A draw-bar box type plateau emergency rescue cabin and a use method thereof

Abstract

The application discloses a kind of pull rod box type plateau emergency rescue cabin, belong to emergency rescue equipment technical field.The emergency rescue cabin includes a box with telescopic pull rod and bottom roller, and first containing cavity and second containing cavity are arranged in the box, the first containing cavity is used to accommodate collapsible soft oxygen cabin, and the second containing cavity is used to accommodate main machine, connecting pipeline and power line;Second containing cavity has openable door body, and control panel is arranged on the outer surface of door body;The side wall of box is provided with first interface and second interface communicated with main machine, and the first interface is used to detachably connect one end of pipeline, and the other end of pipeline is connected with soft oxygen cabin, and the second interface is used to detachably connect power line.The oxygen cabin, main machine and accessory components are all integrated in the pull rod box of the application, realize "box machine integration", with the advantages of convenient transportation, rapid deployment, simple operation, strong environmental adaptability, etc., especially suitable for emergency treatment in plateau outdoor scene.

Description

Technical Field

[0001] This invention relates to the field of emergency rescue equipment technology, and more specifically, to an emergency rescue cabin that integrates an oxygen chamber, a main unit, and connecting components into a rolling case, and its method of use. Background Technology

[0002] Altitude sickness, also known as high-altitude malaise, refers to a series of physiological stress responses in the human body caused by decreased atmospheric pressure and oxygen partial pressure at high altitudes. Common symptoms include headache, nausea, fatigue, and difficulty breathing. In severe cases, it can develop into high-altitude pulmonary edema or high-altitude cerebral edema, endangering life. Hyperbaric oxygen therapy is one of the effective means of alleviating altitude sickness. By placing patients in a closed chamber at a pressure higher than normal, the partial pressure of oxygen inside the chamber is increased, promoting an increase in blood oxygen content and thus quickly relieving hypoxia symptoms. In recent years, portable hyperbaric oxygen chambers have gradually entered the market, providing an important life support tool for outdoor sports enthusiasts, high-altitude tourists, and emergency rescue personnel.

[0003] Currently available portable hyperbaric oxygen therapy devices mainly fall into two categories: One type is the "backpack-style" hyperbaric oxygen chamber. This type of device folds the soft oxygen chamber and packs it into a backpack, while the main unit is packaged separately. To use it, the oxygen chamber and main unit must be removed separately, and then the connecting tubing must be connected to both the main unit and the oxygen chamber before finally connecting to a power source. While this type of product achieves a degree of portability, its components are scattered, the storage method is simple, users need to carry multiple parts, and the deployment process is relatively cumbersome. The other type is the "control box-style" hyperbaric oxygen chamber. This type of device integrates the main unit and control system into a separate box, but the oxygen chamber itself still needs to be stored and carried separately. During use, the control box and oxygen chamber are connected via external tubing, and the two are spatially separated, still resulting in scattered components and inconvenient transportation. Although some existing technologies have wheels at the bottom of the box, their structure still focuses on integrating the main unit and does not achieve integrated storage of the oxygen chamber.

[0004] The aforementioned existing technologies all have the following shortcomings in practical use: First, inconvenient transportation. Whether backpack-style or control box-style, the oxygen chamber and main unit are separate designs, requiring users to carry or transport multiple components separately. This is extremely inconvenient in high-altitude environments or complex terrain conditions, especially in emergency rescue scenarios where the separate design severely impacts response speed. Second, cumbersome deployment. When using existing equipment, the main unit, oxygen chamber, connecting pipes, and power cord must be removed sequentially and then connected one by one. This process involves numerous steps, is time-consuming, and can easily delay treatment due to missing components or incorrect connections. Third, insufficient interface protection. The air and power interfaces of existing portable devices are mostly exposed or only covered with simple caps. In harsh environments such as high-altitude areas with frequent sandstorms, rain, and snow, this can easily lead to interface contamination, water ingress, and even circuit failure, affecting the reliability and lifespan of the equipment. Fourth, primitive storage methods. Existing oxygen chamber storage products mostly use soft backpacks or simple bags, which lack effective protection for the chamber. During transportation, the chamber is easily damaged by squeezing or puncture. In addition, the storage shape is irregular, which is not conducive to stacking and placing in vehicles or warehouses. In summary, achieving a high degree of integration, portability, and rapid deployment of hyperbaric oxygen therapy equipment while ensuring its functionality is a pressing technical challenge in this field. To address this, the present invention provides a trolley-type high-altitude emergency rescue cabin. Through an integrated structural design, the oxygen chamber, main unit, pipelines, and power cord are all housed within a single trolley case, achieving "case-machine integration," thereby resolving issues such as inconvenient transportation, cumbersome deployment, and insufficient protection in existing technologies. Summary of the Invention

[0005] This invention aims to overcome the shortcomings of existing technologies and provide a trolley-type high-altitude emergency rescue cabin. Specifically, this invention addresses the technical problems of existing high-altitude hyperbaric oxygen therapy equipment, such as inconvenient transportation, scattered components, cumbersome deployment, insufficient interface protection, and primitive storage methods. It achieves a high degree of integration, unified storage, and convenient movement of the oxygen chamber, main unit, and all auxiliary components, thereby improving response speed and reliability in high-altitude emergency rescue scenarios.

[0006] To achieve the above-mentioned objectives, this invention provides a trolley-type plateau emergency rescue cabin. Its core design concept is to integrate all functional components into a mobile cabin, achieving "cabinet and machine in one". Specifically, the technical solution adopted in this invention is as follows: A trolley-type high-altitude emergency rescue cabin includes a box-shaped enclosure with a retractable handle and bottom wheels. The enclosure is internally divided into a first compartment and a second compartment. The first compartment houses a foldable soft oxygen chamber; the second compartment houses the main unit, connecting tubing, and a power cord. The second compartment has an openable door for easy access to the main unit and related accessories. The side wall of the enclosure has a first interface and a second interface communicating with the main unit. The first interface is used to detachably connect one end of the connecting tubing, the other end of which is connected to the soft oxygen chamber; the second interface is used to detachably connect the power cord. With this structure, all components are neatly stored within the same enclosure when not in use. When needed, simply open the door to remove the tubing and power cord, connect them to the corresponding interfaces, and deployment is quick and easy. In a preferred embodiment of the present invention, a control panel is provided on the outer surface of the door. The control panel is electrically connected to the main unit and is used to adjust and display the operating parameters of the main unit. Integrating the control panel on the outer surface of the door allows the user to complete all parameter settings and start / stop operations without opening the door or removing the main unit, further improving ease of use, and is especially suitable for quick operation in outdoor emergency situations. In a preferred embodiment of the present invention, the control panel includes: a power on / off touch key, a pressure display area, an oxygen concentration adjustment area, a concentration display area, a running time display area, a timer display area, a cumulative duration display area, and a setting touch key. The power on / off touch key controls the start and stop of the main unit; the pressure display area displays the relative pressure value inside the chamber in real time; the oxygen concentration adjustment area allows for graded adjustment of the oxygen concentration inside the chamber via touch keys for low oxygen, rich oxygen, and high oxygen; the concentration display area displays the current percentage of oxygen concentration inside the chamber; the running time display area displays the elapsed time of the current treatment; the timer display area displays the preset treatment duration; the cumulative duration display area displays the total cumulative running time of the device; and the setting touch key is used to access the parameter setting interface. It should be noted that the chamber pressure is not electronically adjusted via the control panel, but rather physically adjusted via a manual pressure relief valve located on the soft oxygen chamber, thereby simplifying the main unit structure and improving the reliability for outdoor use.

[0007] In a preferred embodiment of the present invention, the housing includes an upper housing and a lower housing. The upper housing forms the first receiving cavity, and the lower housing forms the second receiving cavity. This upper and lower compartmentalized layout ensures a clear and rational division of the internal space. The upper housing is specifically designed to house the larger, more flexible oxygen chamber, while the lower housing houses the main unit, piping, power cords, and other accessories with relatively concentrated weight. This stable center of gravity prevents the housing from tipping over during transport. In a preferred embodiment of the present invention, both the first interface and the second interface are provided with waterproof protective structures. High-altitude areas have variable climates, with frequent sandstorms, rain, and snow. The waterproof protective structures effectively prevent external impurities and moisture from entering the interface, ensuring the safety of electrical connections and the sealing of air circuit connections, thus improving the reliability of the equipment in harsh environments. In a preferred embodiment of the present invention, the waterproof protective structure includes a flip-top lid or a removable sealing plug. This structure is simple and reliable; it can be opened or pulled out during use and closed or inserted after use, making it convenient to operate while balancing protective effectiveness and user experience. In a preferred embodiment of the present invention, the housing is provided with heat dissipation holes at positions corresponding to the second receiving cavity, and the heat dissipation holes are arranged opposite to the heat dissipation parts of the main unit. The main unit generates heat during operation; by creating heat dissipation holes at corresponding positions on the housing, an effective heat dissipation channel is formed, ensuring that the main unit can operate stably for extended periods and preventing performance degradation or malfunctions due to overheating. In a preferred embodiment of the present invention, the connecting pipe is completely housed within the second receiving cavity when not in use, and is connected to the main unit through the first interface when in use. This design eliminates the need for the connecting pipe to be carried separately or externally, avoiding tangling, wear, or loss of the pipe during transportation, while ensuring the neatness and integration of the overall appearance of the package. In a preferred embodiment of the present invention, the retractable pull rod is disposed on the back of the box body, the bottom roller is disposed on the bottom surface of the box body, and at least one of the bottom rollers is provided with a braking structure. Furthermore, the present invention also provides a method for using a suitcase-type high-altitude emergency rescue cabin, employing the suitcase-type high-altitude emergency rescue cabin as described in any of the preceding claims, comprising the following steps: Move the box to the usage position using the telescopic rod and bottom casters; Open the door of the second receiving cavity and take out the connecting pipes and power cord stored in the second receiving cavity; Connect one end of the power cord to the second interface and the other end to an external power source; Connect one end of the connecting pipe to the first interface and the other end to the soft oxygen chamber removed from the first receiving cavity. Start the main unit and adjust the operating parameters through the control panel to bring the soft oxygen chamber to the preset pressure for hyperbaric oxygen therapy.

[0008] This method of use is adapted to the structural features of the product, fully describes the deployment process of the equipment, and reflects the design intent of this invention to ensure that users can complete the installation and operation of the equipment quickly and in a standardized manner.

[0009] Compared with the prior art, the present invention has the following beneficial effects: 1. Highly integrated and easy to transport: By housing the soft oxygen chamber, main unit, connecting pipes, and power cord all within a single case equipped with a pull rod and wheels, a "case-and-machine integration" is achieved. Users only need to carry one suitcase to transport all the equipment, completely solving the drawbacks of existing technologies that require carrying multiple components separately. This is especially suitable for emergency use in complex terrains in high-altitude areas.

[0010] 2. Rapid Deployment and Simple Operation: Since the control panel is integrated into the outer surface of the door, users can set parameters and start / stop the equipment without opening the door or removing the main unit. Connecting pipes and power cords are pre-stored inside the box; during use, simply remove them and insert them into the corresponding interfaces on the side of the box to complete the connection. Compared to the cumbersome process of existing technologies that require sequential removal and connection, this invention significantly shortens equipment deployment time, providing valuable treatment opportunities for patients suffering from altitude sickness.

[0011] 3. Interface protection for harsh environments: Waterproof protective structures are installed at the air and power interfaces to effectively prevent external factors such as wind, sand, rain and snow from corroding the interfaces, ensuring the safety of electrical connections and the sealing of air connections, and improving the reliability and service life of the equipment under the variable climate conditions of high altitude.

[0012] 4. Rational layout and stable structure: The unit adopts a two-compartment layout, with the upper section accommodating the larger but lighter soft oxygen chamber, and the lower section housing the main unit with concentrated weight. The overall center of gravity is low and evenly distributed, making it stable and less prone to tipping over during movement. Simultaneously, the well-designed ventilation holes ensure efficient heat dissipation for the main unit, supporting long-term continuous operation.

[0013] 5. Neat Storage and Comprehensive Protection: When not in use, all components are neatly stored in a rigid enclosure, avoiding the risk of the soft oxygen chamber being crushed or punctured, and preventing tubing from becoming tangled or lost. The enclosure itself provides effective physical protection for the internal components. Compared to existing backpack-style products, the storage method of this invention is safer and more reliable.

[0014] 6. Usage method and structure are compatible: This invention also provides a standardized usage method that combines structural features with operation procedures, guiding users to complete device deployment through the optimal path, further reducing the operation threshold and ensuring that even non-professionals can quickly get started in emergency situations. Attached Figure Description

[0015] The present invention will be further described below with reference to the accompanying drawings. The shapes, dimensions, relative positions, and connection methods of the components shown in the drawings are merely illustrative and intended to help those skilled in the art understand the technical solution of the present invention, and do not constitute a limitation on the scope of protection of the present invention. Figure 1 This is a perspective view of a trolley-type plateau emergency rescue cabin according to the present invention.

[0016] Figure 2 This is a schematic diagram of the internal structure of a trolley-type plateau emergency rescue cabin according to the present invention.

[0017] Figure 3 This is a schematic diagram of the open state of the door of a trolley-type plateau emergency rescue cabin according to the present invention.

[0018] Figure 4 This is a rear-view structural diagram of a trolley-type plateau emergency rescue cabin according to the present invention.

[0019] Figure 5 This is a partially enlarged schematic diagram of the interface structure according to one embodiment of the present invention.

[0020] Figure 6 This is a partially enlarged schematic diagram of the interface structure according to another embodiment of the present invention.

[0021] Figure 7 This is an enlarged schematic diagram of the control panel of a trolley-type plateau emergency rescue cabin according to the present invention.

[0022] Explanation of icon numbers: Detailed Implementation The technical solution of the present invention will now be described in detail with reference to the accompanying drawings. It should be noted that the specific embodiments described below are only for explaining the present invention and do not constitute a limitation on the scope of protection of the present invention. All equivalent substitutions or modifications made based on the concept of the present invention should fall within the scope of protection of the present invention. like Figures 1 to 7 As shown, this invention provides a trolley-type high-altitude emergency rescue cabin, whose overall form is a movable trolley structure, possessing portability, integration, and rapid deployment capabilities. The emergency rescue cabin mainly includes a box body 100, which is preferably made of high-strength engineering plastics or lightweight aluminum alloy materials to balance structural strength and lightweight requirements, meeting the usage needs of high-altitude environments where equipment weight is a significant concern. The outer contour of the box body 100 is cuboid, and its corners can be rounded or reinforced with impact-resistant corner guards to reduce the risk of damage caused by bumps during transportation or use. The back of the case 100 is equipped with a retractable pull rod 130. This retractable pull rod 130 can adopt a multi-section sleeve structure, and its length can be adjusted according to the user's height and dragging habits. When not in use, it can be completely stored in the pull rod compartment on the back of the case 100 to maintain a neat appearance. The bottom of the case 100 is equipped with four bottom rollers 140, two of which can be equipped with a braking mechanism. This layout is consistent with traditional trolley cases. The user can tilt the case 100 and drag it using the retractable pull rod 130. When placed horizontally, the four bottom rollers 140 form a four-point support to ensure that the case 100 is placed stably. In addition, the top and / or side of the case 100 can also be equipped with handles 160 for easy carrying in areas where dragging is not possible or when transport is required. The housing 100 is structurally divided into an upper housing 110 and a lower housing 120. The upper housing 110 forms the first receiving cavity 200, and the lower housing 120 forms the second receiving cavity 300. It should be noted that this upper and lower compartmentalized layout is not the only implementation. In alternative embodiments, the first receiving cavity 200 and the second receiving cavity 300 can also be arranged in a front-to-back or left-to-right compartmentalized layout, as long as it allows for separate storage of the soft oxygen chamber 500 and the main unit 310. The advantage of the upper and lower compartmentalized layout is that the upper housing 110 can be used to store the soft oxygen chamber 500, which has a larger unfolded area but is lighter in weight, while the lower housing 120 is used to store the main unit 310 and its auxiliary components, which have a relatively concentrated mass. This keeps the overall center of gravity of the housing low, making it more stable and less prone to tipping over during towing. The first receiving cavity 200 is used to house the foldable soft oxygen chamber 500. The soft oxygen chamber 500 is made of flexible, airtight material, preferably high-strength polyurethane-coated fabric or thermoplastic polyurethane composite material, possessing excellent airtightness, pressure resistance, and low-temperature resistance, adapting to the environmental characteristics of large diurnal temperature differences and low temperatures in high-altitude areas. When not in use, the soft oxygen chamber 500 can be folded or rolled along a preset folding line and neatly placed within the first receiving cavity 200, significantly reducing its space occupation after folding. To prevent damage to the soft oxygen chamber 500 during transportation due to friction or compression, the inner wall of the first receiving cavity 200 can be lined with cushioning padding, such as EVA foam or pearl cotton, providing a protective wrap around the folded soft oxygen chamber 500. In addition, the door of the first receiving cavity 200 can be a double-opening, side-opening, or upward-opening structure. The upper door and the lower door correspond to the upper box 110 and the lower box 120, respectively. When in use, the soft oxygen chamber 500 can be easily taken out by opening the upper door. The second receiving cavity 300 is used to house the main unit 310, connecting pipes 320, and power cord 330. The main unit 310 is fixedly installed inside the second receiving cavity 300. Preferably, the main unit 310 is mounted on the bottom of the second receiving cavity 300 via a shock-absorbing bracket. This shock-absorbing bracket can be made of rubber shock-absorbing pads or spring shock-absorbing structures to effectively absorb vibrations during transportation and protect the precision components inside the main unit 310. The main unit 310 is the core component that generates and regulates pressure. It integrates components such as an air compressor unit, pressure sensor, control circuit board, and safety valve. The operating parameters of the main unit 310 are set and adjusted by the control panel 400, which is located on the outer surface of the lower door 121 and electrically connected to the main unit 310. Integrating the control panel 400 into the outer surface of the lower door 121 is one of the key designs of this invention. Users can complete all parameter settings and start / stop operations without opening the lower door 121 or removing the main unit 310, which is of great significance for rapid response in emergency situations in high-altitude outdoor environments. The side wall of the enclosure 100 is provided with a first interface 610 and a second interface 620 that communicate with the main unit 310. The first interface 610 is an air passage interface, used to detachably connect one end of the connecting pipe 320, and the other end of the connecting pipe 320 is connected to the air inlet of the soft oxygen chamber 500 through a pipe connector. The second interface 620 is a power interface, used to detachably connect the power cord 330, and the end of the power cord 330 is provided with a power plug 700 for connecting to an external power source. In the non-use state, the connecting pipe 320 and the power cord 330 are completely stored in the second receiving cavity 300, avoiding the problems of tangling, wear or loss caused by external pipes in traditional equipment. In use, the user only needs to open the lower door 121, take out the connecting pipe 320 and the power cord 330, and insert them into the first interface 610 and the second interface 620 respectively to complete the connection, making the deployment process extremely simple. To adapt to the harsh climate conditions of high-altitude areas, including frequent sandstorms, rain, and snow, both the first interface 610 and the second interface 620 are equipped with waterproof protective structures. As a preferred embodiment, such as... Figure 5As shown, the waterproof protective structure can be designed as a soft grid 632 covering the interface surface. When in use, the soft grid 632 can be opened to connect the pipes. Alternatively, the waterproof protective structure can also be designed as a flip-up cover 631 covering the interface surface. This cover 631 is hinged to the side wall of the housing 100, normally closed to the outside of the interface, and can be flipped up to expose the interface when in use. In an alternative embodiment, the waterproof protective structure can also use a removable sealing plug made of silicone or rubber material, forming an interference fit with the interface. The sealing plug is removed during use and reinserted afterward. Furthermore, the waterproof protective structure can also be designed as a combined structure with dual sealing functions. For example, a sealing ring can be added inside the flip-up cover 631, while an elastic sealing plug is provided inside the interface, forming redundant protection. Even if the cover 631 is accidentally opened, the sealing plug can still provide effective protection for the interface. The housing 100 has ventilation holes 170 at positions corresponding to the second receiving cavity 300, and these ventilation holes 170 are positioned opposite to the heat dissipation parts of the main unit 310. The ventilation holes 170 can be designed as louvered structures, ensuring airflow while preventing foreign objects from directly entering the housing 100. In an improved embodiment, a dust filter can be installed on the inner side of the ventilation holes 170 to filter dust particles in the air, which is particularly suitable for use in high-altitude, windy environments. To further improve heat dissipation efficiency, the cooling fan of the main unit 310 can form an independent air duct with the ventilation holes 170 on the housing 100, forcibly expelling hot air from the outside of the housing 100, preventing heat accumulation inside the second receiving cavity 300, and ensuring that the main unit 310 can operate continuously and stably for extended periods. Reference Figure 7 The control panel 400 preferably adopts a touch screen human-machine interface. In this embodiment, the control panel 400 specifically includes: a power on / off touch key, a pressure display area, an oxygen concentration adjustment area, a concentration display area, a running time display area, a timer display area, a cumulative duration display area, and a settings touch key.

[0023] The power on / off touch button controls the start and stop of the main unit 310, employing a one-button operation to avoid complex settings that could delay treatment. The pressure display area shows the relative pressure value (in kPa) within the soft oxygen chamber 500 in real time, allowing users to monitor whether the pressure is within a safe range. The oxygen concentration adjustment area has touch buttons for low oxygen, rich oxygen, and high oxygen, allowing users to select different oxygen concentration levels based on the severity of the patient's altitude sickness or medical orders. Upon receiving the command, the main unit 310 automatically adjusts the oxygen concentration of the output gas. The concentration display area shows the current real-time oxygen concentration percentage within the chamber, facilitating user confirmation of treatment effectiveness. The running time display area shows the elapsed time of the current treatment (formatted as "hour:minute:second"), and the timer display area shows the user-preset treatment duration. When the preset duration is reached, the main unit 310 automatically stops working and emits a warning sound. The cumulative duration display area shows the total cumulative running time since the equipment was put into use, facilitating maintenance and management. The settings touch button accesses a more detailed parameter settings interface, such as pressure alarm thresholds and screen brightness.

[0024] Specifically, in this embodiment, the cabin pressure is not adjusted via a control panel, but rather using a manual pressure relief valve located on the soft oxygen chamber 500. Users can manually rotate the pressure relief valve to fine-tune the cabin pressure based on the pressure display. When the pressure is too high, turning the valve clockwise releases some gas, and vice versa. This design simplifies the control logic of the main unit 310, reduces product cost and failure rate, and provides users with more intuitive physical feedback, making it particularly suitable for rapid and reliable operation in high-altitude outdoor environments.

[0025] In one alternative embodiment, the control panel 400 may also integrate a Bluetooth or Wi-Fi module for remote monitoring and control via a mobile terminal APP, enabling multi-user collaborative operation or remote guidance. In another alternative embodiment, the oxygen concentration adjustment area may also take the form of a slider or a numeric input box to meet more precise adjustment needs.

[0026] The soft oxygen chamber 500 of this invention needs to be removed from the first receiving cavity 200 and unfolded to be laid flat on the ground or bed surface during use. The internal volume of the soft oxygen chamber 500 is preferably designed to accommodate a single person lying flat or semi-reclining, with a length of approximately 2100mm to 2200mm and a width of approximately 650mm to 700mm. The entrance of the soft oxygen chamber 500 is equipped with a sealing zipper and an inflatable sealing structure. After entering the chamber, the user first pulls the outer zipper, then lays out the sealing pad, and finally pulls the inner zipper to form an airtight space. The soft oxygen chamber 500 is also equipped with a manual pressure relief valve to slowly release the pressure inside the chamber after treatment, preventing sudden pressure drops from causing patient discomfort. In a preferred alternative embodiment, an automatic winding mechanism may also be provided within the first receiving cavity 200 of the housing 100 for the automatic storage of the soft oxygen chamber 500. This automatic winding mechanism includes a roller and a resilient reset element. After use, the user fixes the end of the soft oxygen chamber 500 to the roller, and the roller rotates to automatically wind the soft oxygen chamber 500 into the first receiving cavity 200, eliminating the need for manual folding and further simplifying the storage operation. The automatic winding mechanism may also be equipped with a damping device to control the winding speed and prevent damage to the chamber or injury to personnel due to excessively rapid rebound. In another alternative embodiment, the connecting pipe 320 can be pre-embedded in the internal structure of the housing 100. One end of the connecting pipe 320 is fixedly connected to the air outlet of the main unit 310, and the other end extends to the first interface 610 on the side wall of the housing 100. The user only needs to connect the air inlet of the soft oxygen chamber 500 to the first interface 610, without needing to remove and connect the pipe separately. This embodiment further reduces the usage steps, but requires the first interface 610 to have good sealing and quick-connect / remove functionality, such as using a self-sealing quick connector that automatically opens upon insertion and automatically seals upon removal to prevent gas leakage. In another alternative embodiment, an energy storage module, such as a rechargeable lithium battery pack, can be integrated into the second receiving cavity 120 of the housing 100. This energy storage module is electrically connected to the main unit 310 and serves as a backup or main power source. By integrating the energy storage module, this emergency rescue cabin can operate independently in outdoor environments without external power grid access, further expanding its applicability, especially suitable for emergency rescue in remote areas and uninhabited zones. The charging interface of the energy storage module can be shared with the second interface 620 or set separately, and is also equipped with a waterproof protective structure. This invention also provides a method for using a pull-along case-type high-altitude emergency rescue cabin, which is adapted to the above-described structural features. Before use, the operator moves the cabin 100 to the vicinity of the patient's location using the retractable pull rod 130 and bottom casters 140, and places the cabin 100 horizontally on the ground. Then, the lower door 121 is opened, and the connecting pipe 320 and power cord 330 are taken out from the second receiving cavity 300. One end of the power cord 330 is inserted into the second interface 620, and the other end is inserted into an external power socket. One end of the connecting pipe 320 is inserted into the first interface 610. Next, the upper cabin 110 is opened, and the soft oxygen chamber 500 is taken out from the first receiving cavity 200, unfolded, and laid flat on the ground. The other end of the connecting pipe 320 is connected to the air inlet of the soft oxygen chamber 500. Afterwards, the operator starts the main unit 310 via the control panel 400 on the lower door 121, and sets the pressure and time parameters according to the patient's condition. The main unit 310 begins to work, filling the soft oxygen chamber 500 with compressed air, gradually increasing the pressure inside the chamber to the set value. After the patient enters the chamber, they complete the zipper sealing operation in sequence to begin hyperbaric oxygen therapy. After the treatment, the operator first stops the main unit 310 via the control panel 400, then slowly opens the manual pressure relief valve on the soft oxygen chamber 500. After the pressure inside the chamber drops to normal pressure, the patient exits the chamber by opening the sealing zipper in sequence. Finally, the operator unplugs the connecting pipe 320 and the power cord 330 and reassembles them in the second receiving cavity 300, folds or rolls the soft oxygen chamber 500 and puts it back into the first receiving cavity 200, and closes all doors to complete the entire operation. As can be seen from the above description of specific embodiments, this invention, through innovative structural design, achieves comprehensive integration, portability, and rapid deployment capabilities for high-altitude hyperbaric oxygen therapy equipment. The pull rod and roller structure of the housing 100 solves the transportation problem; the upper and lower compartment layout solves the storage problem; the integrated control panel on the door solves the operational convenience problem; the waterproof and protective structure of the interfaces solves the environmental adaptability problem; and the fully concealed design of pipelines and power cords fundamentally solves the drawbacks of traditional equipment components being scattered, easily missed, and easily damaged. Compared with existing technologies, this invention has significant substantial features and progress in overall design concept, structural layout, and ease of use, possessing good market application prospects and promotional value. The above description is merely a preferred embodiment of the present invention and is not intended to limit the scope of protection of the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A trolley case type plateau emergency rescue cabin, characterized in that, include: A box with a retractable pull rod and bottom casters; The box is internally divided into a first accommodating cavity and a second accommodating cavity; The first accommodating cavity is used to house a foldable soft oxygen chamber; The second cavity is used to house the main unit, connecting pipes, and power cord; The second receiving cavity has an openable and closable door; The side wall of the enclosure is provided with a first interface and a second interface that communicate with the host. The first interface is used to detachably connect one end of the connecting pipe, and the other end of the connecting pipe is used to connect to the soft oxygen chamber. The second interface is used to detachably connect the power cord.

2. The trolley case type plateau emergency rescue cabin according to claim 1, characterized in that, The outer surface of the door is provided with a control panel, which is electrically connected to the host and is used to adjust and display the operating parameters of the host.

3. The trolley-type plateau emergency rescue cabin according to claim 2, characterized in that, The control panel includes: a power on / off touch key, a pressure display area, an oxygen concentration adjustment area, a concentration display area, a running time display area, a timer display area, a cumulative duration display area, and a settings touch key.

4. The trolley-type plateau emergency rescue cabin according to claim 1, characterized in that, The box includes an upper box and a lower box, the upper box forming the first receiving cavity and the lower box forming the second receiving cavity.

5. The trolley-type plateau emergency rescue cabin according to claim 1, characterized in that, Both the first interface and the second interface are equipped with waterproof protective structures.

6. The trolley-type plateau emergency rescue cabin according to claim 5, characterized in that, The waterproof protective structure includes a flip-top lid or a removable sealing plug.

7. The trolley-type plateau emergency rescue cabin according to claim 1, characterized in that, The housing has heat dissipation holes at the positions corresponding to the second accommodating cavity, and the heat dissipation holes are arranged opposite to the heat dissipation parts of the main unit.

8. The trolley-type plateau emergency rescue cabin according to claim 1, characterized in that, When not in use, the connecting pipe is completely housed within the second receiving cavity, and when in use, it is connected to the host through the first interface.

9. The trolley-type plateau emergency rescue cabin according to claim 1, characterized in that, The retractable pull rod is located on the back of the box, the bottom roller is located on the bottom surface of the box, and at least one of the bottom rollers is equipped with a braking structure.

10. A method for using a trolley-type high-altitude emergency rescue cabin, characterized in that, The use of the trolley case-type high-altitude emergency rescue cabin as described in claim 2 or 3 includes the following steps: Move the box to the usage position using the telescopic rod and bottom casters; Open the door of the second receiving cavity and take out the connecting pipes and power cord stored in the second receiving cavity; Connect one end of the power cord to the second interface and the other end to an external power source; Connect one end of the connecting pipe to the first interface and the other end to the soft oxygen chamber removed from the first receiving cavity. Start the main unit and adjust the operating parameters through the control panel to bring the soft oxygen chamber to the preset pressure for hyperbaric oxygen therapy.

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