An intelligent diagnosis and treatment ecosystem

Abstract

The present invention relates to the medical field, and more specifically, to an intelligent diagnosis and treatment ecosystem. The system includes a sampling module for drawing blood from patients, a storage module for loading samples, a transportation module for transporting samples to multiple departments, a sorting module for each department to examine the samples, a reporting module for obtaining sample results, and a comprehensive display module for finally displaying the multiple reporting modules together. The storage module includes multiple storage tubes for storing samples, and an upper cover threadedly connected to each storage tube. Each storage tube has a receiving hole machined on its end face, and multiple upper covers are fixed with insertion tubes corresponding to adjacent receiving holes. It can complete the blood sampling requirements of multiple departments at one time.

Description

Technical Field

[0001] The present invention relates to the medical field, and more specifically to an intelligent diagnosis and treatment ecosystem. Background Art

[0002] With the rapid development of mobile communication technology, the mobile Internet industry has seen explosive growth. In the future, driven by new technologies such as the Internet of Things and cloud computing, the integration of traditional industries such as finance, entertainment, transportation, and healthcare with the Internet is showing new characteristics. In recent years, the combination of medical software and mobile terminal devices has provided patients with convenient medical treatment and hospitals and other institutions with mobile, efficient, and customized solutions, creating a new working model for intelligent mobile healthcare. However, no matter how things change, testing blood samples is one of the most important medical methods. However, in the current process of drawing blood samples, multiple sampling tubes need to be connected to the blood-drawing needle, which is cumbersome, time-consuming, and inefficient. Summary of the Invention

[0003] To overcome the deficiencies of the prior art, the present invention provides an intelligent diagnosis and treatment ecosystem that can complete the blood sampling requirements of multiple departments at one time.

[0004] The technical solution adopted by the present invention to solve its technical problem is:

[0005] An intelligent diagnosis and treatment ecosystem includes a sampling module for drawing blood from patients, a storage module for loading samples, a transportation module for transporting samples to multiple departments, a sorting module for each department to examine the samples, a reporting module for obtaining sample results, and a comprehensive display module for aggregating multiple reporting modules for final display.

[0006] Furthermore, the storage module includes multiple storage tubes for storing samples, and an upper cover threadedly connected to each storage tube. A receiving hole is processed on the end face of each storage tube, and insertion tubes corresponding to adjacent receiving holes are fixed to the multiple upper covers.

[0007] Furthermore, it also includes a sealing sleeve fixed on the receiving hole to prevent the sample from leaking.

[0008] Furthermore, it also includes a ferrule that drives multiple upper covers to move, each ferrule is fixed with a spring that maintains the distance between adjacent ferrules, and multiple ferrules slide on the limit frame. BRIEF DESCRIPTION OF THE DRAWINGS

[0009] The present invention will be further described in detail below with reference to the accompanying drawings and specific implementation methods.

[0010] Figure 1 Create a flow chart for the smart diagnosis and treatment ecosystem;

[0011] Figure 2To store sample structure diagram;

[0012] Figure 3 This is a diagram of the storage tube structure;

[0013] Figure 4 This is the structural diagram of the upper cover;

[0014] Figure 5 A half-section view of the storage tube;

[0015] Figure 6 A structural diagram for promoting the connection of multiple storage tubes;

[0016] Figure 7 A structural diagram for driving the tilting of multiple storage tubes;

[0017] Figure 8 A structural diagram for creating negative pressure conditions for multiple interconnected storage pipes;

[0018] Figure 9 A diagram of the local structure for creating negative pressure conditions;

[0019] Figure 10 Partial assembly drawing for creating negative pressure conditions. DETAILED DESCRIPTION

[0020] refer to Figure 1 , detailing the implementation process of the smart diagnosis and treatment ecosystem:

[0021] An intelligent diagnosis and treatment ecosystem, the system includes a sampling module for drawing blood from patients. Staff members draw blood from patients to collect samples, and connect the sampling module to a storage module, so that the samples collected by the sampling module can flow into the storage module for storage, facilitating subsequent sample inspection and analysis of the condition. When the sample collection is completed, the samples are transported to various departments through a transportation module. Each department inspects the samples through a sorting module, and uploads the inspection results to a report module, which is then summarized and transmitted to a comprehensive display module for continued comprehensive display of the inspection results. The most comprehensive display of the sample inspection results can avoid the influence of incomplete reports on the judgment of the condition.

[0022] In combination with the above embodiments, the following functions can also be achieved:

[0023] refer to Figure 2 、 3 and 4. Detailed description of the implementation process for storing samples:

[0024] The storage module includes multiple storage tubes 11 for storing samples. One side of the end face of the storage tube 11 is provided with an end plate and the other side is open. The outer wall of the open end of the storage tube 11 is processed with threads. An upper cover 21 is connected to each storage tube 11 through threads to seal the upper end of each storage tube 11 to prevent sample leakage and medical contamination. A receiving hole 12 is processed on the end face of each storage tube 11. Insertion tubes 22 corresponding to adjacent receiving holes 12 are fixedly connected to the multiple upper covers 21. By inserting the insertion tubes 22 into the receiving holes 12, the connection of multiple storage tubes 11 is achieved. When sampling, it is only necessary to connect the combined multiple interconnected storage tubes 11 to the sampling module, which can avoid the existing method of connecting different test tubes to the sampling module multiple times, which is time-consuming, slow and inefficient. With the combined storage tube 11, sampling can be completed by only connecting it to the sampling module once. Then, by disassembling the multiple connected storage tubes 11, the samples can be transported to different examination departments for examination.

[0025] In combination with the above embodiments, the following functions can also be achieved:

[0026] refer to Figure 5 , detailing the implementation process to prevent leakage of samples in storage tubes:

[0027] A sealing sleeve 14 is fixedly connected to each receiving hole 12. The sealing sleeve 14 is made of rubber material, has a shape with a gradually narrowing opening and is elastic. When there is no external force, the receiving hole 12 can be sealed under the gravity of the sample to prevent leakage of the sample. When the insertion tube 22 is inserted into the corresponding receiving hole 12, the sealing sleeve 14 is stretched open, thereby enabling communication between adjacent storage tubes 11. Therefore, only one sampling module needs to be connected, and the sample can flow into multiple storage tubes 11 through multiple insertion tubes 22 to complete the sampling.

[0028] In combination with the above embodiments, the following functions can also be achieved:

[0029] refer to Figure 6 , details the implementation process of connecting multiple storage pipes:

[0030] The multiple upper covers 21 can be detachably connected to the corresponding ferrules 31. Each ferrule 31 is fixedly connected to a spring 32 for maintaining the spacing between adjacent ferrules 31. The distance between adjacent ferrules 31 is maintained by the natural state of the spring 32 when it is not under force, so that the independence of the space inside the multiple storage tubes 11 is ensured by the thrust when the multiple springs 32 are compressed. The storage tubes 11 can be disassembled to provide them to multiple departments for inspection in different directions. There is no need to replace the sampling tubes multiple times, which simplifies the sampling process and speeds up the sampling speed, thereby improving the efficiency of medical treatment, speeding up the inspection speed, and saving precious treatment time for patients. The multiple ferrules 31 are all slidably connected to the limit frame 33, so that under the drive of external force, the multiple ferrules 31 can be pushed to slide, thereby driving the multiple storage tubes 11 and the upper cover 21 to slide, and then completing the connection between the corresponding storage tubes 11 and the upper cover 21, thereby realizing the communication of the spaces inside the multiple storage tubes 11, so that the samples required by multiple sorting modules can be extracted in one sampling.

[0031] In combination with the above embodiments, the following functions can also be achieved:

[0032] refer to Figure 6 , detailing the implementation process for promoting interconnection between multiple storage tube spaces:

[0033] An electric telescopic rod I 35 is fixedly connected to the limit frame 33. When the electric telescopic rod I 35 is started, the electric telescopic rod I 35 pushes the storage tube 11 close to it to move, and the storage tube 11 that is moved by force drives the upper cover 21 fixedly connected to it to move, and at the same time drives the corresponding ferrule 31 to slide, so that multiple storage tubes 11 move in sequence, and the spaces of multiple storage tubes 11 are connected. When the process is carried out synchronously, the multiple springs 32 are compressed. When the sampling is completed, when the electric telescopic rod I 35 is started to reset, the multiple compressed springs 32 will push the multiple ferrules 31 to reset, thereby driving the multiple upper covers 21 to reset, and thereby driving the multiple storage tubes 11 to reset and the lower spaces become independent again, which is convenient for each department to carry out sorting and synchronous analysis of the samples.

[0034] In combination with the above embodiments, the following functions can also be achieved:

[0035] refer to Figure 7 , details the implementation process of driving multiple storage tubes to tilt:

[0036] The limiting frame 33 is fixedly connected to the base plate 34, and the base plate 34 is rotatably connected to the two vertical plates 42. The two vertical plates 42 are fixedly connected to the bottom frame 41. Two electric telescopic rods II 43 are fixedly connected to the bottom frame 41. The two electric telescopic rods II 43 are in contact with and support the base plate 34. When the two electric telescopic rods II 43 are started, the two electric telescopic rods II 43 can support one end of the base plate 34, so that the base plate 34 tilts, thereby driving the multiple storage tubes 11 to tilt, facilitating the flow and sampling of samples. When the collection is completed, the two electric telescopic rods II 43 are driven again to reset, and the multiple storage tubes 11 are reset at this time, completing the collection and storage of samples.

[0037] In combination with the above embodiments, the following functions can also be achieved:

[0038] refer to Figure 7 , details the implementation process of buffering when resetting a tilted substrate:

[0039] Two spring telescopic rods 44 are fixedly connected to the base frame 41. The two ends of the two spring telescopic rods 44 are connected, and a buffer spring is provided in the middle. When the base plate 34 is reset, it presses on the two spring telescopic rods 44. The impact force is absorbed by the built-in buffer spring to prevent the sample from splashing due to the huge vibration and causing contamination.

[0040] In combination with the above embodiments, the following functions can also be achieved:

[0041] refer to Figure 8 and 9 , detailing the implementation process of creating negative pressure conditions for multiple connected storage controls:

[0042] A sliding frame 51 is slidably connected to the base plate 34, and a negative pressure pump 52 is fixedly connected to the sliding frame 51. A connecting pipe 53 is slidably connected to the negative pressure pump 52, and the connecting pipe 53 is fixedly connected to the follower plate 54, and the follower plate 54 is fixedly connected to the electric telescopic rod III 55, and the electric telescopic rod III 55 is fixedly connected to the sliding frame 51. Start the electric telescopic rod III 55, and the electric telescopic rod III 55 drives the follower plate 54 to move, and the follower plate 54 drives the connecting pipe 53 to be inserted into the corresponding storage tube 11, and start the negative pressure pump 52. The negative pressure pump 52 draws out the air in the connected storage tube 11 to create a negative pressure environment, which is convenient for sample collection and can smoothly carry out sample collection. When the sampling is completed, the negative pressure pump 52 is turned off again and the electric telescopic rod III 55 is started to reset.

[0043] In combination with the above embodiments, the following functions can also be achieved:

[0044] refer to Figure 9 and 10 , detailed description of the implementation process of driving the connecting pipe to slide to create negative pressure conditions for different storage pipes:

[0045] A screw rod 61 is rotatably connected to the base plate 34 through a bearing. The screw rod 61 is fixedly connected to the output shaft of the reduction motor I through bolts. The reduction motor I is fixedly connected to the base plate 34 through bolts. A screw rod sleeve is fixedly connected to the slide frame 51. The slide frame 51 is threadedly transmitted with the connected screw rod 61 through the screw rod sleeve. The reduction motor I is started to drive the screw rod 61 to rotate. The screw rod 61 drives the slide frame 51 to slide on the base plate 34, thereby adjusting the position of the base plate 34, thereby adjusting the position of the connecting pipe 53 to create negative pressure conditions for the storage tubes 11 at different positions, thereby facilitating smooth sampling.

[0046] In combination with the above embodiments, the following functions can also be achieved:

[0047] refer to Figure 3 , detailing the implementation process for successfully creating negative pressure conditions:

[0048] A rubber pad 13 is fixedly connected to the storage tube 11. When the connecting tube 53 is driven to slide, the connecting tube 53 passes through the rubber pad 13 and is inserted into the storage tube 11 to extract air and create a negative pressure condition.

Claims

1. An intelligent diagnosis and treatment ecosystem, characterized by: The system comprises a sampling module for drawing blood from a patient, a storage module for loading samples, a transport module for transporting samples to multiple departments, a sorting module for each department to inspect the samples, a reporting module for obtaining sample results, and a comprehensive display module for finally displaying the multiple reporting modules. The storage module comprises multiple storage tubes (11) for storing samples, and an upper cover (21) threadedly connected to each storage tube (11). An accommodating hole (12) is processed on the end surface of each storage tube (11). The multiple upper covers ( 21) are fixedly connected with insertion tubes (22) corresponding to adjacent accommodating holes (12), and also include a sealing sleeve (14) fixedly connected to the accommodating hole (12) to prevent sample leakage, and also include a ferrule (31) that drives multiple upper covers (21) to move, each ferrule (31) is fixedly connected with a spring (32) that maintains the spacing between adjacent ferrules (31), and multiple ferrules (31) are all slid on the limiting frame (33), and also include an electric telescopic rod I (35) fixedly connected to the limiting frame (33) to push multiple adjacent storage tubes (11) to connect with the upper cover (21).

2. The intelligent diagnosis and treatment ecosystem according to claim 1, characterized in that: The invention also includes a base plate (34) for driving the limiting frame (33) to rotate, and two vertical plates (42) for supporting the base plate (34) to rotate. The two vertical plates (42) are both fixedly connected to the base frame (41). The base frame (41) is fixedly connected to two electric telescopic rods II (43) for supporting the base plate (34) to rotate.

3. The intelligent diagnosis and treatment ecosystem according to claim 2, characterized in that: It also includes two spring telescopic rods (44) fixedly connected to the base frame (41) for buffering the rotating base plate (34).

4. The intelligent diagnosis and treatment ecosystem according to claim 3, characterized in that: The invention also includes a sliding frame (51) sliding on the base plate (34), a negative pressure pump (52) fixedly connected to the sliding frame (51), a connecting pipe (53) slidably mounted on the negative pressure pump (52), the connecting pipe (53) fixedly connected to the follower plate (54), the follower plate (54) fixedly connected to the electric telescopic rod III (55), and the electric telescopic rod III (55) fixedly connected to the sliding frame (51).

5. The intelligent diagnosis and treatment ecosystem according to claim 4, characterized in that: It also includes a screw rod (61) that rotates on the base plate (34) to drive the sliding frame (51) to slide.

6. The intelligent diagnosis and treatment ecosystem according to claim 5, characterized in that: It also includes a rubber pad (13) fixedly connected to the storage tube (11) to facilitate the insertion of the connecting tube (53) into the storage tube (11) to create a negative pressure condition.

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