Oscillating storage bin

Abstract

The present application provides a kind of concussion storage box, when the user moves by using the back strap, the box is up and down by its own gravity and inertia, drives the connection structure and transmission structure to act on the placement structure of blood bag, drives the structure reciprocating to drive transmission structure reciprocating, transmission structure acts on the placement structure and makes the placement structure concussion to make the blood bag concussion effect better, so, the design of the present application can realize not using motor by the concussion storage box itself gravity cooperation linkage mechanism to shake the blood bag, at the same time, the back strap reduces the damage of user's shoulder by connection structure.

Description

Technical Field

[0001] This invention relates to a storage box, and more particularly to a storage box with an oscillation storage function. Background Technology

[0002] Blood is an essential component of the human body, delivering various nutrients, including oxygen, to all organs and continuously circulating and clearing waste and harmful substances from organ metabolism within the blood vessels. In the wild, replenishing the human body with essential blood is a necessary step and means to rescue or alleviate injuries. However, before blood transfusion, the blood needs to be stored at low temperatures and carried.

[0003] The current storage box consists of a base assembly and a partition assembly. The base assembly comprises a box body, a middle plate, a temperature controller, a semiconductor cooler, a motor, a rotating shaft, and a cam. The partition assembly consists of a detachable frame and silicone storage bags. Firstly, the semiconductor cooling mechanism achieves both cooling and storage of blood bags while also enabling miniaturization, portability, and improved convenience. Secondly, the electric vibration mechanism continuously vibrates the stored blood bags, improving blood flow and effectively preventing clotting. Finally, the detachable structure facilitates the immersion disinfection of the partition assembly, which directly contacts the blood bags, while preventing the base assembly containing electrical components from contacting the disinfectant. This design offers excellent practicality and is conducive to widespread clinical application.

[0004] The shortcomings of the existing device are that although it can achieve cushioning of the box, it cannot automatically vibrate the blood bags inside the box when the box is placed through structural improvements. Furthermore, the existing device is usually carried in the field by a shoulder strap, and it cannot automatically achieve continuous vibration of the blood bags when carried by the shoulder through structural improvements. Moreover, the continuous vibration structure cannot simultaneously achieve high-efficiency contact between the blood bags and cold air.

[0005] Therefore, it is necessary to design a new type of oscillation storage box to overcome the above-mentioned defects. Summary of the Invention

[0006] The purpose of this invention is to provide a vibrating storage box that can vibrate blood bags without using a motor by using gravity and a linkage mechanism.

[0007] To achieve the above objectives, the present invention provides a vibrating storage box for containing an object, characterized in that the vibrating storage box comprises: a box body having a first outer side, a second outer side, and a bottom surface, the first outer side facing the second outer side, and the bottom surface located between the first outer side and the second outer side; a first connecting structure disposed on the first outer side of the box body, the first connecting structure comprising: a first fixing part disposed on the first outer side; a first connecting part disposed on the first fixing part and located on one side of the first fixing part, and the first connecting part being movable relative to the first fixing part along a first direction; and a first elastic part disposed on the first fixing part and located on the other side of the first fixing part, and the first elastic part being movable relative to the first fixing part along the first direction as the first connecting part moves, and the first elastic part being compressed; and a placement structure disposed inside the box body and located on the bottom surface for holding the object; A transmission structure connects the first connecting structure and the placement structure. One end of the first transmission structure is disposed on the first elastic part, and the other end of the first transmission structure acts on the placement structure. A carrying strap is also provided, with one end of the strap disposed on the first connecting part and the other end on the second outer surface. When the case moves with the carrying strap, the strap drives the first connecting part to move relative to the first fixed part along the first direction. The first connecting part causes the first elastic part to move and be compressed, thereby driving the first transmission structure to move along the first direction. The first transmission structure acts on the placement structure to cause the placement structure to oscillate. When the first elastic part generates a restoring force due to compression and drives the first transmission structure to move in the opposite direction along the first direction, the first transmission structure acts on the placement structure to cause the placement structure to oscillate. The first direction is opposite to the direction of gravity of the case, and the first and second outer surfaces are parallel to the first direction.

[0008] Preferably, the assembly further includes: a second connecting structure disposed on the second outer side of the housing, the second connecting structure comprising: a second fixing portion disposed on the second outer side; a second connecting portion disposed on the second fixing portion and located on one side of the second fixing portion, and the second connecting portion being movable relative to the second fixing portion along the first direction; and a second elastic portion disposed on the second fixing portion and located on the other side of the second fixing portion, and the second elastic portion being movable relative to the second fixing portion along the first direction as the second connecting portion moves, and the second elastic portion being compressed; and a second transmission structure connecting the second connecting structure and the placement structure, one end of the second transmission structure being disposed on the second elastic portion, the second transmission structure being... The other end of the structure acts on the placement structure; wherein, one end of the shoulder strap is disposed at the first connecting part, and the other end of the shoulder strap is disposed at the second connecting part; when the case moves with the shoulder strap, the shoulder strap drives the first connecting part and the second connecting part to move synchronously along the first direction, so that the second connecting part moves relative to the second fixed part along the first direction, the second connecting part causes the second elastic part to move and compress, thereby driving the second transmission structure to move along the first direction, and the second transmission structure acts on the placement structure to cause the placement structure to oscillate; when the second elastic part generates a restoring force due to compression and drives the second transmission structure to move in the opposite direction along the first direction, the second transmission structure acts on the placement structure to cause the placement structure to oscillate.

[0009] Preferably, the first transmission structure includes a rack, a gear, and a lever block. One end of the rack is disposed on the first elastic part, and the other end of the rack meshes with the gear. When the first elastic part reciprocates along the first direction, the rack reciprocates along the first direction and drives the gear to reciprocate. The gear drives the lever block to move to strike the placement structure and cause the placement structure to vibrate.

[0010] Preferably, the device also includes a rotating shaft, one end of which is connected to the gear, and the other end of which is connected to the actuating block. When the first elastic element moves in the first direction, the rack moves in the first direction to drive the gear to rotate in the second direction. The gear drives the rotating shaft to rotate in the second direction, causing the actuating block to strike the placement structure on one side of the rotating shaft. When the first elastic element moves in the opposite direction in the first direction, the rack moves in the opposite direction in the first direction to drive the gear to rotate in the opposite direction in the second direction. The gear drives the rotating shaft to rotate in the opposite direction in the second direction, causing the actuating block to strike the placement structure on the other side of the rotating shaft. The second direction is different from the first direction.

[0011] Preferably, the first elastic part includes a sliding rod, an elastic element, and a base. The sliding rod connects the first connecting part and the base, and is movably inserted through the first fixed part. The elastic element is sleeved on the sliding rod, and its two ends abut against the first fixed part and the base, respectively. When the strap drives the first connecting part to move in the first direction, the sliding rod moves relative to the first fixed part in the first direction, and the base moves closer to the first fixed part to compress the elastic element. The gap between the base and the first fixed part decreases, increasing the elastic potential energy of the elastic element. When the elastic potential energy of the compressed elastic element reaches its maximum value, the restoring force generated by the compression of the elastic element pushes the base away from the first fixed part, causing the base to move in the opposite direction in the first direction. The base drives the sliding rod to move in the opposite direction in the first direction, and the gap between the base and the first fixed part increases, decreasing the elastic potential energy of the elastic element. The sliding rod moves in the opposite direction relative to the first fixed part in the first direction, thereby driving the first connecting part to move in the opposite direction in the first direction.

[0012] Preferably, it also includes a support structure disposed on the bottom surface of the box, which drives the box to reciprocate along the first direction when the box is placed on the bearing plane.

[0013] Preferably, the support structure includes a sleeve, a return member, a seat, and an interference portion. The housing also includes opposing third and fourth outer surfaces, with the bottom surface located between the third and fourth outer surfaces. The sleeve is disposed on the bottom surface of the housing. The two ends of the return member abut against the bottom surface and the seat, respectively. One end of the seat is sleeved on the sleeve, and the other end of the seat abuts against the interference portion. The interference portion is disposed on the third outer surface near the bottom surface. When the housing is placed on the bearing plane, the housing moves in the opposite direction due to gravity. The compression of the return member causes the interference portion to move in the opposite direction along the first direction, causing the seat and the interference portion to interfere, resulting in the housing reciprocating in a third direction, which is different from the first direction.

[0014] Preferably, it also includes a receiving structure disposed inside the box, and the placement structure is located between the bottom surface of the box and the receiving structure. The placement structure moves relative to the bottom surface and the receiving structure to increase the oscillation amplitude of the placement structure.

[0015] Preferably, the receiving structure includes a fixed plate and a spring. The fixed plate is disposed on the side wall of the housing. The two ends of the spring are respectively connected to the fixed plate and the placement structure. When the placement structure reciprocates along the first direction, the restoring force of the spring increases the amplitude of the oscillation of the placement structure relative to the fixed plate.

[0016] Preferably, it also includes a cover plate that is slidably disposed in the housing to place the blood bag in the placement structure.

[0017] Compared with the prior art, the present invention provides a shock storage box. When the user carries the box on a shoulder strap, the box moves up and down due to its own weight and inertia. This causes the connecting structure and the transmission structure to act on the placement structure where the blood bag is placed. The reciprocating motion of the placement structure causes the transmission structure to reciprocate. The transmission structure acts on the placement structure, causing the placement structure to vibrate, thus improving the vibration effect of the blood bag. In this way, the design of the present invention can achieve the vibration of the blood bag without the use of a motor by using the shock storage box itself due to gravity and the linkage mechanism. At the same time, the shoulder strap reduces the risk of injury to the user's shoulders through the connecting structure. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of an oscillating storage box according to an embodiment of the present invention;

[0019] Figure 2 for Figure 1 A magnified view of part A;

[0020] Figure 3 This is an exploded view of the interior of an oscillating storage box according to an embodiment of the present invention;

[0021] Figure 4 for Figure 3 A magnified view of section B;

[0022] Figure 5 This is an exploded internal view of the oscillating storage box according to an embodiment of the present invention from another angle;

[0023] Figure 6 for Figure 1 A magnified view of a portion of point C. Detailed Implementation

[0024] To provide a further understanding of the purpose, structure, features and functions of the present invention, detailed descriptions are provided below with reference to embodiments.

[0025] Please refer to Figure 1 , Figure 2 and Figure 3 As shown, Figure 1 This is a schematic diagram of an oscillating storage box 100 according to an embodiment of the present invention. Figure 2 for Figure 1 A magnified view of part A. Figure 3This is an exploded view of the interior of a vibrating storage box 100 according to an embodiment of the present invention. The vibrating storage box 100 provided in this embodiment of the present invention is used to contain objects, such as medical liquids or blood bags. The vibrating storage box 100 includes a box body 11, a first connecting structure 12, a placement structure 13, a first transmission structure 14, and a shoulder strap 15. The box body 11 has a bottom surface 110, a first outer side surface 111, and a second outer side surface 112. The first outer side surface 111 and the second outer side surface 112 are opposite to each other, and the bottom surface 110 is located between the first outer side surface 111 and the second outer side surface 112. The first connecting structure 12 is disposed on the first outer side surface 111 of the box body 11, and the first connecting structure 12 includes a first fixing part 121, a first connecting part 122, and a... A first elastic part 123 and a first fixing part 121 are disposed on the first outer side 111 of the housing 11. A first connecting part 122 is disposed on the first fixing part 121 and located on one side of the first fixing part 121. The first connecting part 122 can move relative to the first fixing part 121 along a first direction 1001. A first elastic part 123 is disposed on the other side of the first fixing part 121. The first elastic part 123 can move relative to the first fixing part 121 along the first direction 1001 as the first connecting part 122 moves, and the first elastic part 123 can be compressed. A placement structure 13 is disposed inside the housing 11 and located within the housing 11. The bottom surface 110 can be used to place objects; the first transmission structure 14 connects the first connecting structure 12 and the placement structure 13, one end of the first transmission structure 14 is disposed on the first elastic part 123, and the other end of the first transmission structure 14 acts on the placement structure 13; one end of the carrying strap 15 is disposed on the first connecting part 122, and the other end of the carrying strap 15 is disposed on the second outer side surface 112 of the case 11; when the case 11 moves with the carrying strap 15, the weight of the case 11 or the user walking drives the carrying strap 15, and the carrying strap 15 drives the first connecting part 122 to move relative to the first fixed part 121 in the first direction 1001, and the first connecting part 122 causes the first elastic part 122 to move relative to the first fixed part 121 in the first direction 1001, and the first connecting part 122 causes the first elastic part 122 to move relative to the first fixed part 121 in the first direction 1001, and the first elastic ... elastic part 122 to move relative to the first fixed part 121 in the first direction 1001, and the first elastic part 122 causes the first elastic part 122 to move relative to the first fixed part 122 in the first direction 1001, and the first elastic part 122 to move relative to the first fixed part 122 in the first direction 1001, and the first elastic The elastic part 123 moves and is compressed to drive the first transmission structure 14 to move along the first direction 1001. The compressed first elastic part 123 accumulates elastic potential energy. The first transmission structure 14 acts on the placement structure 13 to cause the placement structure 13 to oscillate. The first elastic part 123 generates a restoring force due to compression to drive the first transmission structure 14 to move in the opposite direction along the first direction 1001. The elastic potential energy generated by the first elastic part 123 and the gravitational potential energy of the box 11 move away from each other according to the law of conservation of energy, forming some cancellation in the first direction 1001 to reduce the damage of the shoulder strap 15 to the user's shoulder. The first transmission structure 14 acts on the placement structure 13 to cause the placement structure 13 to oscillate.The carrying strap 15 oscillates and reciprocates in the first direction 1001 as the user walks. The carrying strap 15 drives the first connecting part 122 to reciprocate relative to the first fixing part 121 in the first direction 1001. The first connecting part 122 drives the first elastic part 123 to reciprocate relative to the first fixing part 121 in the first direction 1001. The first elastic part 123 drives the first transmission structure 14 to reciprocate in the first direction 1001. The reciprocating first transmission structure 14 acts on the placement structure 13, causing the placement structure 13 to oscillate continuously, thereby causing the object to oscillate continuously. The first direction 1001 is opposite to the direction of gravity of the box 11. The first outer side 111 and the second outer side are parallel to the first direction 1001, respectively. In this way, the blood bag can be oscillated without the use of a motor by gravity and linkage mechanism. At the same time, the carrying strap 15 reduces the injury to the user's shoulder through the first connecting structure 12.

[0026] Reference Figure 1 , Figure 2 and Figure 3 As shown, the oscillating storage box 100 also includes a second connecting structure (not shown) and a second transmission structure (not shown). The second connecting structure is disposed on the second outer side 112 of the box body 11. The second connecting structure includes a second fixing part, a second connecting part, and a second elastic part. The second fixing part is disposed on the second outer side 112 of the box body 11, the second connecting part is disposed on the second fixing part and located on one side of the second fixing part, and the second elastic part is disposed on the second fixing part and located on the other side of the second fixing part. The second transmission structure connects the second connecting structure and the placement structure 13. One end of the second transmission structure is disposed on the second elastic part, and the other end of the second transmission structure acts on the placement structure 13. One end of the strap 15 is disposed at the first connecting part 122, and the other end of the strap 15 is disposed at the second connecting part. When the box 11 moves with the strap 15, the strap 15 drives the first connecting part 122 and the second connecting part to move synchronously along the first direction 1001. The second connecting part compresses the second elastic part to drive the second transmission structure to move along the first direction 1001. The second transmission structure acts on the placement structure 13 to make the placement structure 13 vibrate, and the blood bag vibrates accordingly. The second elastic part generates a restoring force due to compression to drive the second transmission structure to move in the opposite direction along the first direction 1001. The second transmission structure acts on the placement structure 13 to make the placement structure 13 vibrate, and the blood bag vibrates accordingly. In other words, the second connecting structure has the same structure and function as the first connecting structure 12, but the second connecting structure and the first connecting structure 12 are located on two opposite outer sides of the housing 11, respectively; the second transmission structure has the same structure and function as the first transmission structure 14, but the second transmission structure and the first transmission structure 14 are located on two opposite outer sides of the housing 11, respectively; the first outer side 111 and the second outer side 112 of the housing 11 are each provided with a symmetrical structure, which makes the vibration effect better, but the symmetrical structure setting depends on the actual situation and is not limited thereto.

[0027] Next, the structure and cooperation relationship of the housing 11, the first connecting structure 12, the first transmission structure 14 and the placement structure 13 will be explained in detail.

[0028] Reference Figure 1 , Figure 2 and Figure 3 As shown, the box 11 is a hollow rectangular box structure used to house blood bags. The box 11 has a bottom surface 110, a first outer surface 111, a second outer surface 112, a third outer surface 113, and a fourth outer surface 114. The first outer surface 111 faces the second outer surface 112, and the third outer surface 113 faces the fourth outer surface 114. The first outer surface 111, second outer surface 112, third outer surface 113, and fourth outer surface 114 surround the bottom surface 110. The box 11, through the cooperation of a first connecting structure 12 and a first transmission structure 14, generates vibration when the placement structure 13 inside the box 11 is struck. The vibration of the placement structure 13 causes the blood bag to vibrate accordingly, improving the flow of blood inside the blood bag and achieving a good anti-coagulation effect.

[0029] Reference Figure 1 , Figure 2 and Figure 3As shown, the first connecting structure 12 serves to connect the shoulder strap 15 and the first transmission structure 14. The first connecting structure 12 includes a first fixing part 121, a first connecting part 122, and a first elastic part 123. The first fixing part 121 is fixed to the upper middle area of ​​the first outer side surface 111 of the case body 11, for a fixed connection between the shoulder strap 15 and the case body 11. The first connecting part 122 passes through the upper part of the first fixing part 121 and can slide relative to the first fixing part 121. The first elastic part 123 includes a sliding rod 1231, an elastic element 1232, and a base 1233. The sliding rod 1231 connects the first connecting part 122 and the base 1233, and is movably inserted through the first fixing part 121. The elastic element 1232 is sleeved on the sliding rod 1231, with both ends of the elastic element 1232 abutting against the first fixing part 121 and the base 1233 respectively. One end of the first transmission structure 14 is disposed on the base 1233. When the shoulder strap 15 drives the first connecting part 122 to move along the first direction 1001, the first connecting part 122 drives the sliding rod 1231 to move along the first direction 1001, causing the sliding rod 1231 to move relative to the first fixed part 121 along the first direction 1001. The sliding rod 1231 drives the base 1233 to move along the first direction 1001, causing the base 1233 to move closer to the first fixed part 121 to compress the elastic element 1232. The gap between the base 1233 and the first fixed part 121 decreases, increasing the elastic potential energy of the elastic element 1232. When the compressed elastic element 1232... When the elastic potential energy reaches its maximum value, the restoring force generated by the compression of the elastic element 1232 pushes the base 1233 away from the first fixed part 121, causing the base 1233 to move in the opposite direction of the first direction 1001. The base 1233 drives the sliding rod 1231 to move in the opposite direction of the first direction 1001. The gap between the base 1233 and the first fixed part 121 increases, causing the elastic potential energy of the elastic element 1232 to decrease. The sliding rod 1231 moves in the opposite direction of the first fixed part 121 relative to the first fixed part 121 in the first direction 1001, thereby driving the first connecting part 122 to move in the opposite direction of the first direction 1001. In practice, when the user walks with the shoulder strap 15, it causes a slight up-and-down sway. Due to the weight and inertia of the box 11 itself, the change in the center of gravity of the human body causes the box 11 to sway, which causes the first connecting part 122 to drive the first elastic part 123 to reciprocate. Specifically, the base 1233 reciprocates along the first direction 1001. The base 1233 drives the first transmission structure 14 to reciprocate along the first direction 1001, and the reciprocating motion effect is applied to the placement structure 13, thereby creating a vibration effect on the placement structure 13.Two sliding rods 1231 can be arranged side by side between the first fixed part 121 and the base 1233. Two elastic elements 1232 are also arranged, each sleeved on one of the two sliding rods 1231. The first connecting part 122 in the first direction 1001 can be integrated with the sliding rod 1232 to ensure that the first connecting part 122 and the first elastic part 123 move relative to the first fixed part 121, thereby achieving a more stable linkage effect. Similarly, the second outer side 112 of the housing 11 also has a second connecting structure and a second transmission structure. The component structure and effect of the second connecting structure are the same as those of the first connecting structure 12, and will not be described again.

[0030] Refer to together Figure 4 and Figure 5 As shown, Figure 4 for Figure 3 A magnified view of part B. Figure 5 This is an exploded internal view of the oscillating storage box 100 according to another embodiment of the present invention. The placement structure 13 is a rectangular plate, disposed inside the box body 11 and close to the bottom surface 110 of the box body 11. The blood bag is placed on top of the placement structure 13, and the placement structure 13 oscillates to cause the blood bag to oscillate. In specific implementation, the placement structure 13 has through holes 131 arranged in a rectangular array. The through holes 131 pass through the placement structure 13 and are used for the exchange and circulation of gas inside the box body 11, thereby ensuring the cooling quality of the blood bag. Specifically, the through holes 131 have a conical structure, and the diameter of the through holes 131 gradually increases along the first direction 1001. When the placement structure 13 moves up and down, the inverted conical structure of the through holes 131 achieves a better cold air diffusion effect.

[0031] Reference Figures 1-5As shown, the first transmission structure 14 transmits the reciprocating motion of the first connecting structure 13 to the placement structure 13, thereby causing the placement structure 13 to oscillate. The first transmission structure 14 includes a rack 141, a gear 142, and a lever 143. One end of the rack 141 is disposed on the first elastic part 123, and the other end of the rack 141 meshes with the gear 142. When the first elastic part 123 reciprocates along the first direction 1001, the rack 141 reciprocates along the first direction 1001, thereby driving the gear 142 to reciprocate. The gear 142 drives the lever 143 to move to strike the placement structure 13, causing the placement structure 13 to oscillate. In specific implementation, the components sequentially arranged in the opposite direction 1001 on the first outer side 111 are the first connecting part 122, the first fixing part 121, the first elastic part 123, the rack 141 and the gear 142. When the strap 15 moves along the first direction 1001, it sequentially drives the first connecting part 122, the sliding rod 1231, the elastic element 1232, the base 1233, the rack 141, the gear 142 and the actuating block 143, so that the actuating block 143 strikes the placement structure 13 to make the placement structure 13 vibrate. In this embodiment of the invention, the first transmission structure 14 further includes a rotating shaft 144. One end of the rotating shaft 144 is connected to a gear 142, and the other end of the rotating shaft 144 is connected to a toggle block 143. When the first elastic member 1232 moves along the first direction 1001, the rack 141 moves along the first direction 1001 to drive the gear 142 to rotate along the second direction 1002. The gear 142 drives the rotating shaft 144 to rotate along the second direction 1002, causing the toggle block 143 to strike the placement structure 13 on one side of the rotating shaft 144. When the first elastic member 1232 moves in the opposite direction of the first direction 1001, the rack 141 moves in the opposite direction of the first direction 1001 to drive the gear 142 to rotate in the opposite direction of the second direction 1002. The gear 142 drives the rotating shaft 144 to rotate in the opposite direction of the second direction 1002, causing the toggle block 143 to strike the placement structure 13 on the other side of the rotating shaft 144. The second direction 1002 is different from the first direction 1001. Specifically, the rotating shaft 144 is parallel to the bottom surface 110 of the housing 11 and perpendicular to the first direction 1001. The rack 141 moves upward, causing the gear 142 to rotate clockwise, which in turn causes the rotating shaft 144 to rotate clockwise. The clockwise rotating shaft 144 causes the actuating block 143 to strike the left side of the rotating shaft 144. The rack 141 moves downward, causing the gear 142 to rotate counterclockwise, which in turn causes the rotating shaft 144 to rotate counterclockwise. The counterclockwise rotating shaft 144 causes the actuating block 143 to strike the right side of the rotating shaft 144. When the user walks with the shoulder strap 15 on their back, the first connecting structure 12 causes the rack 141 to move up and down, and the gear 142 to rotate back and forth, which in turn causes the rotating shaft 144 to rotate back and forth. This causes the actuating block 143 to continuously strike the placement structure 13 on both sides of the rotating shaft 144, so that the placement structure 13 is always in an oscillating state.

[0032] Reference Figure 1 and Figure 6 As shown, Figure 6 for Figure 1A partial enlarged view at point C. The oscillating storage box 100 also includes a support structure 16, which is disposed on the bottom surface 110 of the box body 11. When the box body 11 is placed on the bearing plane, the support structure 16 drives the box body 11 to reciprocate along the first direction 1001. When the oscillating storage box 100 is in the placed state, the box body 11 can still be in an oscillating state for a period of time. When the user continuously exerts a reverse force on the box body 11 in the first direction 1001, the box body 11 can continue to oscillate to drive the blood bag to oscillate continuously. This design can keep the blood bag in an oscillating state without using an additional motor. In specific implementation, the support structure 16 includes a sleeve rod 161, a return member 162, a seat 163, and an interference part 164. The interference part 164 can be convex, concave, or serrated. The sleeve rod 161 is disposed on the bottom surface 110 of the housing 11. The return member 162 is sleeved on the sleeve rod 161, and both ends of the return member 162 abut against the bottom surface 110 and the seat 163, respectively. One end of the seat 163 is sleeved on the sleeve rod 161, and the other end of the seat 163 abuts against the interference part 164. The interference part 164 is disposed on the third outer side surface 113 of the housing 11 near the bottom surface 110. When the housing 11 is placed on the bearing plane, the seat 163 is placed on the bearing plane. When the housing 11 is subjected to a force in the opposite direction along the first direction 1001, the return member 162 compresses, causing the housing 11 to move closer to the bearing plane, and the interference part 164 moves closer to the seat 163 so that the seat 163 interferes with the interference part 164, causing the housing 11 to oscillate back and forth along the third direction 1003; due to the restoring force, the interference part 164 moves away from the bearing plane, and the interference part 164 moves away from the seat 163 so that the interference part 164 interferes with the seat 163, causing the housing 11 to oscillate back and forth along the third direction 1003. Specifically, support structures 16 are provided at the four corners of the bottom surface 110 of the box 11 to exert a downward force on the box 11. When the box 11 approaches the bearing plane, the sleeve rod 161 moves relative to the bottom surface 110, causing the return member 162 to be compressed. The seat 163 has a C-shaped structure. One end of the seat 163 is connected to the sleeve rod 161, and the other end of the seat 163 interferes with the interference part 164 arrayed along the first direction 1001. The other end of the seat 163 reciprocates relative to the interference part 164 along the second direction 1002, so that the box 11 reciprocates in the second direction 1002 to drive the blood bag to reciprocate in the second direction 1002. The force exerted by the user on the box 11 in the first direction 1001 is counteracted by the interference resistance of the seat 163 and the interference part 164 (similar to a ping-pong ball bouncing multiple times after landing and tending to come to rest). The box 11 gradually comes to rest. At this time, the user can exert the force on the box 11 in the first direction 1001 in real time. This is repeated so that the oscillating storage box 100 does not need to rely on an additional motor system. The user only needs to exert a force on the box 11 to make the box 11 oscillate along the second direction 1002, so that the blood bag is kept in an oscillating state, preventing the blood inside the blood bag from flowing and achieving a good anticoagulation effect.

[0033] Reference Figures 1-6 As shown, the vibration storage box 100 also includes a receiving structure 17, which is disposed inside the box body 11. The placement structure 13 is located between the bottom surface 110 of the box body 11 and the receiving structure 17. The placement structure 13 moves relative to the bottom surface 110 and the receiving structure 17 to increase the vibration amplitude of the placement structure 13. In a specific implementation, the receiving structure 17 includes a fixing plate 171 and a spring 172. The fixing plate 171 is disposed on the side wall inside the box body 11. The two ends of the spring 172 are respectively connected to the fixing plate 171 and the placement structure 13. When the placement structure 13 reciprocates along the first direction 1001, the restoring force of the spring 172 increases the vibration amplitude of the placement structure 13 relative to the fixing plate 171. That is to say, the receiving structure 17 is disposed on the two inner walls of the box body 11 along the second direction 1002 to enhance the vibration amplitude of the placement structure 13 and make the blood bag vibration effect better.

[0034] Reference Figure 1 As shown, the oscillating storage box 100 also includes a cover plate 18, which is slidably disposed on the box body 11 to place the blood bag in the placement structure 13. Specifically, the cover plate 18 is slidably connected to the box body 11 to slide along the second direction 1002. The cover plate 11 includes two sliding protrusions 181, and the two sliding protrusions 181 are symmetrically fused to the bottom end face of the cover plate 18. The sliding protrusions 181, together with the sliding seats 182 on the first outer side 111 and the second outer side 112 of the box body 11, form the sliding opening and closing structure of the cover plate 18, which facilitates the subsequent sliding of the cover plate 18 to place and retrieve the blood bag and clean the internal space of the box body 11.

[0035] In summary, the shaking storage box provided by the present invention is used to contain blood bags. The shaking storage box includes a box body, a first connecting structure, a placement structure, and a carrying strap. The box body has a bottom surface, a first outer surface, and a second outer surface, with the first outer surface and the second outer surface facing each other, and the bottom surface located between the first outer surface and the second outer surface. The first connecting structure is disposed on the first outer surface of the box body and includes a first fixing part, a first connecting part, and a first elastic part. The first fixing part is disposed on the first outer surface of the box body, the first connecting part is disposed on the first fixing part and located on one side of the first fixing part, and the first elastic part is disposed on the first fixing part and located on the other side of the first fixing part. The placement structure is disposed inside the box body and located on the bottom surface of the box body. A first transmission structure connects the first connecting structure and the placement structure, with one end of the first transmission mechanism disposed on the first elastic part and the other end of the first transmission structure acting on the placement structure. One end of the carrying strap is located at the first connecting part, and the other end of the carrying strap is located at the second outer side of the case. When the user carries the carrying strap and moves, causing the case to reciprocate along the first direction, the carrying strap drives the first connecting part to move along the first direction. The first connecting part compresses the first elastic part to drive the first transmission structure to move along the first direction. The first transmission structure acts on the placement structure to make the placement structure oscillate, thus causing the blood bag to oscillate. The first elastic part generates a restoring force due to compression, which drives the first transmission structure to move in the opposite direction along the first direction. The first transmission structure acts on the placement structure to make the placement structure oscillate, thus causing the blood bag to oscillate. The first direction is opposite to the direction of gravity of the case, and the first and second outer sides are parallel to the first direction. In this way, the blood bag can be oscillated without a motor by gravity and linkage mechanism. At the same time, the carrying strap reduces the risk of injury to the user's shoulder through the first connecting structure.

[0036] Although the invention has been described in conjunction with the accompanying drawings, the embodiments disclosed in the drawings are intended to illustrate preferred embodiments of the invention and should not be construed as limiting the invention. The scale in the schematic drawings does not represent the actual proportions of the components, in order to clearly describe the required parts.

[0037] The present invention has been described in the above-described embodiments; however, these embodiments are merely examples for implementing the present invention. It must be noted that the disclosed embodiments do not limit the scope of the present invention. Conversely, any modifications and refinements made without departing from the spirit and scope of the present invention are within the scope of patent protection of the present invention.

Claims

1. A vibrating storage box for containing an object, characterized in that, The oscillation storage box includes: The housing has a first outer side, a second outer side, and a bottom surface, wherein the first outer side and the second outer side are opposite to each other, and the bottom surface is located between the first outer side and the second outer side; A first connecting structure is disposed on the first outer side of the housing, and the first connecting structure includes: A first fixing part is disposed on the first outer surface; A first connecting portion is disposed on the first fixing portion and located on one side of the first fixing portion, and the first connecting portion is movable relative to the first fixing portion along a first direction; and A first elastic portion is disposed on the first fixed portion and located on the other side of the first fixed portion. The first elastic portion can move relative to the first fixed portion along the first direction as the first connecting portion moves, and the first elastic portion can be compressed. A placement structure, located inside the box and on the bottom surface, is used to hold the object; A first transmission structure connects the first connecting structure and the placement structure. One end of the first transmission structure is disposed on the first elastic part, and the other end of the first transmission structure acts on the placement structure. The first transmission structure includes a rack, a gear, and a moving block. One end of the rack is disposed on the first elastic part, and the other end of the rack meshes with the gear. A carrying strap, one end of which is disposed at the first connecting portion, and the other end of which is disposed at the second outer surface; and A support structure is provided on the bottom surface of the housing, and the support structure includes a sleeve, a return member, a base, and an interference part; When the case moves with the carrying strap, the carrying strap causes the first connecting part to move relative to the first fixed part along the first direction. The first connecting part causes the first elastic part to move and be compressed, thereby driving the first transmission structure to move along the first direction. The first transmission structure acts on the placement structure to cause the placement structure to oscillate. When the first elastic part generates a restoring force due to compression and drives the first transmission structure to move in the opposite direction along the first direction, the first transmission structure acts on the placement structure to cause the placement structure to oscillate. The first direction is opposite to the direction of gravity of the case. The first outer surface and the second outer surface are parallel to the first direction. When the first elastic part reciprocates along the first direction, the rack reciprocates along the first direction and drives the gear to rotate reciprocally. The gear drives the actuating block to move to strike the placement structure and make the placement structure vibrate. When the box is placed on the bearing plane, the box moves in the opposite direction along the first direction due to gravity. The compression of the return member causes the interference part to move in the opposite direction along the first direction so that the seat interferes with the interference part, causing the box to reciprocate in a third direction, wherein the third direction is different from the first direction.

2. The oscillation storage box as described in claim 1, characterized in that, Also includes: A second connecting structure is disposed on the second outer side of the housing, and the second connecting structure includes: A second fixing part is provided on the second outer side surface; A second connecting portion is disposed on the second fixing portion and located on one side of the second fixing portion, and the second connecting portion is movable relative to the second fixing portion along the first direction; and The second elastic part is disposed on the second fixed part and located on the other side of the second fixed part. The second elastic part can move relative to the second fixed part along the first direction as the second connecting part moves, and the second elastic part can be compressed. A second transmission structure connects the second connecting structure and the placement structure. One end of the second transmission structure is disposed on the second elastic part, and the other end of the second transmission structure acts on the placement structure. One end of the carrying strap is disposed at the first connecting portion, and the other end of the carrying strap is disposed at the second connecting portion. When the case moves with the carrying strap, the carrying strap drives the first connecting portion and the second connecting portion to move synchronously along the first direction, so that the second connecting portion moves relative to the second fixed portion along the first direction. The second connecting portion causes the second elastic portion to move and compress, thereby driving the second transmission structure to move along the first direction. The second transmission structure acts on the placement structure to cause the placement structure to oscillate. When the second elastic portion generates a restoring force due to compression and drives the second transmission structure to move in the opposite direction along the first direction, the second transmission structure acts on the placement structure to cause the placement structure to oscillate.

3. The oscillation storage box as described in claim 1, characterized in that, It also includes a rotating shaft, one end of which is connected to the gear, and the other end of which is connected to the actuating block. When the first elastic element moves along the first direction, the rack moves along the first direction to drive the gear to rotate in the second direction. The gear drives the rotating shaft to rotate in the second direction, causing the actuating block to strike the placement structure on one side of the rotating shaft. When the first elastic element moves in the opposite direction of the first direction, the rack moves in the opposite direction of the first direction to drive the gear to rotate in the opposite direction of the second direction. The gear drives the rotating shaft to rotate in the opposite direction of the second direction, causing the actuating block to strike the placement structure on the other side of the rotating shaft. The second direction is different from the first direction.

4. The oscillation storage box as described in claim 1, characterized in that, The first elastic part includes a sliding rod, an elastic element, and a base. The sliding rod connects the first connecting part and the base. The sliding rod is movably inserted through the first fixed part. The elastic element is sleeved on the sliding rod, and its two ends abut against the first fixed part and the base, respectively. When the shoulder strap drives the first connecting part to move along the first direction, the sliding rod moves relative to the first fixed part along the first direction. The base moves closer to the first fixed part to compress the elastic element. The gap between the base and the first fixed part decreases, increasing the elastic potential energy of the elastic element. When the elastic potential energy of the compressed elastic element reaches its maximum value, the restoring force generated by the compression of the elastic element pushes the base away from the first fixed part, causing the base to move in the opposite direction along the first direction. The base drives the sliding rod to move in the opposite direction along the first direction. The gap between the base and the first fixed part increases, decreasing the elastic potential energy of the elastic element. The sliding rod moves in the opposite direction relative to the first fixed part along the first direction, driving the first connecting part to move in the opposite direction along the first direction.

5. The oscillation storage box as described in claim 1, characterized in that, The housing also includes a third outer side and a fourth outer side opposite to each other. The bottom surface is located between the third outer side and the fourth outer side. The sleeve is disposed on the bottom surface of the housing. The two ends of the return member abut against the bottom surface and the base respectively. One end of the base is sleeved on the sleeve and the other end of the base abuts against the interference part. The interference part is disposed on the third outer side near the bottom surface.

6. The oscillation storage box as described in claim 1, characterized in that, It also includes a receiving structure disposed inside the box, and the placement structure is located between the bottom surface of the box and the receiving structure. The placement structure moves relative to the bottom surface and the receiving structure to increase the oscillation amplitude of the placement structure.

7. The oscillation storage box as described in claim 6, characterized in that, The receiving structure includes a fixed plate and a spring. The fixed plate is disposed on the side wall of the box. The two ends of the spring are respectively connected to the fixed plate and the placement structure. When the placement structure reciprocates along the first direction, the restoring force of the spring increases the amplitude of the oscillation of the placement structure relative to the fixed plate.

8. The oscillation storage box as described in claim 1, characterized in that, It also includes a cover plate that is slidably disposed in the box to place the blood bag in the placement structure.

Images