbaric oxygen chamber monitoring system. The micro-hyperbaric oxygen chamber oxygen supply system comprises a data collection module, an oxygen supply module and a monitoring module, the data analysis module is used for respectively analyzing the state information of the compressor, the blockage state information of the air filter and the leakage state information to obtain an abnormal coefficient, a blockage coefficient and a possible leakage coefficient of the compressor; the comprehensive processing module is used for comprehensively processing the compressor abnormal coefficient, the blockage coefficient and the leakage possibility coefficient to obtain a monitoring evaluation coefficient; and a judgment module. According to the method, multi-physical field data fusion and spatial feature analysis are carried out, the system achieves the crossing from single-point threshold value alarm to whole-system health assessment, the current fault can be accurately positioned, potential risks such as the compressor bearing abrasion rate and the filter accumulated dust increasing trend can be predicted through the historical data trend, and the fault diagnosis accuracy is improved. And advanced intervention of preventive maintenance becomes possible.

The present invention relates to the technical field of disinfection for medical hyperbaric oxygen chambers. Disclosed is a sterilization and disinfection apparatus for a medical hyperbaric oxygen chamber. According to the present invention, a fixing plate is fixedly connected to a side of a fixing frame close to a fixing mechanism. A mounting plate is fixedly connected to a side of the fixing plate away from the fixing mechanism. Two sides of the mounting plate away from the fixing plate are fixedly connected to two ends of a disinfection lamp, respectively. A disinfection cylinder body is fixed to an air inlet end of an oxygen exhaust pipeline of the hyperbaric oxygen chamber. The disinfection lamp disinfects the gas flowing inside the pipeline, thereby effectively disinfecting and sterilizing the gas exhaled by patients in the hyperbaric oxygen chamber, which is then discharged into the atmosphere outside the chamber through the oxygen exhaust pipeline, avoiding the formation of a new virus source. The apparatus is designed to disinfect dedicated oxygen chambers for individuals infected with infectious viruses, avoiding the formation of a major viral contamination source, and preventing gas containing pathogens exhaled by patients from circulating inside the oxygen exhaust pipeline, thereby avoiding contamination of the pipelines inside the oxygen chamber.

The utility model discloses an independent oxygen discharging device for a hyperbaric oxygen chamber, and particularly relates to the technical field of hyperbaric oxygen chambers, which comprises a box body I. The right end of the outer surface of an air inlet pipe is fixedly connected with an air storage component, and the right part of the air storage component is fixedly connected with a plurality of shunting components at intervals; the right portions of the multiple flow dividing assemblies are jointly and fixedly connected with a dust removal mechanism, and an inner cavity of the third heat insulation box body is fixedly connected with a sterilization mechanism. According to the independent oxygen exhausting device for the hyperbaric oxygen chamber, the function of temporarily storing gas in the hyperbaric oxygen chamber can be achieved through the gas storage assembly, and the function of uniformly conveying the gas exhausted from the hyperbaric oxygen chamber into the dust removing mechanism can be achieved through the flow dividing assembly; and meanwhile, the dust removal mechanism can perform dust removal on the conveyed gas, and the sterilization mechanism can perform high-temperature sterilization on the discharged gas, so that the practicability and universality of the device are improved.

The invention discloses a pressurizing oxygen cabin pressure control method which comprises the following control steps: after an oxygen cabin door is completely closed, a compressor in a pressure control system is started along with linkage control to implement a pressurizing mode in an oxygen cabin body; in the process of pressurizing the inside of the oxygen cabin, three paths of electric ball valves in the air circulation system are started according to three pressure gears set and monitored by an oxygen cabin pressure control system to open the corresponding electric ball valves to release pressure; and when the pressure in the oxygen cabin exceeds the pressure gear in the set three-gear pressure, the corresponding gear electric ball valve is automatically started and opened to execute the pressure relief task, so that the oxygen cabin pressure in the oxygen cabin is kept in a safe and effective pressure level interval, the pressure control in the oxygen cabin is simple, convenient and effective, and the pressure control cost is low.

The invention discloses a hyperbaric oxygen chamber device capable of being remotely monitored, and relates to the technical field related to hyperbaric oxygen therapy, the hyperbaric oxygen chamber device comprises a chamber body, a door frame is arranged at the front end of the chamber body, an oxygen pumping main machine is arranged on the lower side of the left end of the chamber body, and a monitor is arranged at the upper right corner of the front end of the chamber body; the oxygen pumping main machine and the monitor are both electrically connected with an external power source through wire harnesses, a deck chair is arranged in the cabin body, and a cabin door is arranged in the door frame. After the mechanical connection chain is forcibly interrupted and the pressure returns to normal, the spring mechanism automatically resets to enable the transmission system to be meshed again, so that the connection state of the interlocking assembly in different pressure states is realized, the risk of mistakenly opening the cabin door in a high-pressure environment is physically eliminated, and the failure risk caused by the fact that a traditional oxygen cabin depends on an electronic sensor is avoided; and the medical safety is improved.

The invention provides a hyperbaric oxygen chamber door track system, and relates to the technical field of hyperbaric oxygen chambers. The hyperbaric oxygen cabin door rail system comprises two rail sets which are symmetrically arranged, each rail set comprises a driving rail and a driven rail, the driving rails and the driven rails are provided with sliding grooves extending in the length direction, sliding assemblies are installed in the sliding grooves of the driving rails and the sliding grooves of the driven rails respectively, and all the sliding assemblies are fixedly connected with a hyperbaric oxygen cabin door. The planes where the driving track and the driven track are located are both perpendicular to the curved surface where the hyperbaric oxygen cabin door is located, and the extending tracks of the driving track and the driven track are variable-curvature curves. The curve track with any extending track in the plane is achieved, and the curve track is suitable for a curve-shaped cabin door of a hyperbaric oxygen cabin.

The present application provides a hyperbaric oxygen chamber, which includes a chamber body, an interaction channel, a sealing mechanism and an atomization mechanism. The interaction channel is opened in the chamber body. The sealing mechanism includes two sealing components and two sets of driving components. The two sealing components and the two sets of driving components are all installed on the chamber body. One of the sealing components is located at one end of the interaction channel close to the inner side of the chamber body and moves along a first direction under the drive of one set of driving components. The other sealing component is located at one end of the interaction channel close to the outer side of the chamber body and moves along the first direction under the drive of the other set of driving components. The atomization mechanism includes two storage containers, a telescopic tube and an atomization component. The two storage containers are installed on the two sealing components. The telescopic tube is installed between the two storage containers. The atomization component is installed at the sealing component close to the inner side of the chamber body. The hyperbaric oxygen chamber provided by the present application can supplement water during the treatment process, effectively improving the curative effect of the hyperbaric oxygen chamber.

1. Name of the design product: Micro hyperbaric oxygen chamber. 2. Use of the design product: The design product is used for oxygen supply. 3. Design key points of the design product: lies in the shape. 4. Picture or photo that best shows the design key points: Design 1 - Stereogram 2. 5. The bottom surface of the design product is a part that is not easily seen or not seen during use, and the bottom view of Design 3 is omitted. 6. Design 1 is designated as the basic design. 7. Other circumstances that need to be explained: In the left and right views of Design 1, there is one hole each; in the left view of Design 2, there are two holes and no hole in the right view; in the left and right views of Design 3, there are no holes; in the left view of Design 4, there is no hole and there is one hole in the right view.

The invention discloses a hyperbaric oxygen chamber rapid decompression safety control system and method based on big data, and relates to the technical field of hyperbaric oxygen chamber control, and the hyperbaric oxygen chamber rapid decompression safety control system comprises a data management unit, an anomaly analysis unit and a decompression control optimization unit. Accurate acquisition and preprocessing of real-time operation data in a cabin are achieved through the data management unit, key operation features are extracted, feature data are deeply mined in combination with the anomaly analysis unit, core factors influencing pressure reduction stability are effectively recognized, the pressure reduction control optimization unit constructs a dynamic pressure regulation and control model based on key factors, and the pressure reduction stability is effectively improved. And the pressure parameters are adjusted in real time, so that intelligent and refined control of the pressure reduction process is realized, the safety and stability of system operation are improved, and the occurrence probability of sudden risks in the pressure reduction process is further reduced.

1. Name of the design product: green oxygen cabin. 2. Use of the design product: the design product is used for high pressure oxygen cabin. 3. Design points of the design product: in shape. 4. Picture or photo best indicating the design points: perspective view.

The invention discloses a micro-hyperbaric oxygen chamber data communication transmission method and system, and relates to the technical field of data transmission, and the method comprises the steps: collecting micro-hyperbaric oxygen chamber data, carrying out the fitting processing, obtaining a fusion data set, constructing a dynamic cognitive model of an electromagnetic environment in a micro-hyperbaric oxygen chamber, and recognizing an electromagnetic interference source affecting the accuracy of the fusion data set. Based on an electromagnetic interference source, a spectrum analyzer is used to calculate interference intensity and interference frequency, a fusion data set is corrected, a corrected fusion data set is obtained, quantum state coding processing is carried out on the corrected fusion data set, a quantum data packet is obtained, the quantum data packet is transmitted to a gateway through a quantum key distribution network, and after the gateway receives the quantum data packet, the quantum key distribution network sends the quantum data packet to the gateway. And the control command is forwarded to the central server through the Socket to generate a corresponding control command which is fed back to the micro hyperbaric oxygen chamber. By means of the micro hyperbaric oxygen chamber data communication transmission method, the safety and integrity of data in the transmission process are guaranteed.

1. Name of the product in this design: Micro Hyperbaric Oxygen Chamber (I). 2. Purpose of this design: for use in a micro hyperbaric oxygen chamber. 3. The key point of the design of this product lies in its shape. 4. The picture or photo that best illustrates the design points: three-dimensional picture. 5. The bottom surface of this product is uncommon, so the bottom view is omitted.

The utility model discloses a miniature hyperbaric oxygen chamber with a horizontal structure, and relates to the technical field of hyperbaric oxygen chambers. Comprising a movable bin, the movable bin is used for moving to expand space, the outer wall of the movable bin is fixedly connected with a telescopic cover, the telescopic cover is used for guaranteeing the sealing performance of the movable bin after moving, and the end, away from the movable bin, of the telescopic cover is fixedly connected with a fixed bin. According to the multifunctional oxygen cabin, the space can be flexibly expanded, the size of the internal space can be adjusted according to actual use requirements, the diversified requirements of different users or different use scenes for the space are met, and the applicability and practicability of the oxygen cabin are improved; the stability and reliability of the whole cabin body structure are greatly enhanced while it is guaranteed that the position of the moving cabin is stable after moving.

A safety early warning device for a hard hyperbaric oxygen chamber comprises elastic resistance wires arranged on the surface of a chamber body of the hard hyperbaric oxygen chamber; the pressure sensor is used for monitoring the pressure intensity in the chamber in real time and identifying the normal pressure state and the pressurization state of the hard hyperbaric oxygen chamber; the resistance monitoring circuit is connected with the elastic resistance wire and is used for detecting and collecting the resistance value of the elastic resistance wire in each state in real time; the signal processing circuit is connected with the pressure sensor and the resistance monitoring circuit, and is used for comparing the deviation value of the resistance value, judging that the cabin material has plastic deformation when the deviation value exceeds a preset threshold value, and receiving a pressure feedback signal of the pressure sensor; the emergency response equipment is connected with the signal processing circuit and used for receiving the monitoring result signal or the control signal of the signal processing circuit so as to carry out corresponding early warning operation, and the hard hyperbaric oxygen chamber and the safety early warning device thereof have the advantages of being safe, reliable and timely in response when the chamber body deforms plastically.

1. The name of this design product: Micro-pressure health care cabin (double cabin). 2. Purpose of the product of this design: used to provide a micro-hyperbaric oxygen chamber containing oxygen gas that can be inhaled by the human body. 3. The key point of the design of this product lies in its shape. 4. The picture or photo that best illustrates the design points: Stereoscopic drawing 1.

1. Name of the design product: Hyperbaric oxygen chamber. 2. Use of the design product: Mainly used for hyperbaric oxygen therapy and health care, and can be used to supply oxygen to people accommodated therein. 3. Design key points of the design product: Lies in the shape. 4. Picture or photograph that best shows the design key points: Perspective view 1. 5. The bottom surface of the design product is a part that is not easily seen or not seen during use, and the bottom view is omitted.

The application discloses a kind of micro high pressure oxygen cabin with traditional Chinese medicine essential oil atomization function, it is related to high pressure oxygen storehouse technical field, including main body shell, oxygen generator, atomizer, safety component, warning component, sterilization component, the safety component includes barrier unit, the barrier unit includes first blocking component, the first blocking component also includes first vaporization mechanism, when gas pressure becomes larger and exceeds set value, temperature rises, and safety component is opened by vaporization component, pressure relief, guarantee the safety of personnel in main body shell;The warning component includes warning unit, and the warning unit includes prompting component, and the prompting component is installed with power component, and the user in micro high pressure oxygen storehouse can promptly pay attention to use time by warning unit, and when just beginning to pressurize in cabin, the user is reminded, so that people have sufficient preparation in mind, prevent sudden pressurization harm people's body and mind.

The invention provides a double-layer detachable flatcar special for a hyperbaric oxygen chamber. Belongs to the field of medical instruments. According to the technical scheme, the multifunctional stretcher comprises a stretcher body, guardrails, fixers, stainless steel thickened hollow columns, limiting screws, a thickened strong-flame-retardant mattress and the like. Wherein the four fixers on the two sides of the guardrail of the first layer of stretcher are inserted into the stainless steel thickened hollow columns and fixed well, the fixers of the second layer of stretcher are inserted into the stainless steel thickened hollow columns and fall on the limiting screws of the stainless steel thickened hollow columns, the fixers are fixed well, and a thickened strong flame-retardant mattress is placed on each layer of stretcher. The double-layer detachable flatcar special for the hyperbaric oxygen chamber is simple in structure, convenient to use and affordable in price, more patients only lying on the back can be effectively placed in the very narrow space of the hyperbaric oxygen chamber, and the oxygen chamber utilization rate of the bedridden patients is effectively increased. And the device is also suitable for narrow spaces such as 120 emergency ambulances.

The invention relates to the technical field of hyperbaric oxygen chamber decompression, in particular to a hyperbaric oxygen chamber decompression safety control system and method based on big data. The method comprises the following steps that when the hyperbaric oxygen chamber enters a decompression operation stage, change data of the opening degree of a valve in the decompression process are collected, gas exhaust flow data are synchronously collected, and a decompression operation data sequence is constructed; on the basis of the pressure reduction operation data sequence, a controllable adjustment interval of the valve opening change data and the gas discharge flow data is recognized, and a structural constraint control interval of gas discharge flow change is determined; according to the structural constraint control interval, limiting the change amplitude of the opening degree of the valve, calculating the change rate of the pressure in the chamber, and determining a segmented pressure change path of the hyperbaric oxygen chamber; through pressure reduction of the hyperbaric oxygen chamber, the reliability of pressure reduction operation of the hyperbaric oxygen chamber and the structural safety guarantee level are improved.

The utility model belongs to the technical field of micro hyperbaric oxygen chambers, and particularly discloses a pressing type exhaust valve which solves the problem of manual exhaust of a civil micro hyperbaric oxygen chamber. The two-way exhaust device comprises an oxygen cabin body and an exhaust valve, a two-way exhaust assembly is arranged in the exhaust valve and comprises a valve seat, a button is arranged at the end, away from the valve seat, of the exhaust valve, a plurality of through holes are formed in one end of the exhaust valve and the button, and the button and the valve seat are used for driving the exhaust valve to conduct two-way exhaust. Through the arrangement of the two-way exhaust assembly, two-way exhaust can be rapidly achieved, the pressure in the oxygen cabin body can be adjusted in time, pressure balance is ensured, the exhaust efficiency is improved, the exhaust valve can be conveniently operated for exhaust no matter inside or outside the oxygen cabin body, complex tools are not needed, and the use convenience is improved; and accurate exhaust control is beneficial to maintaining a stable and safe pressure environment in the oxygen cabin main body, and the safety risk caused by abnormal pressure is reduced.

The present invention provides a micro-hyperbaric oxygen chamber system based on safety monitoring, which includes a treatment chamber body, a bolt monitoring device, a deformation monitoring device and a control device, wherein: the treatment chamber body includes a closed accommodation space for accommodating a user, and at least one wall panel for defining the accommodation space, a treatment environment based on a target oxygen concentration and a target air pressure can be formed in the accommodation space, and at least one wall panel is connected by multiple bolts; the bolt monitoring device is used to monitor the preload state of at least one bolt; the deformation monitoring device is used to monitor the deformation state of at least one wall panel; the control device is used to regulate the treatment environment in the accommodation space according to the preload state of at least one bolt and / or the deformation state of at least one wall panel.

The invention discloses a data processing method and system for an air bag in a hyperbaric oxygen chamber, and relates to the technical field of intelligent adjustment of an air bag system.The data processing method comprises the steps that air bag micro-pressure data and user breathing data are collected in real time, micro-pressure fluctuation characteristics are obtained based on the air bag micro-pressure data, and a micro-pressure recognition result is calculated through the characteristics; the state of the air bag is evaluated through a micro-pressure recognition result, a basic pressure adjustment curve is generated, breathing rhythm characteristics are extracted based on user breathing data collected in real time, and the pressure of the air bag is dynamically adjusted in combination with the basic pressure adjustment curve and the breathing rhythm characteristics of the user so that the pressure of the air bag can be matched with the breathing rhythm of the user. The problems of response delay, mismatching, incapability of adapting to complex breathing modes and the like in a traditional pressure adjusting system are effectively solved, dynamic and accurate management of the pressure of the air bag is realized, and the comfort level and experience of a user are improved.

A kind of cabin body life monitoring method of hard high pressure oxygen cabin, comprising the following steps: step one, elastic resistance wire is arranged on the surface of the cabin body of hard high pressure oxygen cabin, and the normal pressure state of hard high pressure oxygen cabin is identified by pressure sensor, and initial resistance value under normal pressure state is monitored and recorded, and is recorded as data A;Step two, by pressure sensor identification pressurization state, monitor and record the deformation resistance value after pressurization, and is recorded as data B;Step three, reduce pressure to recover normal pressure state, and the normal pressure state is identified by pressure sensor, and resistance recovery data is monitored and recorded again, and is recorded as data C;Step four, the deviation amount of data A and C is compared by signal processing circuit, if exceed preset threshold, then determine that plastic deformation occurs to the service life of cabin body, and safety warning is triggered simultaneously;This life monitoring method can monitor the material fatigue of cabin body in real time, and can determine the plastic deformation of cabin body and trigger safety warning, timely guarantee the life safety of operator and patient in cabin.

1. The name of the design product: micro hyperbaric oxygen chamber. 2. The use of the design product: for micro hyperbaric oxygen chamber. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: perspective view.

The invention discloses an anti-collapse inflatable oxygen inhalation mask and belongs to the technical field of medical equipment, the anti-collapse inflatable oxygen inhalation mask comprises an inner mask, an air inlet pipe and an air outlet pipe, a sleeve rope is arranged on the inner mask, a sealing cavity is formed in the position, used for making contact with the face of a patient, of the inner mask, an inner cavity of the inner mask is a breathing cavity, and the air inlet pipe is used for conveying oxygen to the sealing cavity and the breathing cavity; the air outlet pipe is communicated with the sealing cavity and the breathing cavity, and valves are arranged on the air inlet pipe and the air outlet pipe. The air pressure in the breathing cavity is larger than that in the hyperbaric oxygen chamber through the air inlet pipe, so that the inner cover can be stably supported, the inner cover is effectively prevented from collapsing and deforming due to pressure extrusion in the chamber, oxygen in the breathing cavity is prevented from leaking, the effective oxygen delivery amount is remarkably increased, and the oxygen delivery efficiency is improved. The waste of medical resources is reduced, the oxygen therapy efficiency of the patient is improved, and a good oxygen therapy effect on the patient is ensured.

1. The name of the design product: intelligent micro-high pressure oxygen cabin host (KN-1.0). 2. The use of the design product: used for providing high concentration oxygen and pressure maintaining gas and fresh air system for micro-high pressure oxygen cabin. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view 1.

1. The name of the design product: electronic device for high pressure oxygen cabin password operation graphical user interface. 2. The use of the design product: an electronic device. 3. The design points of the design product: the graphical user interface of the high pressure oxygen therapy device. 4. The picture or photo that best shows the design points: design 1 interface change state figure 3. 5. Design 1 is designated as the basic design. 6. The use of the graphical user interface: the graphical user interface for the high pressure oxygen therapy device, which guides the user to enter the interface and realize the function operation related to the work of the high pressure oxygen therapy device. 7. The human-computer interaction mode of the graphical user interface: design 1 main view is the initial interface; in the state of starting, click anywhere on the interface to jump to design 1 interface change state figure 1; click the "eye" pattern on the right of "please enter the password" on design 1 interface change state figure 1, and input the correct password, then display design 1 interface change state figure 2 to close the password interface; click the "complete" button in design 1 interface change state figure 2 to jump to design 1 interface change state figure 3; click "internal atmosphere lamp" or "external atmosphere lamp" in design 1 interface change state figure 3, then display design 1 interface change state figure 4; click the "kangyao start" button in design 1 interface change state figure 4, if the device fails, then display design 1 interface change state figure 5. Design 2 main view is the initial interface; in the state of starting, click anywhere on the interface to jump to design 2 interface change state figure 1; click the "eye" pattern on the right of "please enter the password" on design 2 interface change state figure 1, and input the correct password, then display design 2 interface change state figure 2 to close the password interface; click the "complete" button in design 2 interface change state figure 2 to jump to design 2 interface change state figure 3; click the "kangyao start" button in design 2 interface change state figure 3, if the device fails, then display design 2 change state figure 4.