55 results about "Hyperbaric oxygenation" 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 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 invention belongs to the technical field of hyperbaric oxygen chamber equipment, and discloses a hyperbaric oxygen chamber door which is technically characterized by comprising a chamber wall, a door opening is formed in the surface of the chamber wall, a door plate is rotatably mounted on the surface of the chamber wall, and a door core matched with the door opening is fixedly mounted on the inner side wall of the door plate; an annular sealing rubber strip is fixedly installed on the inner side wall of the door plate, a decompression monitoring assembly is arranged on the surface of the door plate, an opening and closing mechanism matched with the cabin wall is arranged in the door core and comprises a clamping assembly and an adjusting assembly, the adjusting assembly comprises an inner control part and an outer control part, and the clamping assembly is connected with the outer control part. A protection mechanism matched with the door plate is arranged on the surface of the cabin wall, the protection mechanism comprises a protection rod, a storage assembly and a positioning assembly, and the pressure loss monitoring assembly is arranged to be matched with the sealing rubber strip, so that the air leakage condition of the hyperbaric oxygen cabin can be visually checked; therefore, the air leakage and pressure loss phenomena of the hyperbaric oxygen chamber can be adjusted in time.

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.

The invention provides a medical air pressurization oxygen cabin respirator device, and belongs to the technical field of hyperbaric oxygen therapy. Comprising a respirator body, an oxygen inlet connector and an oxygen inhalation connector are fixedly mounted on the two sides of the respirator body respectively, a buffer tank is fixedly mounted in the respirator body, an expandable or retractable compensator is fixedly mounted on the surface of the buffer tank, an inner cavity of the compensator communicates with an inner cavity of the buffer tank, and a mounting sleeve is fixedly mounted in the respirator body; and the compensator is movably arranged in the mounting sleeve. The balance assembly is arranged to provide acting force for the compensator to overcome the deformation resistance of the compensator, when oxygen is injected into the buffer tank, the compensator expands to reduce the internal air pressure, when a patient inhales oxygen, the compensator contracts to reduce the oxygen inhalation resistance, the air pressure inside and outside the tank is close, and oxygen is provided only when oxygen inhalation is achieved; the oxygen uptake resistance can be adjusted by changing the acting force of the balance assembly on the compensator, so that the purpose of adjusting the oxygen uptake resistance is achieved.

The utility model discloses a single oxygen cabin bed locking component based on hyperbaric oxygen equipment, which comprises a hyperbaric oxygen cabin main body, a cabin body door plate is movably arranged on the front end face of the hyperbaric oxygen cabin main body, and two supporting guide rails are fixedly arranged on the inner side of the hyperbaric oxygen cabin main body. The upper end faces of the two supporting guide rails are slidably connected with a push-pull bed, a conical locking box is installed on one side of the push-pull bed, an indicator lamp is arranged on the inner side of the front end of the conical locking box, a pressed block is fixedly installed on one side of the conical locking box, and an anti-skid sleeve shell is arranged on the outer surface of the conical locking box. A connecting frame is fixedly installed on the upper end face of the conical locking box, an adjusting handle is installed at the upper end of the connecting frame, a sealing installation box is installed on the outer side of the upper end of the connecting frame, and connecting rings are installed at the upper end and the lower end of the sealing installation box. According to the utility model, the window body in the hyperbaric oxygen chamber is locked and fixed, so that the risk that a patient falls off when going to bed is effectively avoided.

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.

An inflatable chamber has a chamber wall, sealing panel, and seal flap. A chamber zipper is formed in the chamber wall, and a panel zipper is formed in the panel. The panel has a panel perimeter that is sealed to said chamber wall about the chamber zipper in an airtight manner to form a pocket between the chamber wall and the panel. The seal flap is positioned in the pocket to provide an airtight seal at the chamber zipper.

A hyperbaric oxygen chamber with a disinfection function relates to the technical field of hyperbaric oxygen chambers, and comprises a bottom plate, a plurality of groups of support frameworks are fixedly connected onto the bottom plate, an inflatable oxygen chamber is mounted on the support frameworks, a blocking door is formed on the left side of the inflatable oxygen chamber, a massage chair is slidably matched in the inflatable oxygen chamber, and the inflatable oxygen chamber is provided with an air outlet. And an ultraviolet disinfection lamp is arranged in the inflatable oxygen bin. By means of the inflatable design, the modular supporting framework and the convenient assembling mode, the problems that a traditional hyperbaric oxygen bin is large in size, difficult to transport and inconvenient to use at home and has the risk of cross infection are effectively solved.

The utility model belongs to the technical field of medical instruments, particularly relates to a compressed air purifying and filtering device for a hyperbaric oxygen chamber, and provides the following scheme aiming at the problem that a filter plate of the conventional compressed air purifying and filtering device for the hyperbaric oxygen chamber cannot be cleaned: the compressed air purifying and filtering device for the hyperbaric oxygen chamber comprises a compressed air purifying device main body for the hyperbaric oxygen chamber, the heating device is arranged at the bottom of the hyperbaric oxygen chamber compressed air purification device main body; the filtering device is arranged on the hyperbaric oxygen chamber compressed air purification device main body; the screw transmission mechanism is arranged on the filtering device; the cleaning device is arranged on one side of the screw transmission mechanism; the fixing device is arranged on the hyperbaric oxygen chamber compressed air purification device main body; the filter plate can be cleaned, so that the purpose of improving the filtering effect of the compressed air purification device body of the hyperbaric oxygen chamber is achieved.

The utility model discloses a human body posture adjusting mechanism for a hyperbaric oxygen chamber, and relates to the technical field of hyperbaric oxygen chambers, the human body posture adjusting mechanism for the hyperbaric oxygen chamber comprises a hyperbaric oxygen chamber main body, one side of the hyperbaric oxygen chamber main body is provided with an oxygen generator, and the oxygen generator is communicated with the hyperbaric oxygen chamber main body through an air delivery pipe; the hyperbaric oxygen chamber comprises a hyperbaric oxygen chamber main body, the hyperbaric oxygen chamber main body comprises an inflatable chamber body and an inflatable door curtain, an inflatable seat is arranged in the inflatable chamber body, mounting grooves are formed in the upper surface of the inflatable seat, adjusting inflatable cushions are embedded in the mounting grooves, and the number of the mounting grooves and the number of the adjusting inflatable cushions are both multiple. According to the scheme, the problems that the posture of an inflatable seat of an existing hyperbaric oxygen chamber is fixed, a person lies on the inflatable seat, posture adjustment is inconvenient, and flexibility and comfort are poor are solved.

1. The name of the design product: high pressure oxygen cabin mask. 2. The use of the design product: mask for high pressure oxygen cabin. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: perspective view.

1. The name of the design product: micro-high pressure oxygen cabin (X3). 2. The use of the design product: used as a device for supplying oxygen in a micro-high pressure environment. 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: micro-high pressure oxygen cabin. 2. The use of the design product: the design product is used for oxygen supply and daily oxygen therapy. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

1. The name of the design product: hyperbaric oxygen chamber. 2. The use of the design product: equipment for hyperbaric oxygen therapy. 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 belongs to the technical field of hyperbaric oxygen chamber oxygen supply, and particularly relates to a hyperbaric oxygen chamber oxygen supply regulation and control method and system based on multi-source data acquisition. According to the method, when abnormal fluctuation of operation parameters is monitored, stage characteristics of the abnormal fluctuation are determined, an oxygen supply early-warning threshold value for early-warning control is generated, a stable oxygen supply stage and abnormal oxygen supply stages are divided according to obtained second operation parameters, and the abnormal oxygen supply stages are screened and combined to form a centralized stage; and extracting a first operation parameter in the concentration stage, obtaining calibration output through a fitting method so as to set an oxygen supply early warning threshold value, comparing the operation parameter collected in real time with the oxygen supply early warning threshold value, and sending out an alarm signal if the operation parameter exceeds the oxygen supply early warning threshold value. The high-incidence time period in the oxygen supply device of the hyperbaric oxygen chamber can be recognized, the oxygen supply early warning threshold value is generated, abnormal working conditions are found in time, and the stability and safety of oxygen supply of the hyperbaric oxygen chamber are guaranteed.

1. The name of the design product: hyperbaric oxygen chamber. 2. The use of the design product: for providing oxygen inhalation place for plateau reaction users, etc. 3. The design points of the design product: in shape. 4. The picture or photo best indicating the design points: perspective view 1.

A modular hyperbaric chamber system with a reversible control section is disclosed, providing enhanced flexibility in chamber placement and orientation within various spatial constraints. The system includes a modular cylindrical vessel composed of a cylindrical body section, a head section, and a door section, with the body section featuring a reversible control section. This reversible control section, equipped with mirrored control inlets and windows, allows for 180-degree rotation, altering the chamber's orientation. The chamber maintains an internal pressure of at least 3 atmospheres and includes a flow control system for oxygen transfer from an external source into the chamber. A control panel with a housing and multiple controls is operably connected to the flow control system and can be secured to either the interior or exterior mirrored control inlets. The system's design accommodates custom configurations and ensures patient and operator convenience and safety.

An inflatable chamber has a chamber wall, sealing panel, and seal flap. A chamber zipper is formed in the chamber wall, and a panel zipper is formed in the panel. The panel has a panel perimeter that is sealed to said chamber wall about the chamber zipper in an airtight manner to form a pocket between the chamber wall and the panel. The seal flap is positioned in the pocket to provide an airtight seal at the chamber zipper.

1. The name of this design product: Oxygen Chamber. 2. Purpose of this design product: A high-pressure oxygen chamber used to provide high-purity oxygen for oxygen inhalation. 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.

1. Name of the product in this design: Interactive graphical user interface for an oxygen chamber therapy effect evaluation system for electronic devices. 2. Intended use of this design: for use in an electronic device. 3. The key design feature of this product is its graphical user interface. 4. The image or photograph that best illustrates the design's key features: the front view. 5. Other orthographic views and perspective views are omitted. 6. Purpose of the graphical user interface: To display the main workflow and content of the hyperbaric oxygen therapy department. 7. Description of the changing states of the graphical user interface: The main view is the login interface; Figure 1 shows the interactive interface displayed after entering the correct username and password in the main view and clicking the "Login to System" button; Figure 2 shows the interactive interface displayed after clicking "Admission Treatment Management" in Figure 1; Figure 3 shows the interactive interface displayed after clicking "First Chamber" in Figure 2; Figure 4 shows the interactive interface displayed after clicking "Treatment Records" in Figure 3.

This invention relates to an integrated system and method for modeling, anesthesia, and material collection in mice using oxygen poisoning: Experimental preparation; Animal placement: Two mice are placed in cages within two separate modeling chambers, and all valves are closed; High-pressure environment establishment: The main oxygen supply electric valve and the first and second oxygen supply electric valves are opened, and the first and second pressure regulating valves are activated, allowing high-pressure oxygen to flow into the first and second modeling chambers to form a high-pressure oxygen environment; Modeling monitoring: The state of the mice in each modeling chamber is recorded from the start of modeling. If a mouse in any modeling chamber exhibits a high-pressure oxygen convulsion state, the high-pressure oxygen poisoning model is successfully established; Post-modeling anesthesia: After the mouse model is successfully established in the modeling chamber, the corresponding flow controller is activated to allow the anesthetic to flow into the modeling chamber, bringing the mouse to a state of deep anesthesia; Independent material collection preparation: The operator enters a human diving simulation training chamber and controls the environment to reach preset parameters; Material collection operation: The operator removes the deeply anesthetized mouse from the modeling chamber and places it on the material collection platform for material collection.

1. Name of the product in this design: Micro Hyperbaric Oxygen Chamber Main Unit (Top Screen Straight Lamp Type ZM 1.0 - Top Screen Deep Type ZM 2.0). 2. Purpose of this design: To provide high-concentration oxygen and pressure-maintaining gas for micro hyperbaric oxygen chambers. 3. The key design feature of this product is its shape. 4. The picture or photo that best illustrates the key design points: Design 1 3D diagram 1. 5. Design 1 is designated as the basic design.

A modular hyperbaric chamber system with a reversible control section is disclosed, providing enhanced flexibility in chamber placement and orientation within various spatial constraints. The system includes a modular cylindrical vessel composed of a cylindrical body section, a head section, and a door section, with the body section featuring a reversible control section. This reversible control section, equipped with mirrored control inlets and windows, allows for 180-degree rotation, altering the chamber's orientation. The chamber maintains an internal pressure of at least 3 atmospheres and includes a flow control system for oxygen transfer from an external source into the chamber. A control panel with a housing and multiple controls is operably connected to the flow control system and can be secured to either the interior or exterior mirrored control inlets. The system's design accommodates custom configurations and ensures patient and operator convenience and safety.

The system, devices, and method described herein may improve the outcomes of cardiac arrest patients being treated with CPR. The improvement is the result of enhancing intrathoracic pressure both during the chest compressions or constrictions as well as the relaxations. The enhancement is achieved by synchronizing low-volume inflations of the lungs with each chest compression and low-volume deflations with each chest relations. The high rate and fidelity of these ventilations are achieved by a unique multichannel endotracheal tube that uses high press oxygen and vacuum at its distal tip to administer and remove low-volume ventilations at the high rates of CPR compressions and relaxations. The synchronized oscillations of the airway pressure are transmitted physiologically to the intrathoracic space and augment forward blood flow. The system, devices, and method incorporate measurement of airway pressure and biomarker feedback control loops so as to avoid over pressurization or over depressurization of the lungs.

The system, devices, and method described herein may improve the outcomes of cardiac arrest patients being treated with CPR. The improvement is the result of enhancing intrathoracic pressure both during the chest compressions or constrictions as well as the relaxations. The enhancement is achieved by synchronizing low-volume inflations of the lungs with each chest compression and low-volume deflations with each chest relations. The high rate and fidelity of these ventilations are achieved by a unique multichannel endotracheal tube that uses high press oxygen and vacuum at its distal tip to administer and remove low-volume ventilations at the high rates of CPR compressions and relaxations. The synchronized oscillations of the airway pressure are transmitted physiologically to the intrathoracic space and augment forward blood flow. The system, devices, and method incorporate measurement of airway pressure and biomarker feedback control loops so as to avoid over pressurization or over depressurization of the lungs.

A system for a hyperbaric chamber with mirrored controls is disclosed. The system includes a cylindrical vessel with a mid-portion, head portion, and door portion that create an inner cavity when a door is in a closed position. The vessel is designed to maintain a pressure of at least 3 atmospheres and includes a plurality of mirrored windows for external visibility. Control panels with a housing and multiple controls are attachable to mirrored control inlets on the vessel's wall. The mirrored control inlets allow for control panels to be placed on either the interior or exterior surfaces of the vessel. The system may also include a modular design with sections secured together using flanges and gaskets to create an airtight seal. The hyperbaric chamber's mirrored controls and modular construction enhance accessibility, safety, and patient comfort, addressing space constraints and orientation limitations of current designs.

The utility model provides a new type of hyperbaric oxygen chamber, which includes a flexible cabin, a control device, a rigid cabin door and an internal support device. Through the design of the flexible cabin and the setting of the internal support device, the hyperbaric oxygen chamber can form a vertical cylindrical structure and provide sufficient space for users to use. The overall structure is portable and the opening is convenient for users to enter and exit the hyperbaric oxygen chamber. The setting of the internal and external support devices can stabilize and support the interior of the flexible cabin, providing users with a sense of comfort in the hyperbaric oxygen chamber. Compared with the sealed cabin with a zipper structure, the connection between the rigid cabin door and the flexible cabin body adopts a bonding and then hot pressing method to ensure the sealing performance of the cabin door. The hinge and buckle design of the door body make the opening and closing of the cabin door more convenient. The sealing design of the rigid cabin door can ensure that the air pressure in the flexible cabin will not leak, thereby effectively maintaining the concentration of high-pressure oxygen in the cabin. The control device is connected to the oxygen production equipment to realize the control and regulation of the oxygen content in the cabin.