Integrated blood sampling container

Abstract

The invention discloses an integrated blood sampling container, and aims to solve the problems that traditional blood sampling equipment is low in integration level and inconvenient to use. A three-layer stacked structure is adopted, the lower layer is a box body internally provided with a storage cabinet, the middle layer is an operation table integrating an interaction device, a heat sealing device and a blood sampling mechanism, and the upper layer is a storage assembly capable of being opened and closed. The storage assembly is connected with the box body through a first telescopic assembly, can ascend and descend and is provided with a holding structure and a first switch, a storage bin and a bin cover of the storage assembly are provided with object components, the bin cover can be turned over and is fixed through a positioning assembly, and the positioning assembly is clamped and fixed to a bin cover buckle through a telescopic rod of a second telescopic assembly of the box body. The box body is provided with universal wheels and a second telescopic assembly to facilitate movement, the storage box is provided with a detachable supporting plate, and a table cover above the operation table and a transparent plate guarantee use safety and convenience. According to the design, storage, operation and storage are integrated, the equipment occupied space and the transportation cost are reduced, the moving flexibility is improved, and the device is suitable for various scenes such as outdoor and batch blood sampling.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of blood collection equipment, in particular to an integrated blood collection container. BACKGROUND

[0002] In the medical field, especially in the blood collection scene, portable blood collection equipment plays a crucial role, and its application scenarios are widespread, covering large-scale activity sites, community health services, remote medical services, emergency public health event sites, and temporary blood collection points in blood stations. However, the current portable blood collection equipment has a series of problems to be solved, among which the poor integration is particularly prominent.

[0003] In common blood collection work, various instruments involved in the blood collection process, such as weighing devices after blood collection, heat sealing devices for sealing blood collection bags, etc., and in the blood collection process, blood collection needles, blood collection tubes, disinfection cotton balls, tourniquets, etc. are often needed, however, the above instruments and appliances are usually placed independently, making the blood collection site messy and affecting the smoothness of the blood collection process; from the perspective of space utilization and equipment storage, the poor integration of existing equipment is also very obvious. For example, in the emergency medical rescue scene, the space is usually very limited, and the blood collection equipment needs to be efficiently integrated and reasonably stored in a limited space. However, the existing blood collection boxes or equipment lack reasonable planning of internal space layout, and the storage module cannot fully utilize the space. For example, the patent document with publication number CN220404132U discloses a portable blood collection container, which is provided with a handrail assembly and a supporting assembly on the box body. The handrail assembly and the supporting assembly can be unfolded relative to the box body to support the box body or be retracted relative to the box body, improving the applicability of the portable blood collection equipment in use scenarios. However, the single-layer shelf of the handrail assembly when unfolded has limited use space, and the integration is poor, lacking storage space, making it difficult to store enough blood collection supplies and equipment in a limited space. In addition, during transportation, due to the low integration of the equipment, the scattered items are prone to collision and damage, and the transportation stability is poor, affecting the normal use of the equipment in emergency situations.

[0004] In summary, the existing portable blood collection equipment has poor integration, leading to inconvenient use and low efficiency, and cannot meet the needs of medical workers for efficient and convenient blood collection operations in different scenarios. Therefore, it is of great practical significance and urgency to develop a highly integrated portable blood collection container. SUMMARY

[0005] The present application provides an integrated blood collection container, aiming to solve the problems of poor integration of existing blood collection containers, inability to meet the needs of medical workers for efficient and convenient blood collection operations in different scenarios, etc.

[0006] The application provides an integrated blood collection container, which comprises a box body, a storage assembly, and a storage compartment and a cover.

[0007] Further, the storage assembly is connected to the box body through a first telescopic assembly, which is arranged in the box body and can be lifted relative to the box body, and the storage assembly is arranged at the telescopic end of the first telescopic assembly relative to the box body.

[0008] Further, the storage assembly comprises a storage box, the storage member comprises a storage groove and a storage rack, the storage box is provided with a storage compartment at the top, the storage compartment is internally provided with a plurality of storage grooves and / or storage racks of any size, the cover is connected to the storage compartment in an openable manner, and the cover is internally and / or externally provided with a plurality of storage grooves and / or storage racks of any size.

[0009] Further, the cover is reversibly arranged on the top of the storage box, and the integrated blood collection container is further provided with a positioning assembly for fixing the cover in a reversed open state.

[0010] Further, the box body is further provided with a second telescopic assembly, the telescopic end of the second telescopic assembly is provided with a handle and a second switch for controlling the locking of the second telescopic assembly, the second telescopic assembly comprises a telescopic rod, and the positioning assembly comprises a buckle arranged on the side of the cover away from the storage compartment and used for clamping and fixing the telescopic rod.

[0011] Further, the back side of the cover is provided with a clearance groove, the clearance groove is internally provided with a boss, the boss is provided with a buckle on each side of the side wall of the clearance groove, the second telescopic assembly is provided with a pair of telescopic rods, the buckle can be elastically retracted in the telescopic boss, the side of the boss provided with the buckle and the side wall of the clearance groove form a through groove for the telescopic rod, and the side of the buckle opposite to the telescopic rod is provided with an inclined guide surface.

[0012] Further, the inner side of the cover is provided with a reversible storage rack, the cover and the storage rack are rotationally connected through a rotating shaft, the inner side of the cover is further provided with a limiting piece abutting and supporting the storage rack, and the storage rack comprises a closed state abutting the cover and an open state abutting the limiting piece.

[0013] Further, the storage box is further provided with a detachable supporting plate.

[0014] Furthermore, the box is equipped with a storage cabinet with a door; the box is equipped with an operating table, which integrates an interactive device, a heat sealing device, and at least one blood collection mechanism. The blood collection mechanism includes a weighing device and an automatic buckle. The storage box is equipped with a table cover below it. When the storage box is closed, the table cover is fastened to the operating table.

[0015] Furthermore, the storage box is provided with a cover plate, which is opposite to the operating table, and the cover plate is provided with a transparent plate opposite to the interactive device.

[0016] The integrated blood collection container proposed in this invention comprises three parts: the bottom layer is the container body, the middle layer is an operating table integrated on the top surface of the container body, and the top layer is a storage component that can be opened and closed on top of the operating table. This three-layer stacked structure design breaks the traditional scattered layout of blood collection equipment containers and independent storage boxes. Through vertical spatial integration, it achieves integrated storage, operation, and storage functions within a limited volume. Simultaneously, the blood collection container has a more compact and rational structure. Based on conventional portable blood collection containers, it cleverly integrates the storage box, which would originally be used separately to store blood collection needles, blood collection tubes, sterile cotton balls, tourniquets, and other equipment, with the portable blood collection container. Through a reasonable spatial distribution combined with ingenious structural design, the blood collection container achieves a higher degree of integration, realizing true portability. Compared to traditional equipment, there is no need to purchase or carry separate storage boxes, reducing equipment procurement and transportation costs, and significantly improving the mobility of the equipment in scenarios without mechanical assistance. Attached Figure Description

[0017] To more clearly illustrate the technical solutions in the embodiments of the present invention, the accompanying drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is a perspective view of an integrated blood collection container provided in an embodiment of the present invention in its stowed state; Figure 2 This is a perspective view of an integrated blood collection container provided in an embodiment of the present invention in a towing state; Figure 3 A perspective view of an integrated blood collection container provided in an embodiment of the present invention with the storage components raised; Figure 4 A perspective view of an integrated blood collection container in a fully opened state, according to an embodiment of the present invention; Figure 5 A perspective view of an integrated blood collection container in a fully opened state, according to another embodiment of the present invention; Figure 6 A perspective view of the unfolded storage components of an integrated blood collection container provided in an embodiment of the present invention; Figure 7 A perspective view of the open shelf of an integrated blood collection container provided in an embodiment of the present invention; Figure 8 A schematic diagram showing the positioning state of the cover and telescopic rod in an integrated blood collection container provided in an embodiment of the present invention; Figure 9 This is a schematic diagram of the buckle structure in an integrated blood collection container provided in an embodiment of the present invention; Figure 10 This is a cross-sectional structural diagram of the buckle and telescopic rod in the snap-fit ​​state according to an embodiment of the present invention; Figure 11 for Figure 10 Enlarged cross-sectional diagram of the buckle and telescopic rod in the engaged state; Figure 12 for Figure 11 A schematic diagram of the structure with the middle clip detached from the cavity; Figure 13 This is a three-dimensional structural diagram of a tray provided in an embodiment of the present invention.

[0019] Explanation of reference numerals in the attached figures: 1. Integrated blood collection container; 2. Container body; 3. Storage cabinet; 4. Cabinet door; 6. Storage components; 7. Storage box; 8. Storage compartment; 9. Compartment cover; 10. Cover plate; 11. Tray; 12. Table cover; 13. Interaction device; 14. Heat sealing device; 15. Blood collection mechanism; 16. Weighing device; 17. Automatic latch; 18. Blood collection position; 20. First storage slot; 21. Second storage slot; 22. Third storage slot; 23. Shelf; 231. First placement area; 232. Second placement area; 25. Transparent panel; 26. Casters; 27. First telescopic... Components; 28. Second telescopic component; 281. Telescopic rod; 29. ​​Handle; 30. Second switch; 32. Limiting element; 33. Buckle; 34. Insert; 35. Card plate; 36. Card connector; 37. First positioning tooth; 38. Second positioning tooth; 39. Slide groove; 40. Finger insertion port; 41. Press button; 42. Elastic reset element; 43. Holding structure; 44. Relief groove; 45. Boss; 46. Through groove; 47. Guide surface; 48. Buckle; 49. Card slot; 50. First switch; 51. Cavity; 511. First opening; 512. Second opening. Detailed Implementation

[0020] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention.

[0021] It should be noted that the terms "setup" and "connection" should be interpreted broadly. For example, they can refer to direct setup or connection, or indirect setup or connection through centered components or centered structures.

[0022] Furthermore, in embodiments of this invention, terms such as "longitudinal," "lateral," "length," "width," "thickness," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer" are used to indicate orientation or positional relationships based on the orientation or positional relationships shown in the accompanying drawings, or in a conventional placement or usage state. These terms are merely for the convenience of describing the invention and simplifying the description, and do not indicate or imply that the structures, features, devices, or elements referred to must have a specific orientation or positional relationship, nor that they must be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the invention. In the description of this invention, unless otherwise stated, "a plurality of" means two or more.

[0023] The various specific technical features and embodiments described in the detailed embodiments can be combined in any suitable manner without contradiction. For example, different implementation methods can be formed by combining different specific technical features / embodiments. In order to avoid unnecessary repetition, the various possible combinations of the various specific technical features / embodiments in this invention will not be described separately.

[0024] This invention proposes a portable blood collection container 1, combined with an attached... Figures 1 to 4 As shown, the blood collection container's overall structure comprises three parts: the bottom layer is the container body 2, the middle layer is an integrated operating platform on the top surface of the container body 2, and the top layer is a storage component 6 that can be opened and closed on top of the operating platform. This three-layer stacked structure design breaks away from the traditional dispersed layout of the blood collection equipment container body 2 and independent storage boxes. Through vertical spatial integration, it achieves integrated storage, operation, and storage functions within a limited volume, greatly reducing the space occupied by the equipment. This provides convenient conditions for outdoor and mobile blood collection scenarios (such as community screening and disaster relief), and solves the cumbersome problem of having to carry the container body 2 and storage box separately when transporting traditional equipment. like Figure 4As shown, the interior of the cabinet 2 is hollow and can be used as a storage cabinet 3. The storage cabinet 3 has a door 4 on one side. The hollow structure makes full use of the internal space of the cabinet 2 to store equipment that is not frequently used during blood collection (such as spare blood collection device 15, cleaning tools) or bulk consumables (such as boxes of blood collection tubes, disinfection supplies), avoiding mixing of frequently used and spare items. The single-sided door 4 design makes it easy for operators to take and put in items from a fixed direction, reducing the range of limb movement during operation and improving the efficiency of retrieving items. At the same time, the door 4 can effectively isolate external dust and moisture, protect the internal items from contamination, and extend the shelf life of consumables and the service life of equipment. Combined with appendix Figure 3 , 4 As shown, the operating table is located on the top surface of the housing 2. Various blood collection instruments, such as the interactive device 13, the heat sealing device 14, and the blood collection mechanism 15, are integrated on the operating table. The blood collection process is mainly completed on the operating table. By centrally integrating the core blood collection instruments on the operating table, one-stop blood collection operation is achieved. Operators do not need to move between different devices and can complete the entire process, including information entry (interactive device 13), blood collection tube sealing (heat sealing device 14), and blood collection (blood collection mechanism 15), on the same table. This significantly shortens the operation path and improves the efficiency of single blood collection, making it especially suitable for batch blood collection scenarios. At the same time, the integration of instruments reduces the exposure of connection lines between devices, reduces the risk of wire tangling and damage, and improves the overall safety and cleanliness of the equipment. like Figures 1 to 4 As shown, the uppermost storage component 6 is connected to the box 2 in an openable manner. That is, the storage component 6 is set on the operating table and the operating table can be opened or closed. When blood collection is performed, the storage component 6 is opened to expose the operating table for blood collection. When the operation is completed, the storage component 6 can be dragged to close the operating table. The storage component 6 is equipped with a storage compartment 8 and a cover 9. The storage component 6 is used as a storage box. Various storage components can be set on the storage compartment 8 and the cover 9 to store various instruments such as blood collection needles, blood collection tubes, sterile cotton balls, tourniquets, etc. Its core advantage lies in its dual function: on the one hand, the operating table can be exposed by opening the storage component 6 during operation, without the need for additional disassembly or assembly of parts. The operation steps are simple, and even non-professionals can quickly get started. On the other hand, the storage component 6 can be closed after operation to completely cover the operating table, forming a protective cover to prevent instruments from being damaged by collisions, dust contamination, or rainwater erosion, thus solving the problem of traditional operating tables being exposed and easily damaged. At the same time, the storage components of the storage compartment 8 and the cover 9 can classify and store small consumables, preventing the loss of scattered items such as blood collection needles and tourniquets, ensuring orderly access to consumables, and reducing the time wasted in searching for consumables. This structural design makes the blood collection container more compact and rational. Based on a conventional portable blood collection container, a clever structural design integrates the storage box, which would normally be used separately to store blood collection needles, tubes, sterile cotton balls, tourniquets, etc., with the portable blood collection container. Through a reasonable spatial distribution and ingenious structural design, the blood collection container achieves a higher degree of integration, realizing true portability. This integrated setup reduces costs and increases efficiency: compared to traditional equipment, there is no need to purchase or carry separate storage boxes, reducing equipment procurement and transportation costs; at the same time, the integrated structure makes the overall weight of the equipment more controllable, allowing a single person to push or move it (with the subsequent design of 26 omnidirectional wheels), solving the problem of traditional distributed equipment relying on multiple people for handling, and significantly improving the mobility of the equipment in scenarios without mechanical assistance. In a specific embodiment, the storage component 6 and the housing 2 are connected by a first telescopic component 27. The first telescopic component 27 is formed by setting one, a pair, or more sets of telescopic rods 281 on the housing 2. The upper end of the first telescopic component 27 is the telescopic end, and the storage component 6 is installed on the telescopic end of the first telescopic component 27. This allows the storage component 6 to move up and down above the housing 2. By connecting the housing 2 and the storage component 6 through the first telescopic component 27, the storage component 6 can be raised and lowered. When the storage component 6 rises to near or reaches its limit position, the operating table is in an open state. Correspondingly, when the storage component 6 descends to a state that is in contact with the operating table surface, the operating table is covered by the storage component 6, thus closing the storage component 6 and the housing 2. The telescopic component enables opening and closing, offering advantages over traditional 9-type or pull-out covers: First, the lifting process is smooth, preventing vibration and displacement of the control panel instruments due to gravity impact when the storage component 6 opens and closes, thus protecting precision instruments (such as the interactive device 13 screen); second, the height of the storage component 6 can be adjusted according to the operator's height, making the control panel height suitable for different users, improving operational comfort, and reducing fatigue caused by prolonged bending; third, the single / multiple telescopic rods 281 design can flexibly adapt to different load-bearing requirements, and multiple telescopic rods 281 can further improve the stability of the storage component 6 during lifting and lowering, preventing unilateral tilting. Furthermore, at least one side of the storage component 6 is provided with a grip structure 43. Ideally, one grip structure 43 is provided on each of the opposite sides of the storage component 6. The grip structure 43 is used for inserting fingers to facilitate upward lifting. The design of the grip structure 43 optimizes the user experience; the depth and width of the grip structure 43 are adapted to the size of an adult's fingers, preventing slippage or pressure when inserting fingers and improving operational safety. (See attached...) Figure 1 , 2 As shown in Figures 3, 4, and 7, in one embodiment, the grip structure 43 can be designed as a protruding handle; it can also be in another embodiment (such as...). Figure 5The slotted intercalation structure shown in the figure.

[0025] Furthermore, to achieve the positioning of the storage component 6 (mainly at its raised limit position), the present invention adds a first switch 50 to the storage component 6 for control. In a preferred embodiment, the first telescopic component 27 and the first switch 50 adopt a pull rod structure, similar to a suitcase pull rod. The structure consists of a fixed base, a telescopic rod 281, a control component, and auxiliary structures. Each module has a clear division of labor and works closely together to support the lifting operation of the storage component 6. This mature structural design, similar to a suitcase pull rod, ensures the stability and reliability of the device, reduces development risks, and allows users to quickly master the operation based on their existing experience. Preferably, the fixed base is the core of the connection between the pull rod and the housing 2. It consists of a base shell made of ABS plastic or metal, screws / rivets for reinforcement, and a guide sleeve with a wear-resistant coating on the inner wall. The base shell is embedded inside the housing 2 and fixed to the housing 2 by screws / rivets to ensure that the pull rod does not deviate or loosen when it is lifted. The guide sleeve is installed at the junction of the base and the telescopic rod 281, which not only restricts the extension direction of the rod (above the housing 2) to avoid jamming, but also reduces the direct friction between the tube and the base, thus extending the service life. The design of the fixed base focuses on stability and durability: ABS plastic is lightweight and impact-resistant, while metal materials (such as stainless steel) are suitable for high-load-bearing scenarios. Both materials are available to suit different usage needs. Screws / rivets ensure a seamless connection between the base and the housing 2, preventing wobbling during lifting and protecting the operating table instruments. The wear-resistant coated guide sleeve is optimized from two dimensions: preventing jamming and reducing wear. Limiting the extension direction can prevent jamming caused by rod deviation and reduce the probability of operation interruption, while reducing friction can reduce wear on the rod and base, extend the overall service life of the extension component, and reduce long-term use costs. The telescopic pole 281 adopts a nested design, primarily consisting of 2-3 sections. It is mainly made of lightweight yet strong aluminum alloy, serving as the load-bearing base and connecting to the fixed base. The middle tube has a slightly smaller diameter and can slide within the outer tube. The innermost tube is the thinnest, connecting to the storage component 6 at the top. The core advantages of the nested structure are its large telescopic ratio and light weight: the 2-3 section design allows for a large extension height within a limited retracted length, meeting the lifting and lowering needs of the storage component 6 in different operating scenarios (e.g., retracting for storage in low-ceilinged spaces and extending for operation in spacious areas); the aluminum alloy material combines lightweight and load-bearing capacity, reducing weight by more than 30% compared to the traditional steel telescopic pole 281, facilitating overall equipment movement while stably supporting the weight of the storage component 6 and internal consumables, preventing the pole from bending or deforming; furthermore, the nested arrangement of tubes of different diameters ensures smooth telescopic movement without significant wobbling. The control component, namely the first switch 50, is key to achieving the locking function. It employs a linkage structure of a button, spring, and steel ball, similar to the press-lock logic of a ballpoint pen. The control button is located on the upper surface of the storage component 6 and is connected to the spring via a connecting rod. In its natural state, the spring is extended, pushing the steel ball (usually installed at the top of the middle tube) into a pre-set positioning hole in the outer tube or the inner wall of the middle tube, fixing the rod in the corresponding position. When the button is pressed, the spring compresses, the steel ball disengages from the positioning hole, the rod unlocks, and can extend and retract freely. After the button is released, the spring returns to its original position, pushing the steel ball back into the positioning hole, completing the locking process. The advantages of this control structure are its simple operation and reliable locking: the press-to-lock logic conforms to users' daily usage habits (such as ballpoint pens and gel pens), and can be mastered without additional learning, reducing the operating threshold; the linkage design of the spring and steel ball can achieve instant locking, and the rod can be fixed after releasing the button, preventing the storage component 6 from accidentally rising or falling during operation and ensuring the stability of the operating table; at the same time, the contact area between the steel ball and the positioning hole is small, the friction during locking and unlocking is small, the operation is smooth, and it is not easy to get stuck after long-term use. In the initial state, the steel ball is engaged in the positioning hole, and the pull rod is in the shortest locked position. Pressing the first switch 50 compresses the spring, disengages the steel ball from the positioning hole, and unlocks the rod. At this point, the storage component 6 can be pulled upwards or pressed downwards to adjust to the desired length. Releasing the first switch 50 resets the spring, pushing the steel ball back into the corresponding positioning hole, locking the pull rod and providing stable load-bearing capacity for daily lifting needs. To retract the rod, simply press the first switch 50 and press downwards repeatedly to reset it, facilitating the storage of the blood collection container. The process from initial to operational status requires only three steps: pressing, pulling, and releasing. Similarly, the process from operational to storage status requires only three steps: pressing, pressing, and releasing, resulting in high operational efficiency. Furthermore, the height of the storage component 6 can be adjusted according to actual needs (not just the extreme position). For example, if the operator is short, the storage component 6 can be adjusted to a half-height position, which neither obstructs the operating table nor reduces the reach, improving user comfort. The downward pressing design during reset facilitates storage without the need for additional pulling or disassembly, allowing for single-person operation. In other alternative embodiments, besides the mainstream ball-bearing button structure, the first switch 50 can also be designed as a rotary lock type (i.e., the first switch 50 is set as a knob, and the buckle 33 is unlocked by rotating the knob, which has stronger load-bearing capacity). The core principle remains the same, with only slight differences in the control method. The advantage of providing multiple switch options is strong scene adaptability: the ball-bearing button type is suitable for light to medium load-bearing, high-frequency operation scenarios (such as daily blood collection in the community), prioritizing ease of operation; the rotary lock type is suitable for heavy load-bearing scenarios (such as storing a large amount of consumables in the storage component 6), where the locking force of the buckle 33 structure is stronger, avoiding accidental unlocking caused by long-term load-bearing and improving equipment safety; the core principle of the two solutions is the same, and they can be quickly switched based on user needs during production without changing the overall structure of the telescopic component, reducing customization costs. Furthermore, in conjunction with the appendix Figures 2 to 8 As shown, the storage component 6 of this invention includes a storage box 7, with a storage compartment 8 on the top of the storage box 7. A cover 9 is provided on the outside of the storage compartment 8, and the cover 9 and the storage compartment 8 are closable. To improve the storage capacity of the blood collection container and to standardize the storage of various equipment required during the blood collection process, this application innovatively designs the internal space layout of the storage box 7. Firstly, several storage slots are provided inside the storage compartment 8. These storage slots vary in size, primarily to accommodate the storage of various items. For example, a large first storage slot 20 for storing collection tubes is provided in the middle of the storage compartment 8. This first storage slot 20 contains items for placing collection tubes. The collection tube rack 23 (or several small slots can be provided separately to accommodate the insertion of the collection tubes) is provided on one side of the first collection slot 20. Two second collection slots 21 are arranged side-by-side, with the second collection slot 21 closer to the blood collection staff. The second collection slot 21 has a few slots for inserting collection tubes and also provides space for auxiliary equipment (such as bandages, labels, iodine, disinfectant cotton balls, tourniquets, etc.). Additionally, a third collection slot 22 can be provided next to the first collection slot 20. The third collection slot 22 mainly serves as an extended area for placing auxiliary equipment, such as relatively large auxiliary equipment that may interfere with blood collection. The above-mentioned partitioning of the storage compartment 8 does not impose specific limitations. In actual use, the size, number, and position of each collection slot can be reasonably designed according to actual needs. During use, various equipment can be arranged reasonably, taking into account both convenience and functionality. The advantages of this differentiated partitioned storage design are significant: First, it is size-adaptable, with different sized slots precisely matching different consumables (e.g., the first slot 20 is suitable for a row of blood collection tubes, and the second slot 21 is suitable for a single blood collection tube and small auxiliary equipment), avoiding the compression and deformation of consumables (e.g., broken blood collection tubes or tourniquet entanglement); second, it optimizes the workflow, with the second slot 21 close to the operator for quick access to high-frequency consumables (e.g., sterile cotton balls and blood collection needles), the first slot 20 storing spare blood collection tubes, and the third slot 22 storing interfering equipment, achieving spatial separation of commonly used, spare, and interfering items, reducing visual obstruction and physical interference when retrieving items, and improving operational efficiency; third, it is flexible and adjustable, with no fixed partition restrictions, adapting to different blood collection scenarios (e.g., additional space is needed for storing bandages during routine physical examinations), improving the equipment's versatility. In an optional embodiment, such as Figure 6 , 7As shown, the opening and closing method of the cover 9 and the storage compartment 8 is a flip-type. The cover 9 is rotatably connected to the storage box 7 via a hinge. The cover 9 and the storage compartment 8 have two states: open or closed. When blood is collected, the cover 9 can be flipped open, or the cover 9 can be rotated to close the storage compartment 8. Meanwhile, the inner surface of the cover 9 is also provided with some storage components for placing auxiliary equipment. The storage components include, but are not limited to, storage rack 23, storage slot, storage compartment, net bag, etc. In this embodiment, storage rack 23 is selected. Storage rack 23 and cover 9 are connected by a rotating shaft. Storage rack 23 includes a closed state that fits against cover 9 and an open state that abuts against limiting member 32. On the inner side of cover 9, there is also a limiting member 32 that abuts against and supports storage rack 23. Storage rack 23 includes a closed state that fits against cover 9 and an open state that abuts against limiting member 32. Referring to Figure 3, limiting member 32 is set as a strip-shaped plate as a stop for storage rack 23 to the extreme position of downward tilting, so as to ensure that storage rack 23 is at its extreme position when tilted down to the horizontal position, which is convenient for placing blood collection tubes during blood collection. The advantage of the flip-top cover 9 lies in its high space utilization: compared to the pull-out cover 9, it does not require additional side space when flipped open, making it suitable for narrow blood collection scenarios (such as inside a vehicle or small room); the storage components on the inner surface of the cover 9 enable secondary storage expansion, upgrading the cover 9 from a simple protective cover to a temporary storage platform. In particular, when the storage rack 23 is opened horizontally, blood collection tubes can be placed directly, reducing the space occupied by the operating table and preventing the blood collection tubes from directly contacting the operating table surface, thus reducing the risk of contamination; the strip-shaped plate limiting component 32 can precisely control the opening angle of the storage rack 23, ensuring that it remains horizontal, preventing the blood collection tubes from slipping, and improving the safety of use. In other embodiments, the storage components inside the cover 9 can also be mesh bags, storage slots, or storage compartments, etc. The openings of these storage components all face upwards when the cover 9 is open, which facilitates the handling of items and prevents items from falling. The advantage of having multiple storage components is that they are highly adaptable to consumables: mesh bags are suitable for storing flexible consumables (such as tourniquets and disinfectant wipes) to prevent them from scattering; storage slots are suitable for storing hard, small consumables (such as lancets and labels) to prevent them from rolling; and storage compartments are suitable for classifying and storing various small consumables, allowing one item per compartment. The upward-facing design conforms to the direction of gravity, so there is no need to flip the cover 9 when taking things out, making the operation natural and effectively preventing items from falling due to vibration or tilting, ensuring the safety of consumables.

[0026] In other alternative embodiments, the limiting member 32 can also adopt other forms of stops, such as rods, protrusions, etc. The advantage of the flexible form of the limiting member 32 is the convenience of production and maintenance: rods are simple to process and have low cost, while protrusions occupy little space and can be adapted according to the internal structure of the compartment cover 9; if the limiting member 32 is damaged, only the corresponding stop needs to be replaced, without replacing the entire compartment cover 9 or the shelf 23, reducing maintenance costs and difficulty.

[0027] Furthermore, the shelf 23 inside the cover 9 includes a first placement area 231 and second placement areas 232 located on both sides of the first placement area 231. The first placement area 231 is located directly above the interactive device 13, and each blood collection mechanism 15 is provided with a corresponding second placement area 232. Both the first placement area 231 and the second placement area 232 are provided with several slots for inserting blood collection tubes. The above-mentioned partitioned layout is a deep optimization based on the blood collection operation process, personnel collaboration efficiency, and sample safety requirements. It can adapt to the two-person synchronous blood collection process, eliminate operational interference, and improve operational efficiency. The partitioning of the shelf 23 inside the cover 9 corresponds completely to the layout of the interactive device 13 in the middle of the operating table and the blood collection mechanisms 15 on both sides. The first placement area 231 is precisely aligned with the top of the interactive device 13, and the two second placement areas 232 are respectively matched with the blood collection positions 18 on both sides, forming a closed loop of one person, one area, and one dedicated storage. This correspondence directly solves the pain points of traditional non-zoned shelving units 23, where two people compete for space and their retrieval routes intersect. Blood collection personnel on both sides can independently retrieve high-frequency consumables such as blank blood collection tubes and sterile cotton balls from their dedicated second placement area 232 without having to cross the middle area or wait for each other, thus avoiding physical collisions and interference. Moreover, the first placement area 231 can only store unmarked blank blood collection tubes, and with the interactive device 13, information can be entered in real time, preventing blank tubes from being mixed with blood collection tubes and preventing sample traceability failure due to unrelated information. The second placement area 232 (dedicated area for immediate blood collection storage): one side stores blank tubes to be used at the blood collection position 18, and the two second placement areas 232 are independent, completely eliminating cross-contamination of samples from different blood collection positions 18.

[0028] Therefore, the portable blood collection container proposed in this invention constructs a three-dimensional layout system with central interactive control, dual-side parallel collection, and top integrated storage. Through deep adaptation of structural design and operational logic, it achieves a comprehensive improvement in collection efficiency. The central part of the operating table integrates an interactive device, with a heat sealing device above it. The two sides are symmetrically arranged with blood collection mechanisms including weighing devices and automatic locking mechanisms. This layout directly establishes the foundation for dual-station parallel operation, supporting two operators to carry out blood collection work simultaneously. Core operations such as information interaction, sample weighing, and locking can be completed without cross movement. This breaks through the efficiency bottleneck of traditional single-station operation mode and significantly increases the blood collection throughput per unit time. The storage components above the operating table adopt a layered and partitioned directional design. In addition to the first storage slot facing the interactive device, the second storage slot corresponding to the blood collection mechanisms on both sides, and the third storage slot on the side, there is also a flip-up storage rack inside the cover. The blood collection tubes are classified and positioned through dedicated slots. At the same time, dedicated space is reserved for auxiliary equipment, so that the operator can reach out and get the necessary consumables and tools during the blood collection process, which completely shortens the operation line and reduces the waiting time caused by retrieving and placing items from a distance.

[0029] In addition, the storage component is height-adjustable through the first telescopic component, and with the detachable tray and the cover with a transparent plate, it not only ensures the visibility of interactive operation, but also enables flexible adaptation and quick debugging of functional components, further simplifying the work process and reducing the probability of human error. This invention not only solves the problems of low efficiency and long operation lines of single workstations, but also ensures the orderly operation through classification and modular adaptation, ultimately forming a structured solution that adapts to large-scale and high-efficiency blood collection scenarios, providing core support for improving the efficiency of portable blood collection equipment.

[0030] Furthermore, to ensure that the cover 9 does not automatically close when it is flipped open, the present invention also requires a positioning component to fix the cover 9 in the flipped open state. The positioning component can be implemented using a traditional damping structure (such as a damping hinge), or by the cover 9 rotating to its limit position and abutting against the storage box 7. Alternatively, existing snap-fit ​​positioning structures can be directly applied to the cover 9. In the embodiments of the present invention, the positioning component is designed more ingeniously, relying mainly on the inherent second telescopic component 28 of the blood collection container and the added snap-fit ​​structure 33. The core advantage of this leveraged positioning design lies in its structural integration: it eliminates the need for additional independent positioning devices (such as hydraulic rods or spring locks), directly utilizing the inherent components of the equipment (the second telescopic component 28), reducing the number of parts, equipment weight, and production costs. Simultaneously, the snap-fit ​​structure has high positioning reliability. Compared to damping structures (which are prone to damping failure with long-term use), the mechanical locking method of the snap-fit ​​33 is more durable, preventing the cover 9 from automatically closing due to insufficient damping during operation, ensuring operator safety. The second telescopic component 28 is a traditional feature of portable blood collection containers. Traditional portable blood collection containers have casters 26 added to the bottom of the container 2 for rolling, which is achieved by using the second telescopic component 28 on the container 2 for dragging. The working principle is similar to that of a suitcase. The second telescopic component 28 can directly use a traditional suitcase handle structure. In short, the telescopic end of the second telescopic component 28 has a handle 29 and a second switch 30 for locking the second telescopic component 28 (refer to the first telescopic component 27 or suitcase handle). The second telescopic component 28 includes a telescopic rod 281, which will not be elaborated further here. The advantage of using a traditional, mature structure is reduced R&D and usage costs. Traditional suitcase handle structures have mature manufacturing processes, stable supply chains, and low procurement and production difficulties, allowing for rapid mass production. At the same time, users are already very familiar with the operating logic of this structure (such as pressing the switch to extend or retract, and shaking to drag), and can master the device dragging method without additional training, increasing user acceptance. The combination of the casters 26 and the second telescopic component 28 allows the device to be moved easily. Compared to traditional wheelless devices, it can be pushed by a single person, significantly reducing the intensity of handling. The positioning structure in this invention is designed based on existing constructions, combined with the attached... Figures 8 to 12 As shown, the positioning structure mainly includes a buckle 33 located on the side of the cover 9 facing away from the storage compartment 8. The buckle 33 is used to engage and fix with the telescopic rod 281. When the second telescopic component 28 is dragged to the predetermined position, the second telescopic component 28 does not retract. After the storage component 6 is pulled up to the limit position, the cover 9 is flipped open. The buckle 33 on the cover 9 engages with the telescopic rod 281, thus fixing the cover 9 in the flipped-open position. By combining the fixed position of the second telescopic component 28 with the positioning requirements of the cover 9, there is no need to activate the positioning structure separately. The positioning of the cover 9 can be achieved simply by placing the equipment (dragging it into place) and adjusting the storage component 6 (pulling it up to the limit), reducing the extra actions of the operator and improving the overall work efficiency. At the same time, the snap-fit ​​fixing method ensures that the cover 9 remains open during the blood collection process, preventing the cover 9 from accidentally closing and obstructing the operating table or interfering with the blood collection operation, thus ensuring the continuity of the operation. Specifically, in conjunction with the appendix Figure 2 , 8 As shown, the back of the compartment cover 9 is provided with a clearance groove 44, and a boss 45 is provided inside the clearance groove 44. A buckle 33 is provided on each side of the boss 45 opposite to the side wall of the clearance groove 44. The second telescopic assembly 28 is provided with a pair of telescopic rods 281. The buckles 33 are located inside the boss 45. A through groove 46 is formed between the side of the boss 45 with the buckles 33 and the side wall of the clearance groove 44 for the telescopic rods 281 to pass through. A beveled guide surface 47 is provided on the side of the buckles 33 outside the through groove 46. When the compartment... After the cover 9 is flipped to the position where it abuts against the telescopic rod 281, the two telescopic rods 281 pass through the grooves 46 on both sides of the boss 45. At the same time, the beveled surface of the buckle 33 comes into contact with the rod body of the telescopic rod 281, and the rod body is squeezed into the groove 46 to complete the locking and fixing of the rod body and the cover 9. The buckle 33 is an extension of the boss 45 outward. The buckle 33 itself has a certain degree of elasticity. When it needs to be removed, the cover 9 can be removed from the rod body by simply pulling it out.

[0031] In the first alternative embodiment, such as Figure 10 , 11As shown in Figure 12, the snap-fit ​​connector 36 is assembled with the boss 45 via a quick-release mechanism. The boss 45 has two identical cavities 51, each containing a corresponding quick-release snap-fit ​​33. Each cavity 51 has two openings: a larger opening facing the inside of the cover 9 (first opening 511), and a smaller opening facing the through-slot 46 (second opening 512). Correspondingly, the snap-fit ​​33 includes an insert 34, a locking plate 35, a snap-fit ​​connector 36, a first positioning tooth 37, and a second positioning tooth 38. The insert 34 is the main part of the snap-fit ​​33 that is embedded in the cavity 51. The size of the insert 34 is slightly smaller than the larger opening on the inside of the cover 9, facilitating insertion. One end of the insert 34 has a protruding snap-fit ​​connector 36. The main body that engages with the rod has a locking connector 36 facing the through groove 46, and a guide surface 47 on the locking connector 36. When the insert 34 is inserted into the cavity 51, the locking connector 36 passes through the opening of the cavity 51 in the through groove 46 and into the through groove 46. The first positioning tooth 37 and the second positioning tooth 38 are respectively located on opposite sides of the insert 34, and the locking plate 35 is located on the side of the insert 34 facing the inside of the compartment cover 9. The size of the locking plate 35 is larger than the opening of the cavity 51 in the inside of the compartment cover 9, so that the locking plate 35 can be correctly locked onto the outside of the cavity 51. The first positioning tooth 37 and the second positioning tooth 38 form a gap with the locking plate 35 to lock onto the outer wall of the cavity 51. The side of the first positioning tooth 37 and the second positioning tooth 38 away from the locking plate 35 can be set as a bevel to better press into the cavity 51. When installing the buckle 33, simply insert the buckle 33 into the opening of the cavity 51 from the inside of the cover 9. First, insert the connector 36 and make it protrude from the opening of the groove 46 in the cavity 51. Then, press the insert 34 into the cavity 51. Finally, press the plate 35, and the first positioning tooth 37 and the second positioning tooth 38 will be pressed into the cavity 51. The plate 35 will be engaged with the outside of the cavity 51 and form a snap-fit ​​fixation on the outer wall of the cavity 51. This achieves quick installation of the buckle 33 and the boss 45. The operation is quick and convenient, and the connector 36 can be replaced, extending the service life of the storage component 6.

[0032] Furthermore, an additional set of elastic reset structures can be added to achieve quick disengagement of the buckle 33 from the rod. In this embodiment, based on the first embodiment, a groove 39 is further provided on the insert 34. The snap-fit ​​connector 36 is slidably disposed in the groove 39, and the guide of the groove 39 is towards the rod. A finger insertion port 40 is also provided on the side of the insert 34 located on the cover 9. The finger insertion port 40 is connected to the groove 39. A pressing button 41 is also provided on the snap-fit ​​connector 36. The pressing button 41 is exposed relative to the finger insertion port 40, and the pressing button 41 only occupies a part of the space of the finger insertion port 40. The remaining space is used for inserting a finger into the finger insertion port 40 to press the pressing button 41. In addition, an elastic reset element 42 (such as a spring) is added in the groove 39. The elastic direction of the elastic reset element 42 is the guide of the groove 39. One end abuts against the end of the slide groove 39, and the other end abuts against the pressing button 41. The elastic reset member 42 applies an outward force to ensure that the locking connector 36 abuts against the rod. After blood collection is completed, only the finger needs to be inserted into the finger insertion port 40 and the pressing button 41 is squeezed to drive the locking connector 36 to retract inward along the slide groove 39, so that the elastic reset member 42 is compressed and the buckle 33 can be disengaged from the rod. The cover 9 is normally closed. After the squeezing is released, the locking connector 36 will naturally extend into the passage groove 46 under the action of the elastic reset member 42. When the cover 9 is opened again, the rod squeezes the buckle 33 and compresses it into the boss 45. When the telescopic rod 281 is fully inserted into the passage groove 46, the buckle 33 extends out under the action of the elastic reset member 42 (spring), thereby restricting the telescopic rod 281 in the passage groove 46 and completing the flipping and positioning of the cover 9. The unlocking design balances safety and convenience: the simultaneous pressing of two buttons effectively prevents accidental operation. If only one button is pressed, the latch 33 cannot retract, thus preventing the cover 9 from suddenly unlocking and closing due to accidental button press during blood collection. The button is located inside the cover 9, which makes it easy for operators to quickly find the operating position when the cover 9 needs to be closed, and also avoids accidental pressing caused by external collisions, improving safety. In addition, the integrated design of the button and latch 33 reduces the number of parts connection links, lowers the probability of structural failure, and ensures the synchronicity and reliability of the unlocking action.

[0033] The core advantages of the buckle 33 structure design are automatic engagement and precise positioning. The oblique guide surface 47 guides the telescopic rod 281 smoothly into the slot 46 without requiring precise alignment by the operator, thus reducing the difficulty of operation. The elastic contraction and reset process of the buckle 33 is completed automatically without manual control, achieving positioning upon insertion. At the same time, the corresponding design of a pair of buckles 33 and a pair of telescopic rods 281, with the parallel sliding directions of the two pressing buttons 41, can fix the compartment cover 9 from both sides simultaneously. Even if the operator accidentally bumps the compartment cover 9, it is not easy to shift, avoiding tilting of the compartment cover 9 due to unilateral force, and ensuring positioning stability.

[0034] In addition to the above-mentioned application scenario where the storage component 6 can be opened and closed and set on the top of the operating table, it can also be applied in the scheme where the storage component 6 is set separately from the box body 2. Simply place the storage component 6 on top of the blood collection container and open the cover 9 to engage with the standard-sized pull rod.

[0035] Furthermore, such as Figures 1 to 4 As shown, in this invention, the interactive device 13 of the operating table is placed in the middle position, and a blood collection position 18 is provided on each side of the interactive device 13. Each blood collection position 18 is equipped with a set of blood collection mechanisms 15. The blood collection mechanism 15 includes a weighing device 16 and an automatic buckle 3317. A heat sealing device 14 is provided on the top of the interactive device 13, thereby forming a multi-position layout in terms of spatial arrangement, realizing multi-person zoned synchronous blood collection. Correspondingly, the interior of the storage compartment 8 is also symmetrically divided into zones, that is, the second storage slot 21 corresponds to the distribution of the blood collection positions 18, and one blood collection position 18 corresponds to a set of second storage slots 21, thereby avoiding confusion during the blood collection process. The advantage of a multi-position layout is that it improves blood collection efficiency and avoids cross-interference: the two blood collection positions 18 on both sides can serve two examinees at the same time, which is nearly twice as efficient as the traditional single blood collection position 18 equipment, and is especially suitable for batch blood collection scenarios such as community screening and corporate physical examinations; the interactive device 13 is centrally located, which makes it easy for operators to quickly switch between the two blood collection positions 18 (such as entering information and controlling the heat sealing device 14), shortening the operation path; the one-to-one correspondence between the blood collection mechanism 15 and the storage compartment 8 ensures that the range of consumables that can be taken from each blood collection position 18 is fixed, avoiding the risk of consumables confusion or contamination caused by cross-taking by operators of different blood collection positions 18, and at the same time, it is easy to quickly count consumables after the operation, improving the efficiency of sorting. Correspondingly, in conjunction with the appendix Figure 4 , 6 As shown in Figure 13, the present invention also includes a detachable tray 11 on the storage box 7. In this embodiment, a tray 11 corresponding to the blood collection area is provided on each side of the storage box 7. The tray 11 provides support for the person being blood collected, improving the comfort of blood collection. The core value of the tray 11 design lies in optimizing the experience of the examinee: In traditional blood collection, the examinee's arm usually needs to be suspended in the air or rest on the operator's legs. Maintaining the same posture for a long time can easily cause soreness. The tray 11 provides stable support for the arm, reducing muscle tension, which is especially suitable for children, the elderly, or scenarios where blood collection takes a long time. At the same time, the corresponding design of the trays 11 on both sides and the blood collection positions 18 on both sides ensures that two examinees can sit comfortably at the same time without interfering with each other, further improving the orderliness of batch blood collection. Moreover, the tray 11 can also be used for activities such as signing. Furthermore, the tray 11 can be raised and lowered relative to the operating table along with the storage box 7, thus adapting well to collectors of various systems and improving collection efficiency. Preferably, in this invention, a slot 49 is provided on the upper surface of the storage box 7, and a buckle 48 is provided on the bottom of the tray 11. The tray 11 can be installed on the storage box 7, and can be removed directly when disassembling. The removed tray 11 can be placed in the storage cabinet 3. The advantages of the detachable structure of the buckle 48 and the slot 49 are flexible storage and space saving: during installation, only the buckle 48 needs to be aligned with the slot 49 and inserted, without the need for tools, and the operation is simple; after disassembly, it can be placed in the storage cabinet 3 to avoid damage or loss caused by the tray 11 being exposed, while reducing the overall volume of the equipment when stored, which is convenient for transportation; in addition, the structure is stable, the tray 11 has a strong load-bearing capacity, and the patient's arm is not easy to shake when placed, ensuring the stability of the blood collection process. like Figures 1 to 4 As shown, a table cover 12 is located below the storage box 7. The table cover 12 is part of the storage box 7. The table cover 12 can avoid obstructing the equipment on the operating table, thus ensuring that when the storage box 7 is closed, the table cover 12 can be tightly fastened to the operating table to form a relatively closed system, thereby meeting the functional requirements of dust and water protection. The key advantages of the table cover 12 design are sealing protection and extended equipment life: the precise avoidance design between the table cover 12 and the equipment on the operating table avoids collisions between the storage box 7 and the instruments when closed, protecting precision equipment such as the interactive device 13 and the heat sealing device 14 from damage; the tightly fastened closed space can effectively block external dust, rain or liquid splashes, which is especially suitable for outdoor mobile blood collection scenarios (such as community blood collection in rainy weather, field rescue), prevents short circuits in the internal wiring of the equipment or contamination of the instruments, reduces the probability of equipment failure, extends service life, and reduces maintenance costs. Furthermore, the storage box 7 is equipped with a cover 10, which faces the operating table. The cover 10 has a transparent panel 25 facing the interactive device 13, allowing real-time monitoring of the interactive device 13 during blood collection, facilitating operation. The advantage of the transparent panel 25 design is that it allows for real-time monitoring without opening the cover: during blood collection, the operator can view the screen display of the interactive device 13 (such as patient information, blood collection progress, and equipment status) through the transparent panel 25 without opening the cover 10 of the storage box 7. The transparent panel 25 can be made of high-strength acrylic or tempered glass, combining light transmission and impact resistance. It clearly displays the screen content while protecting the interactive device 13 from external collisions, ensuring a balance between equipment safety and ease of operation.

[0036] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions or improvements made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. An integrated blood collection container, comprising a container body, characterized in that, It also includes a storage component, which is closably connected to the housing, and the storage component includes a storage compartment and a compartment cover.

2. The integrated blood collection container according to claim 1, characterized in that, The storage component is connected to the box body in an openable and closable manner via a first telescopic component. The first telescopic component is disposed inside the box body and can be raised and lowered relative to the box body. The storage component is disposed at the telescopic end of the first telescopic component relative to the box body.

3. The integrated blood collection container according to claim 1, characterized in that, The storage component includes a storage box, and the storage compartment and / or the compartment cover are provided with a number of storage components, the storage components including storage slots and storage racks. The storage box has a storage compartment on top, and the storage compartment has a number of storage slots and / or storage racks of arbitrary size inside. The compartment cover is connected to the storage compartment in an openable and closable manner, and the inner and / or outer sides of the compartment cover are provided with a number of storage slots and / or storage racks of arbitrary size.

4. The integrated blood collection container according to claim 3, characterized in that, The cover is flip-open and mounted on the top of the storage box, and the integrated blood collection container is also equipped with a positioning component for fixing the cover in the flip-open state.

5. The integrated blood collection container according to claim 4, characterized in that, The box body is also provided with a second telescopic component. The telescopic end of the second telescopic component is provided with a handle and a second switch for controlling the locking of the second telescopic component. The second telescopic component includes a telescopic rod. The positioning component includes a buckle provided on the side of the cover away from the storage compartment for engaging and fixing with the telescopic rod.

6. The integrated blood collection container according to claim 5, characterized in that, The back of the compartment cover is provided with a clearance groove, and a boss is provided inside the clearance groove. Each side of the boss opposite to the side wall of the clearance groove is provided with a buckle. The second telescopic component is provided with a pair of telescopic rods. The buckles can be elastically retracted into the telescopic boss. The side of the boss with the buckle and the side wall of the clearance groove form a through groove for the telescopic rod to pass through. The side of the buckle opposite to the telescopic rod is provided with a beveled guide surface.

7. The integrated blood collection container according to claim 1, characterized in that, The inner side of the compartment cover is provided with a flip-up shelf. The compartment cover and the shelf are rotatably connected by a pivot. The inner side of the compartment cover is also provided with a limiting member that abuts and supports the shelf. The shelf includes a closed state that fits against the compartment cover and an open state that abuts against the limiting member.

8. The integrated blood collection container according to claim 3, characterized in that, The storage box is also equipped with a detachable tray.

9. The integrated blood collection container according to claim 3, characterized in that, The box contains a storage cabinet with a door; the box has an operating table that integrates an interactive device, a heat sealing device, and at least one blood collection mechanism. The blood collection mechanism includes a weighing device and an automatic buckle. The storage box has a table cover underneath, which is fastened to the operating table when the storage box is closed.

10. The integrated blood collection container according to claim 9, characterized in that, The storage box is equipped with a cover plate, which is opposite to the operating table, and the cover plate is equipped with a transparent plate opposite to the interactive device.

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