A 5G-based remote health diagnosis platform

Abstract

This invention relates to the field of medical device technology, and more specifically to a 5G-based remote health diagnosis platform. It includes a data processing center and a check-in machine. The data processing center can sort and distribute patients' fingerprint information to databases in different clinics. The databases can transmit fingerprint information to the corresponding check-in machines, where patients can prepare for check-in. The fingerprint information of those who do not check in can be fed back to the database for future use. The check-in machine automatically cleans and disinfects itself after a patient's fingerprint is scanned to prevent bacterial infection. The check-in machine includes a pressure plate with a fingerprint sensor, slides on both sides of the pressure plate, and rollers sliding within the slides. It automatically cleans and disinfects itself after a patient's fingerprint is scanned to check in.

Description

Technical Field

[0001] This invention relates to the field of medical device technology, and more specifically to a 5G-based remote health diagnosis platform. Background Technology

[0002] In existing hospitals, patients need to register in advance and sign in before seeing a doctor. Since the number of patients in hospitals is large and the patients are diverse, they need to sign in in advance when they arrive at the outpatient waiting area so that the doctor can know them. However, after multiple patients touch the sign-in device, bacteria remain on the sign-in device, which can easily lead to the spread of bacteria to other patients when they use it later. Summary of the Invention

[0003] To overcome the shortcomings of existing technologies, this invention provides a 5G-based remote health diagnosis platform that can automatically perform cleaning and disinfection after the patient signs in using fingerprint recognition.

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

[0005] A 5G-based remote health diagnosis platform includes a data processing center and a check-in machine. The data processing center can sort and distribute patients' fingerprint information into databases of different clinics. The database can transmit fingerprint information to the corresponding check-in machine, where patients can check in. The fingerprint information of those who do not check in can be fed back to the database through the check-in machine for future use.

[0006] Furthermore, the database can feed back doctor consultation information to the data processing center so that patients can download, save, and archive it.

[0007] Furthermore, the check-in machine can automatically clean and disinfect itself after the patient signs in using their fingerprint, thus preventing the spread of bacteria.

[0008] The check-in machine further includes a pressure plate with a fingerprint touchpad, slides on both sides of the pressure plate, and rollers that slide in the slides. Attached Figure Description

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

[0010] Figure 1 This is a schematic diagram of the 5G-based remote health diagnosis platform in this invention;

[0011] Figure 2 This is a schematic diagram of the sign-in machine in this invention;

[0012] Figure 3This is a schematic diagram of the outer shell structure in this invention;

[0013] Figure 4 This is a schematic diagram of the pressure plate in the present invention;

[0014] Figure 5 This is a schematic diagram of the roller structure in this invention;

[0015] Figure 6 This is a schematic diagram of the structure of the sponge in this invention;

[0016] Figure 7 This is a schematic diagram of the wedge block in this invention;

[0017] Figure 8 This is a schematic diagram of the sidewall structure in this invention;

[0018] Figure 9 This is a partial structural diagram of the sign-in machine in this invention;

[0019] Figure 10 This is a cross-sectional view of the check-in machine in this invention. Detailed Implementation

[0020] See Figure 1 As shown in the figure, an exemplary workflow for data processing by a 5G-based remote health diagnostic platform is as follows:

[0021] The 5G-based remote health diagnosis platform includes a data processing center and a check-in machine. Patients register at the counter and input their fingerprints and identity information via the internet. This information is transmitted to the data processing center, which then sorts and distributes the fingerprints to different clinic databases. The databases then transmit the fingerprints to the corresponding check-in machines, where patients can prepare for check-in. The check-in machines automatically clean and disinfect themselves after fingerprint recognition to prevent bacterial transmission. Simultaneously, the database transmits patient information and check-in status to the doctor's computer for viewing. The fingerprints of those who did not check in are fed back to the database through the check-in machine, allowing doctors to know when patients are present and conduct consultations. Furthermore, the identity information of those who did not check in can be transmitted back to the check-in machine from the database for future check-in attempts.

[0022] After a doctor examines a patient, the database can send the doctor's consultation information back to the data processing center so that the patient can download, save, and archive it.

[0023] See Figure 4 and Figure 5 As shown in the figure, an exemplary working process for cleaning the fingerprint touchpad 06 is as follows:

[0024] Because hospitals have a large and diverse patient population, patients need to sign in before arriving at the outpatient waiting area so that doctors can be aware of their presence. However, after multiple patients touch the fingerprint sensor 06 used for signing in, bacteria remain on it, which can easily spread to other patients. Therefore, to avoid this, the sign-in machine described in this invention includes a pressure plate 05 with the fingerprint sensor 06, slides 07 on both sides of the pressure plate 05, and rollers 08 sliding in the slides 07. The outer surface of the rollers 08 is covered with a cotton cleaning sleeve. When a patient signs in using their fingerprint... Upon arrival, simply touch and press your finger on the fingerprint touchpad 06 to perform fingerprint recognition. After recognizing the corresponding patient information, check-in is completed. After the patient has finished using the device, the roller 08 slides along the slide rails 07 on both sides of the pressure plate 05. This allows the cleaning sleeve on the outer surface of the roller 08 to clean the surfaces of the pressure plate 05 and the fingerprint touchpad 06 as it moves, wiping away any traces left by the patient. Disinfectant can also be added to the cleaning sleeve to disinfect and clean the surfaces of the pressure plate 05 and the fingerprint touchpad 06, killing bacteria and preventing the spread of bacteria to other patients.

[0025] See Figure 4 and Figure 6 An exemplary procedure for replenishing disinfectant solution, as shown in the diagram, is as follows:

[0026] During the movement of roller 08, when the cleaning sleeve cleans the surface of pressure plate 05 and fingerprint touch panel 06, the disinfectant in the cleaning sleeve will be gradually consumed. In order to facilitate the replenishment of disinfectant at any time, the check-in machine of the present invention also includes two medicine tanks 10 respectively fixed at both ends of pressure plate 05 and each equipped with a vertical plate 11, and a sponge 12 set on each vertical plate 11. The medicine tank 10 is connected to the sponge 12 through a pipe. Before use, disinfectant only needs to be added to the medicine tank 10 in advance, so that the disinfectant can enter the sponge 12 on the vertical plate 11 through the pipe. When roller 08 moves to one end of pressure plate 05, the cleaning sleeve on roller 08 can contact the sponge 12, so that the disinfectant in the sponge 12 can soak into the cleaning sleeve. During use, when roller 08 moves from one end of pressure plate 05 to the other end of pressure plate 05, roller 08 will make the cleaning sleeve contact the corresponding sponge 12, so that the disinfectant in the two sponges 12 can be replenished into the cleaning sleeve.

[0027] See Figure 2 and Figure 3 As shown in the figure, an exemplary procedure for disinfecting a patient's fingers is as follows:

[0028] The check-in machine of this invention also includes a housing 01 and two liquid storage tanks 03 disposed inside the housing 01. Each of the two liquid storage tanks 03 is equipped with a nozzle arranged in a mirror image. A pressure plate 05 is installed inside the housing 01. When a patient uses the machine, they need to insert their finger into the housing 01 so that the fingerprint area can contact the fingerprint touchpad 06. At this time, the power source can be used to spray the alcohol disinfectant in the two liquid storage tanks 03, so that the two liquid storage tanks 03 can disinfect the patient's finger located between the two liquid storage tanks 03, further ensuring that the patient will not be contaminated with bacteria after using the check-in machine, thus ensuring the patient's health.

[0029] See Figure 7 and Figure 8 As shown in the figure, an exemplary working process for extending the disinfection range of fingers is as follows:

[0030] To increase the area of ​​finger disinfection, the check-in machine of this invention also includes a wedge 13 set on the pressure plate 05, a base 14 located inside the outer casing 01, and a slide rod 15 fixed on the wedge 13 and sliding on the base 14. During use, when the patient's finger touches and presses on the fingerprint touch plate 06, the pressure plate 05 can drive the wedge 13 to slide down on the base 14. A spring for reset is provided between the wedge 13 and the base 14 to buffer the movement, so that the patient's finger presses on the fingerprint touch plate 06 and gradually descends relative to the outer casing 01, so that the patient's finger gradually enters the outer casing 01, so that more of the patient's finger is located between the two liquid tanks 03, so that the alcohol disinfectant in the two liquid tanks 03 is sprayed on more parts of the patient's finger for disinfection.

[0031] See Figure 8 and Figure 9 As shown in the figure, an exemplary working process of the automatic cleaning fingerprint touchpad 06 is as follows:

[0032] To achieve automatic cleaning, the check-in machine of this invention also includes two side rods 16 connected by springs and sliding on the base 14, and small metal blocks 09 fixed at both ends of the roller 08. Side walls 17 are fixed to the side rods 16, and magnets are installed inside the side walls 17. When the small blocks 09 approach or contact the side walls 17, they are attracted by the magnetic field generated by the magnets, causing the small blocks 09 to adhere to the side walls 17. When a finger presses down on the fingerprint touchpad 06, the pressure plate 05 drives the wedge block 13 to slide down on the base 14. At this time, the wedge block 13, using its inclined surface, pushes the side rods 16 to slide horizontally on the base 14. Simultaneously, the spring between the base 14 and the side rods 16 is compressed, and the side rods 16 cause the side walls 17 to move away from the sides, causing the side walls to... 17 drives the small piece 09 to move outward. When the roller 08 moves to one end of the slide 07, it stops moving. At this time, as the side wall 17 continues to move, the small piece 09 will detach from the side wall 17. When the check-in is completed and the fingerprint touchpad 06 is left, the wedge block 13 is reset and raised by the spring. At the same time, the side rod 16 will also be reset. When the side wall 17 moves and resets, it will use its own movement to push the small piece 09, so that the small piece 09 has an initial velocity and potential energy to slide towards the other end of the slide 07, so that the small piece 09 moves from one end of the slide 07 to the other end. Thus, after each patient uses the device, the roller 08 will move from one end of the pressure plate 05 to the other end, thereby wiping and cleaning the surface of the pressure plate 05 and the surface of the fingerprint touchpad 06.

[0033] See Figure 2 and Figure 10 As shown in the figure, an exemplary working process for protecting the check-in machine is as follows:

[0034] The housing 01 has a partition 02 for mounting the base 14 and multiple through holes 04 inside. The partition 02 can block the sprayed alcohol, allowing the alcohol to evaporate inside the housing 01 and preventing it from falling to the outside. When in use, the signal line only needs to be connected to the slide bar 15, which also protects the signal line from being wetted by alcohol and causing leakage.

Claims

1. A 5G-based remote health diagnosis platform, comprising a data processing center and a check-in machine, characterized in that: The data processing center can sort and distribute patients' fingerprint information into databases of different outpatient clinics. The database can transmit the fingerprint information to the corresponding check-in machine, where patients can check in. The fingerprint information of those who do not check in can be fed back to the database through the check-in machine for future use. The check-in machine includes a pressure plate (05) with a fingerprint touch panel (06), slides (07) on both sides of the pressure plate (05), and rollers (08) sliding in the slides (07); A cleaning sleeve made of cotton is fitted on the outer surface of the roller (08); The check-in machine also includes two medicine boxes (10) fixed at both ends of the pressure plate (05) and each equipped with a vertical plate (11), and a sponge (12) set on each vertical plate (11). The medicine boxes (10) are connected to the sponge (12) through pipes. The check-in machine also includes a housing (01) and two liquid storage tanks (03) disposed inside the housing (01). Each of the two liquid storage tanks (03) is equipped with a nozzle and is distributed in a mirror image. A pressure plate (05) is installed inside the housing (01). The check-in machine also includes a wedge (13) set on the pressure plate (05), a base (14) located inside the housing (01), and a slide bar (15) fixed on the wedge (13) and sliding on the base (14); The check-in machine also includes two side rods (16) connected by springs and sliding on the base (14), and small metal blocks (09) fixed at both ends of the roller (08). The side rods (16) are fixed with side walls (17) on which magnets are installed. The housing (01) has a partition (02) for mounting the base (14) and a plurality of through holes (04).

2. The 5G-based remote health diagnosis platform according to claim 1, characterized in that: The database can feed back doctors' consultation information to the data processing center so that patients can download, save, and archive it.

3. The 5G-based remote health diagnosis platform according to claim 1, characterized in that: The check-in machine can automatically clean and disinfect itself after the patient signs in using their fingerprint, thus preventing the spread of bacteria.

Images