Bullet explosion-proof storage device with coexistence of multiple safety mechanisms

Abstract

The utility model relates to the technical field of explosion-proof cabinets, and discloses a bullet explosion-proof storage device with multiple safety mechanisms, which comprises an inert gas storage component for reducing oxygen concentration and a gas conveying mechanism for conveying inert gas in the inert gas storage component, an explosion-proof protection assembly for resisting high temperature and preventing explosion is arranged at the lower end of the gas conveying mechanism, four groups of bulletproof heat insulation assemblies are annularly arranged in the explosion-proof protection assembly, a lower protection assembly is arranged at the lower end of the explosion-proof protection assembly, and the gas conveying mechanism provides inert gas to reduce the oxygen concentration and reduce the fire risk; the pressure relief assembly timely discharges high-pressure gas and filters toxic particles in the high-pressure gas when explosion occurs, the surrounding environment is protected, the safety of the storage cabinet is effectively improved through cooperative work, the defects caused by a traditional single protection means are overcome, and the safety of stored articles and the health of operators are ensured.

Description

Technical Field

[0001] This utility model relates to the field of explosion-proof cabinet technology, specifically to a gun and ammunition explosion-proof storage device with multiple safety mechanisms. Background Technology

[0002] Explosion-proof storage devices, typically referring to explosion-proof cabinets, are specially designed for the safe storage of flammable and explosive materials. Their primary function is to prevent explosions caused by external ignition sources, electrical equipment malfunctions, or other factors during storage. Explosion-proof cabinets are usually made of metal and possess excellent sealing and explosion-proof capabilities. Both the interior and exterior of the cabinet undergo fireproofing and anti-static treatments to ensure safe use even in hazardous environments. Explosion-proof cabinets are equipped with ventilation systems to ensure internal gas circulation and reduce the accumulation of hazardous gases. They also possess characteristics such as high-temperature resistance, corrosion resistance, and impact resistance, and are widely used in industries such as chemical, petroleum, and pharmaceuticals to ensure that no accidents occur during storage. Through designs that meet stringent safety standards, explosion-proof cabinets provide a safer solution for storing flammable substances.

[0003] While traditional explosion-proof storage cabinets can effectively prevent explosions, their functions are relatively limited, mainly focusing on basic safety protections such as fire prevention and explosion protection. They fail to effectively integrate multiple safety mechanisms. For example, existing explosion-proof cabinets typically lack fire extinguishing systems, making it impossible to extinguish fires or explosions in a timely manner, leading to the spread of fires or uncontrolled explosions. Furthermore, most explosion-proof cabinets generally do not consider the need to prevent bullet attacks, failing to provide effective protection against external threats and increasing potential safety risks. In addition, traditional explosion-proof cabinets cannot effectively filter harmful gases or particles released after an explosion or fire, which not only pollute the environment but may also pose a serious threat to the health of operators. Therefore, these shortcomings prevent explosion-proof cabinets from coping with more complex and extreme dangerous situations in practical applications, limiting their safety performance and protective effect. Therefore, those skilled in the art provide a bullet explosion-proof storage device with multiple safety mechanisms to solve the problems mentioned in the background art. Utility Model Content

[0004] The purpose of this invention is to provide a gun and ammunition explosion-proof storage device with multiple safety mechanisms. This addresses the problem that while traditional explosion-proof storage cabinets can effectively prevent explosions, their functions are relatively limited, mainly focusing on basic safety protections such as fire prevention and explosion protection, failing to effectively integrate multiple safety mechanisms. For example, existing explosion-proof cabinets typically lack fire extinguishing systems, making it impossible to extinguish fires or explosions in a timely manner, leading to the spread of fires or uncontrolled explosions. Furthermore, most explosion-proof cabinets generally do not consider the need to prevent gun attacks, failing to provide effective protection against external threats and increasing potential safety risks. In addition, traditional explosion-proof cabinets cannot effectively filter harmful gases or particles released after an explosion or fire, which not only pollute the environment but may also pose a serious threat to the health of operators. Therefore, these shortcomings prevent explosion-proof cabinets from coping with more complex and extreme dangerous situations in practical applications, limiting their safety performance and protective effect.

[0005] This utility model provides the following technical solution: a gun and ammunition explosion-proof storage device with multiple safety mechanisms, including an inert gas storage component for reducing oxygen concentration and a gas conveying mechanism for conveying inert gas in the inert gas storage component. The lower end of the gas conveying mechanism is provided with an explosion-proof protection component for high-temperature resistance and explosion protection. Inside the explosion-proof protection component, four sets of bulletproof and heat-insulating components are arranged in a ring. A lower protection component is provided at the lower end of the explosion-proof protection component. The upper end of the gas conveying mechanism is provided with a clamping and positioning component for mounting and placing the inert gas storage component. Inside the lower protection component, on both sides, pressure relief components are provided for filtering harmful gas particles after the item explodes. The lower end of the lower protection component is provided with a support component for supporting the lower protection component. The support component includes a base plate, and support columns are fixedly connected to the four opposite corners of the upper end of the base plate.

[0006] As a preferred embodiment of the above technical solution, the lower protection assembly includes a lower protection plate, which is fixedly connected to the upper ends of four support columns. The lower protection plate has mounting holes through the center on both sides, and guide rods are fixedly connected to the four opposite corners of the upper end of the lower protection plate.

[0007] As a preferred embodiment of the above technical solution, the explosion-proof protection component includes an explosion-proof frame, which is fixedly installed on the upper part of the lower protection plate. Guide holes are provided through the four diagonal corners of the explosion-proof frame, and slots are provided on the four end faces of the explosion-proof frame. A lower support frame is fixedly connected to the upper part of the explosion-proof frame, and a lower sealing strip is fixedly connected to the upper end of the lower support frame.

[0008] As a preferred embodiment of the above technical solution, the bulletproof and heat-insulating component includes an aerogel plate and a bulletproof ceramic plate, which are fitted inside the slot and are in close contact with each other.

[0009] As a preferred embodiment of the above technical solution, the gas delivery mechanism includes an explosion-proof cover, which is disposed on the upper end of the explosion-proof frame. Positioning holes are drilled through the interior of the explosion-proof cover at four diagonal points. These four positioning holes are slidably fitted onto the upper outer sides of four guide rods. The explosion-proof cover is detachably connected to the explosion-proof frame and the guide rods. A control panel is fixedly embedded on one side of the upper end of the explosion-proof cover. A battery is fixedly connected to one side of the center of the upper end of the explosion-proof cover. A gas pump is fixedly connected to the upper end of the explosion-proof cover away from the control panel. The output end of the gas pump passes through both the upper and lower ends of the explosion-proof cover. A first one-way solenoid valve is fixedly connected to the input end of the explosion-proof cover. A connecting hose is fixedly connected to the valve input end. An upper support frame is fixedly connected to the lower center of the explosion-proof cover near the edge. An upper sealing strip is fixedly connected to the lower end of the upper support frame. The lower end of the upper sealing strip and the upper end of the lower sealing strip are in contact with each other. A temperature sensor is fixedly connected to the lower center of the explosion-proof cover. The control panel, air pump, first one-way solenoid valve, and temperature sensor are all electrically connected to the battery. The air pump, first one-way solenoid valve, and temperature sensor are electrically connected to the control panel. A butterfly knob is threaded onto the upper outer side of each of the four guide rods. The four butterfly knobs are detachably connected to the four guide rods. The lower ends of the four butterfly knobs are in contact with the top of the explosion-proof cover.

[0010] As a preferred embodiment of the above technical solution, the pressure relief assembly includes a gas outlet square tube, which is fixedly sleeved inside the mounting hole. The gas outlet square tube is filled with a harmful gas filter element for filtering harmful particles in the air after deflagration. A wire mesh is sleeved on both the upper and lower ends of the gas outlet square tube. The two wire meshes are detachably connected to the gas outlet square tube, and the harmful gas filter element is detachably connected to the gas outlet square tube.

[0011] As a preferred embodiment of the above technical solution, the clamping and positioning assembly includes three fixed seats. Each of the three fixed seats has a lower arc-shaped base fixedly connected to its upper end. A synchronous shaft is fixedly sleeved on one end of each of the three lower arc-shaped bases. Upper pressure rings are fixedly sleeved on the outer center and near both ends of the synchronous shaft. Pins are fixedly connected to the ends of the three upper pressure rings away from the synchronous shaft. A first insertion hole is formed through the center of each of the three pins. U-shaped positioning blocks are fixedly connected to the sides of the ends of the three lower arc-shaped bases away from the synchronous shaft. The six U-shaped positioning blocks contain... Each of the six second insertion holes and the three first insertion holes are slidably fitted with limiting rods. The limiting rods are detachably connected to the three first insertion holes and the six second insertion holes. One end of the limiting rod is fixedly connected to a limiting piece. One side of the limiting piece is in contact with the side of the outermost U-shaped positioning block. A locking bolt is threaded onto the outer end of the limiting rod away from the limiting piece. The locking bolt is detachably connected to the limiting rod. The three lower arc-shaped bases and the three upper pressure rings are all fitted with anti-slip pads on their close arc-shaped surfaces.

[0012] As a preferred embodiment of the above technical solution, the inert gas storage assembly includes a high-pressure gas cylinder, which is fitted between three lower arc-shaped base supports and three upper pressure rings, and the outer side of the high-pressure gas cylinder is in contact with six anti-slip pads. The high-pressure gas cylinder is detachably connected to the three lower arc-shaped base supports and the three upper pressure rings. A second one-way solenoid valve is fixedly connected to the gas output end of the high-pressure gas cylinder. The second one-way solenoid valve is electrically connected to the battery and the control panel. The high-pressure gas cylinder is filled with compressed carbon dioxide, and the input end of the second one-way solenoid valve is fixedly connected to the input end of the connecting hose.

[0013] Compared with the prior art, the beneficial effects of this utility model are:

[0014] This multi-layered explosion-proof ammunition storage device integrates several key components, including a protective assembly, an explosion-proof protection assembly, a bulletproof and heat-insulating assembly, a gas delivery mechanism, a pressure relief assembly, a clamping and positioning assembly, and an inert gas storage assembly, forming a comprehensive safety protection system. In the event of an internal fire, explosion, or external attack, the explosion-proof protection assembly, through the explosion-proof frame and bulletproof and heat-insulating assembly, resists external impacts and high temperatures. The gas delivery mechanism provides inert gas to reduce oxygen concentration and decrease the risk of fire. The pressure relief assembly promptly releases high-pressure gas and filters out toxic particles during an explosion, protecting the surrounding environment. This device effectively enhances the safety of the storage cabinet through coordinated operation, avoiding the shortcomings of traditional single-protection methods and ensuring the safety of stored items and the health of operators. Attached Figure Description

[0015] Figure 1A three-dimensional structural diagram of a gun ammunition explosion-proof storage device with multiple safety mechanisms;

[0016] Figure 2 A three-dimensional structural diagram of a gun ammunition explosion-proof storage device with multiple safety mechanisms from another perspective;

[0017] Figure 3 A three-dimensional disassembled structural diagram of a gun ammunition explosion-proof storage device with multiple safety mechanisms;

[0018] Figure 4 This is a three-dimensional structural diagram of the lower protective component of this utility model;

[0019] Figure 5 This is a three-dimensional structural diagram of the explosion-proof protection component of this utility model;

[0020] Figure 6 This is a three-dimensional structural diagram of the bulletproof and heat-insulating component of this utility model;

[0021] Figure 7 This is a three-dimensional structural diagram of the gas conveying mechanism of this utility model;

[0022] Figure 8 This is a three-dimensional structural schematic diagram of the gas conveying mechanism of this utility model from another perspective;

[0023] Figure 9 This is a three-dimensional disassembled structural diagram of the pressure relief component of this utility model;

[0024] Figure 10 This is a three-dimensional disassembled structural diagram of the clamping and positioning component of this utility model;

[0025] Figure 11 This is a three-dimensional structural diagram of the inert gas storage component of this utility model.

[0026] Legend:

[0027] 1. Support assembly; 101. Base plate; 102. Support column; 2. Lower protection assembly; 201. Lower protection plate; 202. Mounting hole; 203. Guide rod; 3. Explosion-proof protection assembly; 301. Explosion-proof frame; 302. Guide hole; 303. Slot; 304. Lower support frame; 305. Lower sealing strip; 4. Bulletproof and heat-insulating assembly; 401. Aerogel plate; 402. Bulletproof ceramic plate; 5. Gas delivery mechanism; 501. Explosion-proof cover; 502. Positioning hole; 503. Control panel; 504. Battery; 505. Gas pump; 506. First one-way solenoid valve; 507. Connecting hose; 508. Upper support 509. Frame; 5010. Upper sealing strip; 5010. Temperature sensor; 6. Pressure relief assembly; 601. Gas outlet square tube; 602. Harmful gas filter element; 603. Steel wire mesh; 7. Clamping and positioning assembly; 701. Fixing base; 702. Lower arc-shaped base; 703. Synchronous shaft; 704. Upper pressure ring; 705. Pin; 706. First insertion hole; 707. U-shaped positioning block; 708. Second insertion hole; 709. Limiting rod; 7010. Limiting piece; 7011. Locking bolt; 7012. Anti-slip sticker; 8. Inert gas storage assembly; 801. High-pressure gas cylinder; 802. Second one-way solenoid valve; 9. Butterfly knob. Detailed Implementation

[0028] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention.

[0029] Please see Figures 1-3As shown, this utility model provides a technical solution: a gun and ammunition explosion-proof storage device with multiple safety mechanisms, including an inert gas storage component 8 for reducing oxygen concentration and a gas conveying mechanism 5 for conveying inert gas in the inert gas storage component 8. The lower end of the gas conveying mechanism 5 is provided with an explosion-proof protection component 3 for high-temperature resistance and explosion protection. Four sets of bulletproof and heat-insulating components 4 are arranged in a ring inside the explosion-proof protection component 3. A lower protection component 2 is provided at the lower end of the explosion-proof protection component 3. A clamping and positioning component 7 for installing and placing the inert gas storage component 8 is provided at the upper end of the gas conveying mechanism 5. Pressure relief components 6 for filtering harmful gas particles after the item explodes are provided on both sides inside the lower protection component 2. A support component 1 for supporting the lower protection component 2 is provided at the lower end of the lower protection component 2. The support component 1 includes a base plate 101, with four diagonal supports at the upper end of the base plate 101. Fixedly connected to a support column 102, this multi-layered explosion-proof ammunition storage device integrates several key components, including the following: protection component 2, explosion-proof protection component 3, bulletproof and heat-insulating component 4, gas delivery mechanism 5, pressure relief component 6, clamping and positioning component 7, and inert gas storage component 8. This forms a comprehensive safety protection system. In the event of an internal fire, explosion, or external attack, the explosion-proof protection component 3, through the explosion-proof frame 301 and the bulletproof and heat-insulating component 4, resists external impacts and high temperatures. The gas delivery mechanism 5 provides inert gas to reduce oxygen concentration and decrease the risk of fire. The pressure relief component 6 promptly releases high-pressure gas and filters out toxic particles during an explosion, protecting the surrounding environment. This device effectively enhances the safety of the storage cabinet through coordinated operation, avoiding the shortcomings of traditional single protection methods and ensuring the safety of stored items and the health of operators.

[0030] As one implementation method in this embodiment, please refer to Figure 4 As shown, the lower protection assembly 2 includes a lower protection plate 201, which is fixedly connected to the upper ends of four support columns 102. Mounting holes 202 are provided through the center of the lower protection plate 201 on both sides. Guide rods 203 are fixedly connected to the four diagonal points at the upper end of the lower protection plate 201. The lower protection assembly 2 includes a lower protection plate 201, which is fixedly connected to the upper ends of four support columns 102. Mounting holes 202 are provided through the center of the lower protection plate 201 on both sides to provide installation space for other components. Guide rods 203 are fixedly connected to the four diagonal points at the upper end of the lower protection plate 201. The guide rods 203 play a guiding role in the support structure, ensuring the stable installation of the explosion-proof protection assembly 3 on the lower protection plate 201. The lower protection assembly 2 helps prevent damage to the storage device during explosions or external impacts, while providing basic physical protection and reducing the impact of external damage on internal equipment.

[0031] As one implementation method in this embodiment, please refer to Figure 5As shown, the explosion-proof protection component 3 includes an explosion-proof frame 301, which is fixedly installed on the upper end of the lower protective plate 201. Guide holes 302 are provided through the four diagonal points inside the explosion-proof frame 301, and slots 303 are provided on the four end faces inside the explosion-proof frame 301. A lower support frame 304 is fixedly connected to the upper part of the explosion-proof frame 301, and a lower sealing strip 305 is fixedly connected to the upper end of the lower support frame 304. The explosion-proof protection component 3 is composed of the explosion-proof frame 301, which is installed on the upper end of the lower protective plate 201, providing protection and support. The explosion-proof frame 301 has four guide holes 302 and slots 303 inside for fixing the bulletproof and heat-insulating component 4. The lower support frame 304 inside the explosion-proof frame 301 provides stability, ensuring that the overall structure is not damaged by external forces. The lower sealing strip 305 effectively seals and prevents gas leakage, ensuring that harmful gases will not leak out in the event of an explosion, reducing secondary pollution caused by the accident.

[0032] As one implementation method in this embodiment, please refer to Figure 6 As shown, the bulletproof and heat-insulating component 4 includes an aerogel plate 401 and a bulletproof ceramic plate 402. The aerogel plate 401 and the bulletproof ceramic plate 402 are fitted inside the slot 303 and are closely fitted together. The bulletproof and heat-insulating component 4 is composed of the aerogel plate 401 and the bulletproof ceramic plate 402. The aerogel plate 401 and the bulletproof ceramic plate 402 are installed in the slot 303 of the explosion-proof frame 301 and are tightly fitted together. The aerogel plate 401 has excellent heat insulation performance and can effectively isolate the high-temperature environment and reduce flame transmission. The bulletproof ceramic plate 402 has the ability to resist bullets and can effectively prevent external attacks from damaging the items inside the storage cabinet. The two work together to provide multiple protections and ensure the safety of the storage device in the event of an explosion or attack.

[0033] As one implementation method in this embodiment, please refer to Figures 7-8As shown, the gas delivery mechanism 5 includes an explosion-proof cover 501, which is located on the upper end of the explosion-proof frame 301. Positioning holes 502 are drilled through the interior of the explosion-proof cover 501 at four opposite corners. The four positioning holes 502 are slidably fitted onto the upper outer sides of four guide rods 203. The explosion-proof cover 501 is detachably connected to the explosion-proof frame 301 and the guide rods 203. A control panel 503 is fixedly embedded on one side of the upper end of the explosion-proof cover 501. A battery 504 is fixedly connected to one side of the center of the upper end of the explosion-proof cover 501. The upper end of the explosion-proof cover 501 is located away from the control panel 503. An air pump 505 is fixedly connected to the end of the explosion-proof cover 501. The output end of the air pump 505 passes through the upper end and the lower end of the explosion-proof cover 501. A first one-way solenoid valve 506 is fixedly connected to the input end of the explosion-proof cover 501. A connecting hose 507 is fixedly connected to the input end of the first one-way solenoid valve 506. An upper support frame 508 is fixedly connected to the center of the lower end of the explosion-proof cover 501 near the edge. An upper sealing strip 509 is fixedly connected to the lower end of the upper support frame 508. The lower end of the upper sealing strip 509 is in contact with the upper end of the lower sealing strip 305. A temperature sensor 501 is fixedly connected to the center of the lower end of the explosion-proof cover 501. 0. The control panel 503, gas pump 505, first one-way solenoid valve 506, and temperature sensor 5010 are all electrically connected to the battery 504. The gas pump 505, first one-way solenoid valve 506, and temperature sensor 5010 are electrically connected to the control panel 503. Each of the four guide rods 203 has a butterfly knob 9 threaded onto its upper outer side. The four butterfly knobs 9 are detachably connected to the four guide rods 203. The lower ends of the four butterfly knobs 9 are fitted against the top of the explosion-proof cover 501. The gas delivery mechanism 5 includes the explosion-proof cover 501. The explosion-proof cover 501... The guide rod 203 is detachably connected to the explosion-proof frame 301, ensuring the stability and safety of the gas delivery system. The explosion-proof cover 501 houses the control panel 503, battery 504, gas pump 505, and temperature sensor 5010. The control panel 503 is electrically connected to the battery 504, gas pump 505, and first one-way solenoid valve 506 to ensure the normal operation of the gas delivery system and to respond promptly to emergency needs in case of fire or explosion. The gas pump 505 is responsible for delivering inert gas to the storage area to reduce the oxygen concentration, thereby reducing the possibility of fire or explosion.

[0034] As one implementation method in this embodiment, please refer to Figure 9As shown, the pressure relief assembly 6 includes a venting square tube 601, which is fixedly fitted inside the mounting hole 202. The venting square tube 601 is filled with a hazardous gas filter element 602 for filtering harmful particles in the air after a deflagration. A wire mesh 603 is fitted at both the upper and lower ends of the venting square tube 601, and the two wire meshes 603 are detachably connected to the venting square tube 601. The hazardous gas filter element 602 is also detachably connected to the venting square tube 601. The pressure relief assembly 6 includes the venting square tube 601 and the hazardous gas filter element 602. When an explosion or deflagration occurs inside the storage cabinet, the venting square tube 601 will discharge the high-pressure gas after the explosion, while the hazardous gas filter element 602 can effectively filter harmful particles in the air, preventing the leakage of toxic particles. In this way, the pressure relief assembly 6 can effectively reduce the harm to the environment and personnel caused by the explosion or fire, ensuring the safety of equipment and personnel even in extreme situations.

[0035] As one implementation method in this embodiment, please refer to Figure 10As shown, the clamping and positioning assembly 7 includes three fixed seats 701. Each of the three fixed seats 701 has a lower arc-shaped base 702 fixedly connected to its upper end. A synchronous shaft 703 is fixedly sleeved on one end of each of the three lower arc-shaped bases 702. Upper pressure rings 704 are fixedly sleeved on the outer middle and near both ends of the synchronous shaft 703. Pins 705 are fixedly connected to the ends of the three upper pressure rings 704 away from the synchronous shaft 703. A first insertion hole 706 is formed through the center of each of the three pins 705. Three lower arc-shaped base supports 702 are each fixedly connected to U-shaped positioning blocks 707 at the ends away from the synchronous shaft 703 and near both sides. Each of the six U-shaped positioning blocks 707 has a second insertion hole 708 penetrating through its center. Limiting rods 709 are slidably fitted inside the six second insertion holes 708 and the three first insertion holes 706. The limiting rods 709 are detachably connected to the three first insertion holes 706 and the six second insertion holes 708. One end of the limiting rod 709 is fixedly connected to a limiting piece 7. 010, one side of the limiting piece 7010 contacts the outermost U-shaped positioning block 707. A locking bolt 7011 is threaded onto the outer end of the limiting rod 709 away from the limiting piece 7010. The locking bolt 7011 and the limiting rod 709 are detachably connected. Anti-slip pads 7012 are affixed to the arc-shaped surfaces of the three lower arc-shaped bases 702 and the three upper pressure rings 704 that are close to each other. The clamping and positioning assembly 7 consists of a fixed base 701, lower arc-shaped bases 702, and... The components, including the upper pressure ring 704, are connected via the synchronous shaft 703 to ensure the stable installation of the inert gas storage assembly 8. The pin 705 and the limiting rod 709 can effectively limit the position of the high-pressure gas cylinder 801 and prevent it from shifting due to vibration or external force. The anti-slip sticker 7012 on the upper pressure ring 704 enhances the friction between it and the high-pressure gas cylinder 801, preventing it from sliding or falling. The design of this component effectively ensures the stability and safety of the high-pressure gas cylinder 801 during use.

[0036] As one implementation method in this embodiment, please refer to Figure 11As shown, the inert gas storage assembly 8 includes a high-pressure gas cylinder 801, which is fitted between three lower arc-shaped base supports 702 and three upper pressure rings 704. The outer side of the high-pressure gas cylinder 801 is in contact with six anti-slip pads 7012. The high-pressure gas cylinder 801 is detachably connected to the three lower arc-shaped base supports 702 and the three upper pressure rings 704. A second one-way solenoid valve 802 is fixedly connected to the gas output end of the high-pressure gas cylinder 801. The second one-way solenoid valve 802 is electrically connected to the battery 504 and the control panel 503. The high-pressure gas cylinder 801 contains compressed gas. Carbon dioxide is fixedly connected to the input end of the second one-way solenoid valve 802 and the input end of the connecting hose 507. The inert gas storage assembly 8 includes a high-pressure gas cylinder 801 for storing compressed carbon dioxide. The high-pressure gas cylinder 801 is securely installed by the clamping and positioning assembly 7 to ensure a stable gas supply. The second one-way solenoid valve 802 is used to control the release of gas. It works in conjunction with the battery 504 and the control panel 503 to ensure that the gas is delivered to the storage area in a timely manner through the gas pump 505. This assembly provides an inert gas supply for the entire device. In the event of a fire or explosion, it effectively prevents the spread of fire or the occurrence of an explosion by reducing the oxygen concentration.

[0037] Working principle: The lower protection assembly 2 includes a lower protection plate 201, which is fixedly connected to the upper ends of four support columns 102. Mounting holes 202 are provided on both sides of the center of the lower protection plate 201 to provide installation space for other components. Guide rods 203 are fixedly connected to the four diagonal points at the upper end of the lower protection plate 201. The guide rods 203 play a guiding role in the support structure, ensuring the stable installation of the explosion-proof protection assembly 3 on the lower protection plate 201. The lower protection assembly 2 helps prevent damage to the storage device during explosions or external impacts, while providing basic physical protection and reducing the impact of external damage on internal equipment. The explosion-proof protection assembly 3 consists of an explosion-proof frame 301, which is installed on the upper end of the lower protection plate 201, providing protection and support. The explosion-proof frame 301 has four guide holes 302 and slots 303 inside for fixing the bulletproof heat insulation component 4. The lower support frame 304 inside the explosion-proof frame 301 provides stability and ensures that the overall structure is not damaged by external forces. The lower sealing strip 305 effectively seals and prevents gas leakage, ensuring that harmful gases will not leak out in the event of an explosion and reducing secondary pollution caused by the accident. The bulletproof heat insulation component 4 is composed of an aerogel plate 401 and a bulletproof ceramic plate 402. The aerogel plate 401 and the bulletproof ceramic plate 402 are installed in the slots 303 of the explosion-proof frame 301 and fit tightly. The aerogel plate 401 has excellent heat insulation performance and can effectively isolate the high-temperature environment and reduce flame transmission. The bulletproof ceramic plate 402 has the ability to resist bullets and can effectively prevent... To prevent external attacks from damaging the items inside the storage cabinet, both the gas delivery mechanism and the gas delivery system work together to provide multiple layers of protection, ensuring the safety of the storage device in the event of an explosion or attack. The gas delivery mechanism 5 includes an explosion-proof cover 501, which is detachably connected to the explosion-proof frame 301 via a guide rod 203, ensuring the stability and safety of the gas delivery system. Inside the explosion-proof cover 501 are a control panel 503, a battery 504, a gas pump 505, and a temperature sensor 5010. The control panel 503 is electrically connected to the battery 504, the gas pump 505, and the first one-way solenoid valve 506 to ensure the normal operation of the gas delivery system and to respond promptly to emergency needs in the event of a fire or explosion. The gas pump 505 is responsible for delivering inert gas to the storage area. To reduce oxygen concentration and thus lower the likelihood of fire or explosion, the pressure relief assembly 6 includes an exhaust square pipe 601 and a hazardous gas filter element 602. In the event of an explosion or deflagration inside the storage cabinet, the exhaust square pipe 601 discharges the high-pressure gas, while the hazardous gas filter element 602 effectively filters harmful particles from the air, preventing the leakage of toxic particles. In this way, the pressure relief assembly 6 effectively reduces the harm to the environment and personnel caused by explosive or fire-related substances, ensuring the safety of equipment and personnel even in extreme circumstances. The clamping and positioning assembly 7 consists of a fixed base 701, a lower arc-shaped base 702, and an upper pressure ring 704, connected by a synchronous shaft 703 to ensure the stable installation of the inert gas storage assembly 8.The pin 705 and the limiting rod 709 effectively limit the position of the high-pressure gas cylinder 801, preventing it from shifting due to vibration or external force. The anti-slip pad 7012 on the upper pressure ring 704 enhances the friction between it and the high-pressure gas cylinder 801, preventing it from sliding or falling. This component design effectively ensures the stability and safety of the high-pressure gas cylinder 801 during use. The inert gas storage component 8 includes the high-pressure gas cylinder 801, used to store compressed carbon dioxide. The high-pressure gas cylinder 801 is securely installed by the clamping and positioning component 7, ensuring a stable gas supply. The second one-way solenoid valve 802 controls the gas release, working in conjunction with the battery 504 and the control panel 503 to ensure that the gas is delivered to the storage area in a timely manner via the gas pump 505. This component provides an inert gas supply for the entire device, effectively preventing the spread of fire or explosion by reducing the oxygen concentration in the event of a fire or explosion.

[0038] The above embodiments are only used to illustrate the technical solution of this utility model, and are not intended to limit it.

Claims

1. A firearm and ammunition explosion-proof storage device with multiple safety mechanisms, comprising an inert gas storage component (8) for reducing oxygen concentration and a gas delivery mechanism (5) for delivering inert gas within the inert gas storage component (8), characterized in that: The lower end of the gas delivery mechanism (5) is provided with an explosion-proof protection component (3) for high temperature resistance and explosion protection. Inside the explosion-proof protection component (3), four sets of bulletproof and heat-insulating components (4) are arranged in a ring. The lower end of the explosion-proof protection component (3) is provided with a lower protection component (2). The upper end of the gas delivery mechanism (5) is provided with a clamping and positioning component (7) for installing and placing an inert gas storage component (8). Inside the lower protection component (2), on both sides, there are pressure relief components (6) for filtering harmful gas particles after the explosion of the item. The lower end of the lower protection component (2) is provided with a support component (1) for supporting the lower protection component (2). The support component (1) includes a base plate (101). Support columns (102) are fixedly connected to the four diagonal corners of the upper end of the base plate (101).

2. The ammunition explosion-proof storage device with multiple security mechanisms coexisting according to claim 1, wherein: The lower protection component (2) includes a lower protection plate (201), which is fixedly connected to the upper end of four support columns (102). The lower protection plate (201) has mounting holes (202) through the center on both sides. Guide rods (203) are fixedly connected to the four diagonal points on the upper end of the lower protection plate (201).

3. The ammunition explosion-proof storage device with multiple security mechanisms coexisting according to claim 2, characterized in that: The explosion-proof protection component (3) includes an explosion-proof frame (301), which is fixedly installed on the upper end of the lower protection plate (201). The explosion-proof frame (301) has guide holes (302) through it at the four diagonal corners. The explosion-proof frame (301) has slots (303) at the four end faces. The explosion-proof frame (301) has a lower support frame (304) fixedly connected to the upper part of it. The lower support frame (304) has a lower sealing strip (305) fixedly connected to its upper end.

4. The ammunition explosion-proof storage device with multiple security mechanisms coexisting according to claim 3, characterized in that: The bulletproof and heat-insulating component (4) includes an aerogel plate (401) and a bulletproof ceramic plate (402), which are fitted inside the slot (303) and are in close contact with each other.

5. The ammunition explosion-proof storage device with multiple security mechanisms coexisting according to claim 3, characterized in that: The gas delivery mechanism (5) includes an explosion-proof cover (501), which is located on the upper end of the explosion-proof frame (301). The explosion-proof cover (501) has four positioning holes (502) extending through it at four opposite corners. These four positioning holes (502) are slidably fitted onto the upper outer sides of four guide rods (203). The explosion-proof cover (501) is detachably connected to the explosion-proof frame (301) and the guide rods (203). The upper end of the explosion-proof cover (501) is fixedly embedded on one side. A control panel (503) is provided. A battery (504) is fixedly connected to the upper center of the explosion-proof cover (501) near one side. An air pump (505) is fixedly connected to the upper end of the explosion-proof cover (501) away from the control panel (503). The output end of the air pump (505) passes through the upper end and lower end of the explosion-proof cover (501). A first one-way solenoid valve (506) is fixedly connected to the input end of the explosion-proof cover (501). The input end of the first one-way solenoid valve (506) is fixedly connected to the control panel (503). A connecting hose (507) is fixedly connected to the explosion-proof cover (501). An upper support frame (508) is fixedly connected to the lower center near the edge of the explosion-proof cover (501). An upper sealing strip (509) is fixedly connected to the lower end of the upper support frame (508). The lower end of the upper sealing strip (509) is in contact with the upper end of the lower sealing strip (305). A temperature sensor (5010) is fixedly connected to the lower center of the explosion-proof cover (501). The control panel (503), the air pump (505), the first one-way solenoid valve (506), and the temperature sensor are also fixedly connected. The temperature sensor (5010) is electrically connected to the battery (504). The air pump (505), the first one-way solenoid valve (506) and the temperature sensor (5010) are electrically connected to the control panel (503). Each of the four guide rods (203) has a butterfly knob (9) threaded on its upper outer side. The four butterfly knobs (9) are detachably connected to the four guide rods (203). The lower ends of the four butterfly knobs (9) are in contact with the top of the explosion-proof cover (501).

6. The ammunition explosion-proof storage device with multiple security mechanisms coexisting according to claim 2, characterized in that: The pressure relief assembly (6) includes an exhaust square tube (601), which is fixedly sleeved inside the mounting hole (202). The exhaust square tube (601) is filled with a harmful gas filter element (602) for filtering harmful particles in the air after deflagration. A wire mesh (603) is sleeved on both the upper and lower ends of the exhaust square tube (601). The two wire meshes (603) are detachably connected to the exhaust square tube (601). The harmful gas filter element (602) is detachably connected to the exhaust square tube (601).

7. The ammunition explosion-proof storage device with multiple security mechanisms coexisting according to claim 5, characterized in that: The clamping and positioning assembly (7) includes three fixed seats (701). Each of the three fixed seats (701) has a lower arc-shaped base (702) fixedly connected to its upper end. A synchronous shaft (703) is fixedly sleeved on one end of each of the three lower arc-shaped bases (702). An upper pressure ring (704) is fixedly sleeved on the outer middle and near both ends of the synchronous shaft (703). A pin (705) is fixedly connected to the end of each of the three upper pressure rings (704) away from the synchronous shaft (703). A first insertion hole (706) is opened through the center of each of the three pins (705). U-shaped positioning blocks (707) are fixedly connected to both sides of the end of each of the three lower arc-shaped bases (702) away from the synchronous shaft (703). A second insertion hole (706) is opened through the center of each of the six U-shaped positioning blocks (707). 8) Each of the six second insertion holes (708) and the three first insertion holes (706) is slidably fitted with a limiting rod (709). The limiting rod (709) is detachably connected to the three first insertion holes (706) and the six second insertion holes (708). One end of the limiting rod (709) is fixedly connected to a limiting piece (7010). One side of the limiting piece (7010) is in contact with the side of the outermost U-shaped positioning block (707). A locking bolt (7011) is threaded onto the outer end of the limiting rod (709) away from the limiting piece (7010). The locking bolt (7011) is detachably connected to the limiting rod (709). The arc surfaces of the three lower arc-shaped bases (702) and the three upper pressure rings (704) that are close to each other are all fitted with anti-slip stickers (7012).

8. The ammunition explosion-proof storage device with multiple security mechanisms coexisting according to claim 7, characterized in that: The inert gas storage assembly (8) includes a high-pressure gas cylinder (801), which is fitted between three lower arc-shaped bases (702) and three upper pressure rings (704). The outer side of the high-pressure gas cylinder (801) is in contact with six anti-slip pads (7012). The high-pressure gas cylinder (801) is detachably connected to the three lower arc-shaped bases (702) and the three upper pressure rings (704). A second one-way solenoid valve (802) is fixedly connected to the gas output end of the high-pressure gas cylinder (801). The second one-way solenoid valve (802) is electrically connected to the battery (504) and the control panel (503). The high-pressure gas cylinder (801) is filled with compressed carbon dioxide. The input end of the second one-way solenoid valve (802) is fixedly connected to the input end of the connecting hose (507).

Images