Partitioned intelligent constant temperature visualized improved rescue vehicle

Abstract

The present application relates to the technical field of medical first-aid equipment, and discloses a partitioned intelligent constant-temperature visualized improved rescue vehicle, which comprises a vehicle body, a six-layer partitioned storage structure, a first-layer medicine special layer, a second-layer rescue liquid special layer, a third-layer general consumable layer, a fourth-layer auxiliary consumable layer, a fifth-layer first-aid equipment expansion layer and a sixth-layer bottom emergency resuscitation material layer arranged in sequence from the top to the bottom of the vehicle body, and a layered matching partitioning piece, a cooperation of a table top functional assembly, an infusion telescopic frame, which are convenient for quickly taking out objects and improve the first-aid efficiency. The constant-temperature refrigeration assembly forms a closed-loop temperature control and has an audible and visual early warning, so that the refrigerated medicine is prevented from deteriorating. The three-side sliding support assembly of the vehicle body can mount the first-aid equipment, thereby reducing the time-consuming of carrying. The intelligent hardware assembly relies on RFID to realize automatic inventory, expiration date early warning and electronic account management, and simplifies the handover process. The present application integrates multiple functions and has significant advantages in clinical use.

Description

Technical Field

[0001] This invention relates to the field of medical emergency equipment technology, specifically to a zoned intelligent constant temperature and visualization improved emergency vehicle. Background Technology

[0002] Emergency carts are essential emergency equipment in hospital emergency departments, ICUs, and various clinical wards. They are used to centrally store emergency medications, fluids, consumables, and emergency equipment, ensuring that emergency care can be carried out quickly and orderly. However, existing emergency carts still have many shortcomings in actual clinical use.

[0003] First, existing emergency carts are mostly open or have a simple, layered structure, with medications and consumables often stored together and poorly categorized. This forces medical staff to spend a significant amount of time searching for items during resuscitation, severely impacting efficiency. Second, existing emergency carts lack effective temperature control for medication storage. Some emergency medications have strict temperature requirements; prolonged exposure to ambient temperatures can reduce their potency or even cause them to deteriorate and become ineffective, endangering patient safety. Third, emergency equipment such as defibrillators and electric suction devices usually need to be transported separately to the emergency site. This separation of equipment from the cart not only increases the physical exertion of medical staff but also risks delaying treatment. Furthermore, current emergency cart material management relies on manual inventory and registration, leading to time-consuming shift changes, oversights in expiration date management, and difficulties in dynamic monitoring and traceability. Therefore, we propose a zoned, intelligent, temperature-controlled, and visualized improved emergency cart to address these problems. Summary of the Invention

[0004] To address the shortcomings of existing technologies, this invention provides a zoned intelligent constant temperature and visual improved emergency vehicle, which solves the problems of slow retrieval of mixed materials, lack of constant temperature structure which easily causes refrigerated medicines to become ineffective, the need for separate handling of large emergency equipment which delays treatment, and the cumbersome manual counting and handover of materials without traceability management.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a zoned intelligent constant temperature and visual improved emergency rescue vehicle, comprising:

[0006] Vehicle body;

[0007] The six-layer partitioned storage structure, from the top to the bottom of the vehicle body, includes the first layer for medicines, the second layer for emergency liquids, the third layer for regular consumables, the fourth layer for auxiliary consumables, the fifth layer for emergency equipment expansion, and the sixth layer for emergency resuscitation supplies.

[0008] The sliding equipment support assembly is respectively disposed on the left, right and rear sides of the vehicle body, and is used to mount the emergency equipment and support the emergency equipment to slide and position in the vertical direction;

[0009] The intelligent management hardware components include a visual screen, an RFID reader / writer, and a control host. The visual screen is fixed to the top of the vehicle body, the RFID reader / writer is installed in the storage structure of each layer of the vehicle body, and the control host is installed at the bottom of the vehicle body. The visual screen and the RFID reader / writer are respectively connected to the control host for communication.

[0010] The constant temperature cooling component includes a thermoelectric cooler, a rechargeable battery pack, a temperature controller, and an alarm. The thermoelectric cooler is installed in the vehicle body, and a heat dissipation hole is provided on one side of the vehicle body near the thermoelectric cooler. The rechargeable battery pack, temperature controller, and alarm are sequentially installed at the bottom of the vehicle body. The thermoelectric cooler is electrically connected to the rechargeable battery pack, the temperature controller is controllably connected to the thermoelectric cooler, and the alarm is signal-connected to the temperature controller.

[0011] Beneficial effects

[0012] This invention provides a zoned intelligent constant temperature visualization-based improved emergency rescue vehicle. Compared with existing technologies, it has the following advantages:

[0013] This partitioned intelligent constant temperature and visual improved emergency rescue vehicle features a six-layer independent storage structure. From top to bottom, the vehicle is arranged with a dedicated medicine layer at the top and an emergency resuscitation supplies layer at the bottom. Each layer is equipped with dedicated separators to separate and store medicines, liquids, consumables, emergency equipment, and resuscitation supplies. Combined with functional components on the work surface and an infusion tray for operation assistance, it can quickly locate emergency supplies, effectively solving the problems of mixed storage, time-consuming searching, and misuse of items in traditional emergency rescue vehicles, thus improving the efficiency of on-site emergency treatment. The constant temperature refrigeration component integrates a rechargeable battery pack, temperature controller, semiconductor cooling chip, and alarm. Relying on temperature and humidity sensors to form a closed-loop temperature control system, it stably maintains refrigerated medicine storage conditions. Automatic audible and visual warnings are issued when the temperature exceeds the limit or the battery is low, eliminating the safety hazards of medicine deterioration and ineffectiveness caused by storage at room temperature.

[0014] The vehicle body is equipped with sliding equipment support components on the left, right and rear sides. The support plate can be infinitely height adjusted and quickly locked by the support bars, locking pins and springs. The support plate can be used to carry large emergency equipment such as defibrillators and electric suction devices, so that the equipment can be transported in one piece with the vehicle and used directly at the rescue site without the need for separate handling and assembly. This not only shortens the emergency preparation time, but also reduces the physical exertion of medical staff in transporting equipment.

[0015] The intelligent management hardware components integrate a visual screen, layered RFID readers, and a bottom control host. This allows for automatic inventory checks, screening of near-expiry and expired supplies, and automatic generation of traceable electronic ledgers. It replaces manual item-by-item counting and handwritten registration, simplifies shift handover processes, and enables digital and refined management of emergency supplies. This invention integrates zoned storage, temperature-controlled drug storage, vehicle-mounted equipment, and intelligent supplies management, offering significantly superior overall performance and clinical applicability compared to existing conventional emergency vehicles. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0017] Figure 2 This is a cross-sectional view of the overall structure of the present invention;

[0018] Figure 3 For the present invention Figure 1 A magnified structural diagram at point A;

[0019] Figure 4 This is a bottom view of the overall structure of the present invention;

[0020] Figure 5 This is a structural unfolded diagram of the entire invention.

[0021] In the diagram: 101. Vehicle body; 102. Handle; 103. First layer: Medicine-specific layer; 104. Second layer: Emergency fluid-specific layer; 105. Third layer: Regular consumables layer; 106. Fourth layer: Auxiliary consumables layer; 107. Fifth layer: Emergency equipment expansion layer; 108. Sixth layer: Bottom layer: Emergency resuscitation supplies layer; 109. Tabletop functional components; 110. Infusion telescopic frame; 111. Hook platform; 2. Constant temperature refrigeration components; 201. Rechargeable battery pack; 202. Temperature controller; 203. Alarm; 204. Semiconductor cooling chip; 3. Sliding equipment support components; 301. Support bar; 302. Lock hole; 303. Sliding plate; 304. Support plate; 305. Locking pin; 306. Spring; 307. Connecting rod; 4. Intelligent management hardware components; 401. Visual screen; 402. RFID reader; 403. Control host. Detailed Implementation

[0022] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0023] like Figure 1-5 As shown:

[0024] A zoned intelligent constant temperature and visual improved emergency rescue vehicle includes:

[0025] Vehicle body 101;

[0026] The six-layer partitioned storage structure includes, from the top to the bottom of the vehicle body 101, the first layer for medicines 103, the second layer for emergency liquids 104, the third layer for regular consumables 105, the fourth layer for auxiliary consumables 106, the fifth layer for emergency equipment expansion 107, and the sixth layer for emergency resuscitation supplies 108.

[0027] The first layer of medicine-specific layer 103 is equipped with five independent cloth bag compartments for each medicine. The five independent cloth bag compartments are divided into five independent chambers by flexible material for independently fixing a single medicine. Each medicine compartment is equipped with a high-risk medicine name label area and an expiration date card slot. The vehicle body 101 is equipped with a temperature and humidity sensor.

[0028] The second-layer emergency liquid-specific layer 104 is equipped with vertical corrugated dividers. The corrugated dividers form a gap for inserting liquid bottles or liquid bags between adjacent corrugated dividers. The spacing between each corrugated divider is adapted to the external dimensions of the liquid bottles or liquid bags.

[0029] The third layer of conventional consumables 105 is provided with crisscrossing first partitions, which divide the storage space of the third layer of conventional consumables 105 into multiple first functional zones, and each first functional zone is provided with a first category label slot.

[0030] The fourth auxiliary consumables layer 106 is provided with crisscrossing second partitions, which divide the storage space of the fourth auxiliary consumables layer 106 into multiple second functional zones, and each second functional zone is provided with a corresponding second category label slot.

[0031] The fifth-layer emergency medical device expansion layer 107 has a greater height than the third-layer conventional consumables layer 105 and the fourth-layer auxiliary consumables layer 106. The fifth-layer emergency medical device expansion layer 107 has a greater depth than the third-layer conventional consumables layer 105 and the fourth-layer auxiliary consumables layer 106. The fifth-layer emergency medical device expansion layer 107 is equipped with device fixing straps or device clamps for fixing simple breathing bags and blood pressure monitors.

[0032] The sixth-floor emergency resuscitation supplies layer 108 is equipped with oxygen cylinder fixing clamps and chest compression plate placement slots. The oxygen cylinder fixing clamps are arc-shaped clamps, one end of which is rotatably connected to the inner wall of the sixth floor via a hinge, and the other end of which is detachably connected to the inner wall of the sixth floor via a buckle. This is used to hold and fix small portable oxygen cylinders in the sixth floor. The chest compression plate placement slot is a rectangular groove that matches the shape of the chest compression plate, and the chest compression plate is embedded in the rectangular groove.

[0033] The sliding equipment support assembly 3 is respectively set on the left, right and rear sides of the vehicle body 101, and is used to mount the emergency equipment and support the emergency equipment to slide and position in the vertical direction;

[0034] The sliding equipment support assembly 3 includes: support bars 301, which are arranged in pairs, each support bar 301 being fixed vertically to the outer side wall of the vehicle body 101, and the pairs of support bars 301 being arranged symmetrically from left to right or front to back; a sliding plate 303, the two ends of which are slidably engaged with the pairs of support bars 301 via slide rails, and the sliding plate 303 can slide up and down along the vertical direction of the support bars 301; a support plate 304, which is rotatably connected between the two sets of sliding plates 303 via a rotating shaft; and a locking pin 305, which is slidably disposed on the support plate 304 near the support bars 301. At position 1; a spring 306 is fixedly connected between the locking pin 305 and the support plate 304; a connecting rod 307 is provided at the rectangular opening on the support plate 304, and both ends of the connecting rod 307 are fixedly connected to the locking pin 305; a support bar 301 has multiple sets of equidistantly arranged locking holes 302 adapted to the locking pin 305 on one side, and one end of the locking pin 305 has a frustum structure, which is used to extend into the locking hole 302 to lock the support plate 304 at any height position of the support bar 301; a hook is provided on the lower surface of the support plate 304, which is a hook or a hanging ring, for attaching emergency equipment;

[0035] The intelligent management hardware component 4 includes a visualization screen 401, an RFID reader / writer 402, and a control host 403. The visualization screen 401 is fixed to the top of the vehicle body 101, the RFID reader / writer 402 is installed in each layer of the storage structure of the vehicle body 101, and the control host 403 is installed at the bottom of the vehicle body 101. The visualization screen 401 and the RFID reader / writer 402 are respectively connected to the control host 403.

[0036] The constant temperature cooling component 2 includes a semiconductor cooling chip 204, a rechargeable battery pack 201, a temperature controller 202, and an alarm 203. The semiconductor cooling chip 204 is installed inside the vehicle body 101. A heat dissipation hole is provided on one side of the vehicle body 101 near the semiconductor cooling chip 204. The rechargeable battery pack 201, the temperature controller 202, and the alarm 203 are sequentially installed at the bottom of the vehicle body 101. The semiconductor cooling chip 204 is electrically connected to the rechargeable battery pack 201. The temperature controller 202 is controllably connected to the semiconductor cooling chip 204. The alarm 203 is signal-connected to the temperature controller 202. The temperature and humidity sensor is signal-connected to the temperature controller 202.

[0037] The tabletop functional component 109 is located on the top of the vehicle body 101. The tabletop functional component 109 includes a small sharps box and an ampoule storage box that are fixedly installed on the right side of the tabletop of the vehicle body 101.

[0038] The infusion telescopic frame 110 is fixed at the corner of the vehicle body 101. A hook platform 111 is installed on the top of the infusion telescopic frame 110. The infusion telescopic frame 110 includes a fixed sleeve and a sliding tube. An elastic pin locking component is installed on the top of the fixed sleeve. The fixed sleeve is fixed at the corner of the vehicle body 101. The sliding tube can be telescopically inserted into the fixed sleeve.

[0039] Handle 102 is installed at the front top of vehicle body 101;

[0040] The casters are located at the bottom of the vehicle body 101. They are medical-grade silent casters with brakes.

[0041] In this implementation plan: When in use, the partitioned intelligent constant temperature and visual improved emergency vehicle uses the vehicle body 101 as the overall load-bearing base. The whole machine consists of four modular structures: a six-layer partitioned storage structure, a constant temperature refrigeration component 2, a sliding equipment support component 3, and an intelligent management hardware component 4. These four modular structures work together with auxiliary components such as the tabletop functional component 109 and the infusion telescopic frame 110 to fully realize the whole process of partitioned material storage, constant temperature storage of medicines, vehicle-mounted emergency equipment, and intelligent inventory and traceability of materials. The entire operation process is divided into static preparation before emergency rescue, on-site emergency retrieval, post-rescue inventory and handover, and equipment failure early warning.

[0042] Medical staff filled the six-layer partitioned storage structure with supplies layer by layer from top to bottom of the vehicle body 101. Each layer has a built-in exclusive partition and limiting structure to achieve complete partitioned and isolated storage of medicines, liquids, consumables, equipment and resuscitation supplies, and eliminate the problem of mixed and messy storage.

[0043] The first layer of medicine-specific layer 103 is equipped with five independent cloth bags for each vial. The flexible material divides the space into five independent chambers to hold a single emergency injection. It is equipped with a high-risk drug name label area and an expiration date card slot. The temperature and humidity sensor built into the vehicle body 101 continuously collects the temperature and humidity data inside the first layer of medicine-specific layer 103 and transmits it to the temperature controller 202 in real time.

[0044] The second-level emergency liquid-specific layer 104 is equipped with vertical corrugated partition racks. Adjacent partition racks form insertion gaps that are adapted to the shape of infusion bottles and bags, so that liquid containers will not tip over and mix during transportation and shaking.

[0045] The third layer of conventional consumables 105 is divided into multiple first functional zones by crisscrossing first partitions. Each zone is equipped with a first classification label slot, and infusion sets, syringes, dressings, and tubing consumables are stored in the zone.

[0046] The fourth auxiliary consumables layer 106 is divided by the second partition to form a second functional area, and is equipped with a second category label slot to uniformly store various spare auxiliary consumables;

[0047] The fifth-layer emergency equipment expansion layer 107 has a greater capacity height and depth than the third-layer conventional consumables layer 105 and the fourth-layer auxiliary consumables layer 106. The internal equipment fixing straps and equipment clamps can stably hold large emergency equipment such as simple breathing bags and blood pressure monitors.

[0048] The sixth layer, the bottom layer of emergency resuscitation supplies, 108, uses arc-shaped oxygen cylinder fixing clamps to hold small portable oxygen cylinders tightly. One end of the clamp is hinged to the inner wall of the chamber, and the other end is detachable and locked with a buckle. The chest compression plate is embedded in the matching rectangular groove inside the chamber, and there is no slippage or displacement during the transfer process.

[0049] The top of the vehicle body 101 is equipped with a tabletop functional component 109, and a small sharps box and a special storage box for ampoules are fixed on the right side of the tabletop; an infusion telescopic frame 110 is installed at the corner of the vehicle body 101, and the height is locked by the elastic pin at the top of the fixed sleeve after the sliding tube is pulled out; the top hook platform 111 is used to hang infusion containers; a handle 102 is fixed at the top front of the vehicle body 101, and medical silent universal wheels with brakes are installed at the bottom, completing the basic assembly of the vehicle.

[0050] The constant temperature refrigeration component 2 consists of a rechargeable battery pack 201, a temperature controller 202, an alarm 203, and a semiconductor cooling chip 204. The entire component is installed at the bottom of the vehicle body 101 and in the internal cavity, independently providing a low-temperature constant temperature storage environment for the first-layer medicine-specific layer 103. The lithium-ion rechargeable battery pack 201 provides unified power to the semiconductor cooling chip 204, the temperature controller 202, and the alarm 203. The programmable temperature controller 202 presets the standard storage temperature range for refrigerated medicines and forms a control connection with the semiconductor cooling chip 204. Heat dissipation holes are opened on the side wall of the vehicle body 101 to dissipate the heat generated by the semiconductor cooling chip 204 during operation. Temperature and humidity sensors continuously transmit real-time temperature data for the first pharmaceutical-specific layer 103. When the internal temperature exceeds the set upper limit, the temperature controller 202 increases the cooling power of the semiconductor cooling chip 204 to achieve cooling. When the temperature is below the set lower limit, the temperature controller 202 reduces the cooling power to maintain a constant temperature range. If the internal temperature continues to exceed the safety threshold or the rechargeable battery pack 201 is low on power, the temperature controller 202 sends a signal to the alarm 203. The audible and visual alarm 203 simultaneously issues an audible and visual warning to prompt medical staff to inspect or recharge the battery.

[0051] The intelligent management hardware component 4 includes a visualization screen 401, an RFID reader / writer 402, and a control host 403. The visualization screen 401 is fixed to the top of the vehicle body 101, and each storage compartment has an RFID reader / writer 402 installed separately. The control host 403 is integrated at the bottom of the vehicle body 101. The visualization screen 401 and all RFID readers / writers 402 establish communication connections with the control host 403. All medicines, consumables, and emergency equipment are affixed with RFID electronic tags. After the materials are loaded, medical staff operate the visualization screen 401 to issue a keystroke command. The control host 403 synchronously drives the RFID readers / writers 402 in each layer to scan all electronic tags in the compartment, automatically collecting data on the material name, specifications, inventory quantity, and expiration date, and storing it in the control host 403. The visualization screen 401 displays a complete inventory list of the six storage compartments in real time, completing the initial filing of the electronic ledger for the materials.

[0052] The vehicle body 101 is equipped with sliding equipment support assemblies 3 on its left, right, and rear sides. Each sliding equipment support assembly 3 consists of support rods 301, locking holes 302, sliding plates 303, support plates 304, locking pins 305, springs 306, and connecting rods 307. Pairs of support rods 301 are fixed vertically to the outer side wall of the vehicle body 101, with multiple sets of locking holes 302 evenly spaced on the rods. The sliding plates 303 slide with the support rods 301 via slide rails at both ends, allowing them to rise and fall vertically. The support plates 304 connect two sets of sliding plates 303 via a pivot shaft. Connecting rods 307 are fitted inside the rectangular opening of the support plates 304, with conical locking pins 305 fixed at both ends of the connecting rods 307. Springs 306 connect the locking pins 305 to the support plates 304. When adjusting the mounting height, medical staff pull the connecting rod 307 to compress the spring 306, and the locking pin 305 disengages from the lock hole 302. The sliding plate 303 drives the support plate 304 to rise and fall to the target height. After releasing the connecting rod 307, the spring 306 rebounds, pushing the locking pin 305 into the corresponding lock hole 302 to complete the height locking. The lower surface of the support plate 304 is equipped with hooks, which can stably mount large emergency equipment such as defibrillators and electric suction devices, enabling the pre-installation of emergency equipment in the vehicle.

[0053] When transporting the emergency ambulance, medical staff hold the front handle 102 of the vehicle body 101 and push the entire vehicle to move. The medical silent universal wheels at the bottom reduce transport noise. After the vehicle arrives at the bedside, the universal wheel brake is depressed to lock the vehicle body 101, ensuring the stability of the entire vehicle during operation and preventing slippage. When carrying out emergency operations, medical staff directly open the corresponding layer drawers according to the type of supplies. To obtain injectable drugs, open the first layer dedicated to medicines 103; to obtain intravenous fluids, open the second layer dedicated to emergency fluids 104; to obtain routine puncture consumables, open the third layer of routine consumables 105; to obtain spare auxiliary consumables, open the fourth layer of auxiliary consumables 106; to obtain large emergency equipment, open the fifth layer of emergency equipment expansion layer 107; and to obtain resuscitation supplies such as oxygen cylinders and chest compression plates, open the sixth layer of emergency resuscitation supplies 108. The small sharps box and ampoule storage box on the tabletop functional component 109 can immediately store discarded syringes and broken ampoules, reducing the risk of sharps injuries. The defibrillator and suction device mounted on the support plate 304 can be directly accessed. If the operating height needs to be adjusted, the height adjustment steps of the sliding equipment support component 3 can be repeated to adapt to different operating heights of hospital beds and transport beds. During infusion operation, the infusion telescopic frame 110 is pulled out to slide the infusion tube. After the height is locked by the elastic pin, the infusion bag is suspended through the hook platform 111 to carry out the infusion operation.

[0054] After the supplies are removed, the corresponding RFID reader 402 inside the layer loses the electronic tag sensing signal. The reader transmits the supply consumption signal to the bottom control host 403 in real time, and the visual screen 401 simultaneously refreshes the corresponding supply inventory balance, automatically popping up a red high-brightness warning for supplies with insufficient inventory or near expiration. Throughout the rescue process, the constant temperature refrigeration component 2 operates continuously at low power, and the temperature and humidity sensor continuously monitors the storage environment of the first-layer medicine-specific layer 103. If the ambient temperature fluctuates and causes the temperature and humidity inside the warehouse to exceed the safe range, the alarm 203 immediately sounds an audible and visual alarm to remind medical staff to take precautions to protect the refrigerated medicines.

[0055] After the rescue operation is completed, all storage drawers are closed. Medical staff use the one-key operation on the visualization screen 401 to activate the control host 403, which drives all RFID readers 402 to simultaneously scan the electronic tags of remaining supplies in the storage compartments. The system automatically compares the data with the initial inventory, calculates the types and quantities of supplies consumed during the rescue, and generates a complete detailed list of supplies consumed on the visualization screen 401, replacing the traditional manual item-by-item inventory process. The control host 403 simultaneously reads the expiration information from all electronic tags, automatically screening for expired and near-expiration supplies and highlighting them on the visualization screen 401. It also permanently stores the warning information in the host ledger. Medical staff replenish the corresponding supplies according to the consumption list displayed on the screen. After the supplies are returned to their respective storage compartments, the RFID readers 402 automatically identify the newly added supply tags, and the control host 403 updates the inventory data in real time. Medical staff can also enter shift handover information on the visualization screen 401, and the control host 403 automatically generates an electronic ledger of supplies usage with traceability capabilities, which is stored long-term for subsequent departmental verification.

[0056] After the supplies are inventoried and replenished, the defibrillator, suction device, and other equipment are placed back into the support plate 304 of the sliding equipment support component 3. The height of the support plate 304 is adjusted as needed and locked. The sliding intubation tube of the infusion telescopic frame 110 is retracted and stored using the elastic pin of the fixed sleeve. The small oxygen cylinder and chest compression plate in the emergency resuscitation supplies layer 108 of the sixth layer are returned to their positions and locked. All storage drawers are closed to complete the storage and organization of the entire vehicle. When there is no rescue mission, the constant temperature cooling component 2 maintains a low-power standby temperature preservation state. If the rechargeable battery pack 201 has low power, the alarm 203 will continuously issue a warning to remind medical staff to connect an external charger in time. The intelligent management hardware component 4 maintains a monitoring state throughout the process, monitoring the temperature and inventory data of the compartment in real time, and is ready to respond to emergency needs at any time.

[0057] The entire system is equipped with a multi-linked early warning mechanism. All early warning signals are transmitted from the temperature controller 202 and the control host 403 to the alarm 203 and the visual screen 401 for simultaneous alerts. Temperature and humidity anomaly warning: When the temperature of the first-layer medicine-specific layer 103 exceeds the preset safe range, the signal is transmitted to the temperature controller 202. The controller activates the alarm 203 with sound and light alerts, and simultaneously, a temperature anomaly pop-up window appears on the visual screen 401, prompting medical staff to check whether the semiconductor cooling chip 204 and the heat dissipation holes on the side wall of the vehicle body 101 are blocked. Battery low voltage warning: When the voltage of the rechargeable battery pack 201 falls below the safe operating threshold, the temperature controller 202 triggers the alarm 203, and the visual screen 401 prompts for timely charging to prevent the constant temperature cooling component 2 from shutting down and causing the medicines to deteriorate due to temperature loss. Material shortage / expiration warning: The RFID reader 402 scans and identifies materials with insufficient inventory or expired labels, and the control host 403 drives the visual screen 401 to highlight in red for an early warning. All warning records are automatically saved to the ledger. Refrigeration structure failure warning: When the semiconductor refrigeration chip 204 has no cooling output and the temperature inside the chamber continues to rise, the temperature controller 202 triggers the dual audible and visual alarm 203, prompting medical staff to transfer high-risk drugs from the first-level drug-specific layer 103 to prevent drug failure.

[0058] This solution features a six-layer independent storage structure. From top to bottom, the vehicle body 101 is arranged with a first layer dedicated to medicines 103 to a sixth layer at the bottom, containing emergency resuscitation supplies 108. Each layer is equipped with dedicated partitions to separate and store medicines, liquids, consumables, first-aid equipment, and resuscitation supplies. Combined with a functional tabletop component 109 and an infusion tray 110 for operation assistance, it enables rapid location of emergency supplies, effectively solving the problems of mixed storage, time-consuming searching, and misuse of items in traditional emergency vehicles, thus improving the efficiency of on-site emergency response. The constant temperature refrigeration component 2 integrates a rechargeable battery pack 201, a temperature controller 202, a semiconductor cooling chip 204, and an alarm 203. Relying on temperature and humidity sensors, it forms a closed-loop temperature control system to stably maintain refrigerated medicine storage conditions. Automatic audible and visual warnings are issued when the temperature exceeds the limit or the battery is low, eliminating the safety hazards of medicine deterioration and ineffectiveness caused by room temperature storage.

[0059] The vehicle body 101 is equipped with sliding equipment support components 3 on the left, right and rear sides. The support plate 304 can be infinitely height adjusted and quickly locked by the support bar 301, locking pin 305 and spring 306. The support plate 304 can be used to carry large emergency equipment such as defibrillators and electric suction devices, so that the equipment can be transported in an integrated manner with the vehicle and directly used at the rescue site without the need for separate handling and assembly. This not only shortens the emergency preparation time, but also reduces the physical exertion of medical staff in transporting equipment.

[0060] The intelligent management hardware component 4 integrates a visual screen 401, layered RFID readers 402, and a bottom control host 403. It can automatically complete material inventory, screen for near-expiry and expired materials, and automatically generate traceable electronic ledgers, replacing manual item-by-item counting and handwritten registration. This simplifies shift handover processes and enables digital and refined management of emergency supplies. This invention integrates zoned storage, constant-temperature drug storage, vehicle-mounted equipment, and intelligent material management, offering significantly superior overall performance and clinical applicability compared to existing conventional emergency vehicles.

[0061] It should be noted that the control method of this invention is controlled by manually starting and stopping the switch. The wiring diagram of the power element and the supply of power are common knowledge in the field. Furthermore, since this invention is mainly used to protect mechanical devices, the control method and wiring layout will not be explained in detail.

[0062] The control method of this invention is automatic control through a controller. The control circuit of the controller can be implemented by simple programming by those skilled in the art. The power supply is also common knowledge in the art. Furthermore, this invention is mainly used to protect mechanical devices, so the control method and circuit connection will not be explained in detail. At the same time, the contents not described in detail in this specification are all prior art known to those skilled in the art.

[0063] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A zoned intelligent constant temperature visualization improved emergency rescue vehicle, characterized in that: include: Vehicle body (101); The six-layer partitioned storage structure includes, from the top to the bottom of the vehicle body (101), a first layer for medicines (103), a second layer for emergency liquids (104), a third layer for conventional consumables (105), a fourth layer for auxiliary consumables (106), a fifth layer for emergency equipment expansion (107), and a sixth layer for emergency resuscitation supplies (108). The sliding equipment support assembly (3) is respectively disposed on the left, right and rear sides of the vehicle body (101) for mounting the emergency equipment and supporting the emergency equipment to slide and be positioned in the vertical direction; The intelligent management hardware component (4) includes a visualization screen (401), an RFID reader (402), and a control host (403). The visualization screen (401) is fixed to the top of the vehicle body (101), the RFID reader (402) is installed in the storage structure of each layer of the vehicle body (101), and the control host (403) is installed at the bottom of the vehicle body (101). The visualization screen (401) and the RFID reader (402) are respectively connected to the control host (403). The constant temperature cooling component (2) includes a semiconductor cooling chip (204), a rechargeable battery pack (201), a temperature controller (202), and an alarm (203). The semiconductor cooling chip (204) is installed inside the vehicle body (101). A heat dissipation hole is provided on one side of the vehicle body (101) near the semiconductor cooling chip (204). The rechargeable battery pack (201), the temperature controller (202), and the alarm (203) are installed sequentially at the bottom of the vehicle body (101). The semiconductor cooling chip (204) is electrically connected to the rechargeable battery pack (201). The temperature controller (202) is controllably connected to the semiconductor cooling chip (204). The alarm (203) is signal-connected to the temperature controller (202).

2. The partitioned intelligent constant temperature visualization improved emergency rescue vehicle according to claim 1, characterized in that: The sliding device support assembly (3) includes: Support bars (301) are arranged in pairs. Each support bar (301) is fixed to the outside of the side wall of the vehicle body (101) in the vertical direction. The pairs of support bars (301) are arranged symmetrically from left to right or from front to back. The sliding plate (303) has two ends that are slidably engaged with the pair of support bars (301) via slide rails. The sliding plate (303) can slide up and down along the vertical direction of the support bars (301). A support plate (304) is rotatably connected between two sets of sliding plates (303) via a rotating shaft; The locking pin (305) is slidably disposed on the support plate (304) near the support bar (301); A spring (306) is fixedly connected between the locking pin (305) and the support plate (304); A connecting rod (307) is provided on the support plate (304) with a rectangular opening. The connecting rod (307) is located at the rectangular opening and both ends of the connecting rod (307) are fixedly connected to the locking pin (305). The support bar (301) has multiple sets of equidistantly arranged lock holes (302) adapted to the locking pin (305) on one side. One end of the locking pin (305) is a frustum structure, which is used to extend into the lock hole (302) to lock the support plate (304) at any height position of the support bar (301).

3. The partitioned intelligent constant temperature visualization improved emergency rescue vehicle according to claim 2, characterized in that: The truncated cone structure at one end of the locking pin (305) is a frustum of a cone or a truncated pyramid structure, and the locking hole (302) is a tapered hole or a circular through hole adapted to the frustum of the locking pin (305).

4. The zoned intelligent constant temperature visualization improved emergency rescue vehicle according to claim 2, characterized in that: The lower surface of the support plate (304) is provided with a hook, which is a hook or a hanging ring, for attaching emergency equipment.

5. The partitioned intelligent constant temperature visualization improved emergency rescue vehicle according to claim 1, characterized in that: The first layer of medicine-specific layer (103) is provided with five independent cloth bag compartments. The five independent cloth bag compartments are divided into five independent chambers by flexible material for independently fixing a single medicine. Each medicine compartment is provided with a high-risk medicine name identification area and an expiration date card slot. The vehicle body (101) is equipped with a temperature and humidity sensor, which is connected to the temperature controller (202).

6. The zoned intelligent constant temperature visualization improved emergency rescue vehicle according to claim 1, characterized in that: The fifth-layer emergency equipment expansion layer (107) has a greater capacity than the third-layer conventional consumables layer (105) and the fourth-layer auxiliary consumables layer (106); the sixth-layer bottom emergency resuscitation supplies layer (108) is fixedly equipped with a small portable oxygen cylinder and a chest compression plate.

7. The zoned intelligent constant temperature visualization improved emergency rescue vehicle according to claim 1, characterized in that: The top of the vehicle body (101) is provided with a tabletop functional component (109), which includes a small sharps box and an ampoule storage box fixedly installed on the right side of the tabletop of the vehicle body (101).

8. The partitioned intelligent constant temperature visualization improved emergency rescue vehicle according to claim 1, characterized in that: An infusion telescopic frame (110) is fixed at the corner of the vehicle body (101). A hook platform (111) is installed on the top of the infusion telescopic frame (110). The infusion telescopic frame (110) includes a fixed sleeve and a sliding tube. An elastic pin locking component is installed on the top of the fixed sleeve. The fixed sleeve is fixed at the corner of the vehicle body (101). The sliding tube is telescopically inserted into the fixed sleeve. A handle (102) is installed at the front top of the vehicle body (101).

9. The zoned intelligent constant temperature visualization improved emergency rescue vehicle according to claim 1, characterized in that: The rechargeable battery pack (201) is a lithium battery pack, the alarm (203) is an audible and visual alarm, the temperature controller (202) is a programmable temperature controller, and the casters at the bottom of the vehicle body (101) are medical silent casters with brakes.

10. The partitioned intelligent constant temperature visualization improved emergency rescue vehicle according to claim 1, characterized in that: The second layer of the emergency liquid-specific layer (104) is equipped with vertical corrugated dividers. The corrugated dividers are arranged in a gap for inserting liquid bottles or liquid bags. The spacing between each corrugated divider is adapted to the external dimensions of the liquid bottles or liquid bags.

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