Noninvasive traditional Chinese medicine qi and blood detection device based on biosensor

Abstract

The invention relates to the technical field of traditional Chinese medicine diagnosis and treatment equipment, in particular to a non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor, which comprises a machine body, a plurality of lines are fixedly arranged on one side of the machine body, a detection part is arranged at one end of each line, sliding parts are arranged on four sides of the detection part, and an adhesion part is arranged on one side of each sliding part to form a telescopic structure. In cooperation with the detection parts, the detection parts work independently or the multiple detection parts are connected with one another and cooperate with one another, and multi-point detection is achieved. According to the invention, the plurality of detection parts are electrically connected through the circuit, when small-area positions such as toes or a certain position of a sole or a palm need to be detected, one of the detection parts is started to perform qi and blood detection on a specific skin position, and the plurality of detection parts are separated and started to perform qi and blood detection on a specific skin position. The plurality of detection parts are respectively attached to small-area positions such as toes, fingers, earlobes and the like and a certain position of a sole or a palm, so that qi and blood detection can be simultaneously carried out on a plurality of positions.

Description

Technical Field

[0001] The present invention relates to the technical field of traditional Chinese medicine diagnosis and treatment equipment, and in particular to a non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor. Background Art

[0002] The Traditional Chinese Medicine Qi and Blood Detector is a medical device that combines modern biosensor technology with Traditional Chinese Medicine theory. It collects physiological parameters related to human qi and blood in a non-invasive way to evaluate the state of qi and blood. It uses the optical imaging principle of biosensors (such as optical sensors, etc.) to evaluate the state of skin microcirculation and detect biological data such as blood oxygen saturation and hemoglobin concentration.

[0003] At present, the existing gas and blood detectors have the following defects when in use: First, because the human body's toes, soles, fingers, palms and earlobes are rich in capillaries, when the blood and qi detector performs blood and qi detection on different parts of the human skin, the number of detection probes is single, and only one of the toes, soles, fingers, palms and earlobes can be detected at a time. Multiple locations often need to be tested multiple times, which reduces the detection efficiency; Secondly, when the qi and blood detector performs qi and blood detection on areas with larger skin areas such as the soles and palms, if the contact area between the output end of the detection probe and the soles or palms is too small, the detection probe will not be able to perform qi and blood detection on the entire soles or palms. If the contact area between the output end of the detection probe and the soles or palms is too large, the detection probe will not be able to fully contact the soles or palms, and it will not be easy to contact the fingers, toes, and earlobes with smaller areas for qi and blood detection, thereby reducing the detection accuracy of the detection probe. In view of this, we propose a non-invasive Chinese medicine qi and blood detection device based on biosensors. Summary of the invention

[0004] The present invention aims at the technical problems existing in the prior art and provides a non-invasive Chinese medicine qi and blood detection device based on a biosensor to solve the problems that the existing solutions have a single number of detection probes and can only detect one of the toes, soles, fingers, palms and earlobes at a time, and multiple positions often need to be detected multiple times, which reduces the detection efficiency; the contact area between the detection probe and the palm or sole is too small or too large, which is not conducive to detecting various positions of the patient's skin.

[0005] To achieve the above object, a non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor includes a body. A plurality of signal transmission lines are fixedly arranged on one side of the body. One end of each line is provided with a detection part for detecting the qi and blood state of a patient, and the detection part is arc-shaped to adapt to the skin curvature. Sliding parts are arranged on four sides of the detection part. An adhesion part for splicing or pasting is arranged on one side of each sliding part. The sliding parts form a displacement structure for disassembling and assembling the detection part or the adhesion part, facilitating the update of the detection part or the adhesion part, and form a telescopic structure for stretching or compressing to meet the splicing requirements. In cooperation with the detection part, the detection part can work independently or multiple detection parts can be connected to each other for collaborative and multi-point detection.

[0006] The beneficial effects of the present invention are as follows: 1) In the non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor, multiple detection parts are electrically connected through the lines. When it is necessary to detect positions with a small area such as toes, fingers, earlobes, or to detect the qi and blood at a certain position on the sole or palm, one of the multiple detection parts is enabled and attached to the skin position to be detected, and the qi and blood of the specific skin position can be detected. If it is necessary to detect positions with a small area such as toes, fingers, earlobes and a certain position on the sole or palm simultaneously, multiple detection parts are separated and enabled, and the multiple detection parts are respectively attached to positions with a small area such as toes, fingers, earlobes and a certain position on the sole or palm, so that the qi and blood can be detected at multiple positions simultaneously to obtain qi and blood data, which is beneficial to improving the detection efficiency.

[0007] 2) In the non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor, multiple detection parts are spliced with each other through the adhesion part, and the length of the adhesion part is changed by using the telescopic structure of the adhesion part itself to connect multiple detection parts for detecting the sole or palm. On the one hand, multiple detection parts simultaneously detect multiple positions on the sole or palm with a larger area, increasing the actual contact area between the detection part and the sole or palm, and also preventing the surface area of a single detection part from being too large, so that the detection part cannot fully contact the sole or palm for qi and blood detection, and also preventing the surface area of a single detection part from being too large to detect the skin areas with a small area such as toes, fingers or earlobes, which is beneficial to improving the detection accuracy of the detection part.

[0008] On the basis of the above technical solution, the present invention can be further improved as follows: As a further improvement of this technical solution, the detection part includes a flexible block, and a detection head for detecting the qi and blood data of the patient is fixedly arranged at the center of one side of the flexible block. The detection head is electrically connected to the line.

[0009] The beneficial effects of adopting the above further solution are as follows: An optical sensor is built into the detection head. The optical sensor includes structural components such as a light source module and a receiver. The light source module emits multi-wavelength light beams such as red light and infrared light to penetrate tissues. The receiver detects the change in transmitted / reflected light intensity and converts it into an electrical signal. Through the operation of the detection head itself, a certain position on the toe, finger, earlobe, palm or sole is detected. The detected qi and blood data is converted into an electrical signal and transmitted via a circuit to be stored and displayed in the body, causing no harm to the patient and having good safety.

[0010] As a further improvement of this technical solution, on both ends of one side of the flexible block, adhesive strips are symmetrically arranged for adhering the flexible block and the detection head to the skin. The thickness of the adhesive strip is less than the thickness of the detection head.

[0011] The beneficial effects of adopting the above further solution are as follows: The thickness of the adhesive strip is less than the thickness of the detection head, enabling the surface of the detection head to be in full contact with the skin. If the thickness of the adhesive strip is too thick, the surface of the detection head cannot be in full contact with the skin, thus weakening the detection effect of the detection head. Through the arrangement of the adhesive strip, the side of the adhesive strip away from the flexible block has adhesiveness. The adhesive strip contacts the skin around the point to be detected and fixes the detection head on the point to be detected, enabling the detection head to normally detect the detection point and preventing the detection head from falling off and affecting the qi and blood detection process.

[0012] As a further improvement of this technical solution, a sliding groove is formed at the connection between the flexible block and the adhesive strip. A slider is slidably arranged in the sliding groove, and the other side of the adhesive strip is fixedly arranged on the slider.

[0013] The beneficial effects of adopting the above further solution are as follows: By sliding the slider along the inside of the sliding groove, the adhesive strip is driven to slide, causing the adhesive strip and the slider to separate from the flexible block. A new adhesive strip and slider are replaced, and then the new slider and adhesive strip are slid along the sliding groove to move the new adhesive strip to the original position, which can limit the position of the detection head again and prevent the detection head from falling off.

[0014] As a further improvement of this technical solution, the output end of the detection head is set to be arc-shaped and in a concave shape.

[0015] The beneficial effects of adopting the above further solution are as follows: Through the concave arc-shaped setting of the detection head, when the detection head contacts the skin to be detected, the output surface of the detection head can be in full contact with the skin as much as possible. When the detection head works, it can detect the qi and blood state of the skin at the detection point as fully as possible, obtain qi and blood data, and enhance the detection effect.

[0016] As a further improvement of this technical solution, the adhesion part includes a flexible band, and one end of the flexible band close to the flexible block is arranged on the sliding part.

[0017] The beneficial effect of adopting the above further scheme is that different flexible blocks are spliced together through a flexible belt, so that multiple detection heads can be connected together to detect qi and blood in positions with a relatively large skin area such as the sole of the foot or the palm of the hand. Moreover, since the detection heads are connected together, the probability of the detection heads falling off the human skin is also reduced.

[0018] As a further improvement of this technical solution, a magic male sticker and a magic female sticker are symmetrically and fixedly arranged at one end of the flexible belt far from the detection head, and one end of the flexible belt far from the detection head is set in a bent shape.

[0019] The beneficial effect of adopting the above further scheme is that by setting one end of the detection head in a bent shape, the magic male sticker and the magic female sticker are arranged oppositely. This enables, when different flexible belts are spliced with each other, different magic male stickers and magic female stickers to be adhered to each other, thus different flexible belts can be connected together, and further different detection heads can be spliced together to detect qi and blood in positions such as the sole of the foot or the palm of the hand.

[0020] As a further improvement of this technical solution, a glue block is fixedly arranged at the bent part of the flexible belt, and both ends of the glue block are adhered to each other.

[0021] The beneficial effect of adopting the above further scheme is that by tearing open the glue block to make it unfold, as shown in the figure, the glue block can be adhered to the skin, which plays a certain limiting role on the flexible belt. At the same time, it will further limit the detection head and the flexible block, and further reduce the risk of the detection head and the flexible block falling off the detection point.

[0022] As a further improvement of this technical solution, the middle part of the flexible belt is set in a wavy shape.

[0023] The beneficial effect of adopting the above further scheme is that the wavy shape is a telescopic structure. Through the telescopic characteristics of the wavy structure, the adjustable range of the flexible belt can be increased, and detection heads at different distances within a large range can be spliced.

[0024] As a further improvement of this technical solution, the sliding part includes a grooved strip, the outer side of the grooved strip is fixedly arranged on the side of the flexible block, and a sliding strip is slidably arranged on the inner wall of the grooved strip, and one side of the sliding strip is fixedly arranged on the flexible belt.

[0025] The beneficial effect of adopting the above further scheme is that by sliding the sliding strip inside the grooved strip to make the sliding strip leave the grooved strip, the flexible belt can be driven to leave the side of the flexible belt, as shown in the figure, to achieve the purpose of replacing a new flexible belt.

[0026] In addition to the purposes, features and advantages described above, the present invention has other purposes, features and advantages. The following will refer to the drawings to make a further detailed description of the present invention. Brief Description of the Drawings

[0027] Figure 1 is a schematic structural diagram of the overall external first perspective of the present invention; Figure 2 is a schematic structural diagram of the overall external second perspective of the present invention; Figure 3 is a schematic connection structural diagram of the detection part, sliding part and adhesion part of the present invention; Figure 4 is a schematic structural diagram of the slide bar sliding along the groove-shaped bar of the present invention; Figure 5 is a schematic structural diagram of one way of splicing multiple detection heads of the present invention; Figure 6 is a schematic structural diagram of another way of splicing multiple detection heads of the present invention; Figure 7 is a schematic diagram of the unfolding process of the glue block of the present invention; Figure 8 is a schematic structural diagram of the adhesion part after the glue block of the present invention is unfolded.

[0028] The meanings of the various reference numerals in the figure are as follows: 1, body; 2, circuit; 3, detection part; 31, flexible block; 32, detection head; 33, glue strip; 34, slider; 4, sliding part; 41, groove-shaped bar; 42, slide bar; 5, adhesion part; 51, flexible belt; 52, magic male hook; 53, magic female hook; 54, glue block. Detailed Description of the Invention

[0029] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0030] In the existing solution, the number of detection probes is single, and only one of the positions such as toes, soles of the feet, fingers, palms and earlobes can be detected at a time. Multiple positions often require multiple detections, reducing the detection efficiency; the contact area between the detection probe and the palm or the sole of the foot is too small or too large, which is not conducive to detecting various positions of the patient's skin.

[0031] Therefore, the present invention provides a non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor. Please refer to Figures 1-8It includes a body 1, a plurality of lines 2 for transmitting signals are fixedly arranged on one side of the body 1, a detection part 3 for detecting the patient's qi and blood status is arranged at one end of the line 2, and is set to be arc-shaped to adapt to the curvature of the skin, and the four sides of the detection part 3 are all provided with sliding parts 4, and one side of the sliding part 4 is provided with an adhesive part 5 for splicing or pasting, and the sliding part 4 forms a displacement structure to disassemble and assemble the detection part 3 or the adhesive part 5, which is convenient for updating the detection part 3 or the adhesive part 5, forming a telescopic structure to stretch or compress, adapt to the splicing requirements, cooperate with the detection part 3, so that the detection part 3 works alone or multiple detection parts 3 are connected to each other for coordinated, multi-point detection, wherein: The present invention Figures 1-2 As shown, considering that the human body's toes, soles, fingers, palms and earlobes are rich in capillaries, when the device performs blood and qi detection on different parts of the human skin, the number of detection parts 3 is single, and only one of the toes, soles, fingers, palms and earlobes can be detected at one time. Multiple locations often need to be detected multiple times, which reduces the detection efficiency. Therefore, Figure 2 As shown, multiple detection parts 3 are electrically connected through the line 2. When it is necessary to detect a position with a smaller area such as a toe, a finger, an earlobe, or to detect qi and blood at a certain position on the sole of the foot or the palm of the hand, one of the multiple detection parts 3 is activated, and the detection part 3 is attached to the skin position to be detected, and qi and blood detection can be performed on the specific skin position. If it is necessary to detect a position with a smaller area such as a toe, a finger, an earlobe, and a certain position on the sole of the foot or the palm of the hand at the same time, the multiple detection parts 3 are separated and activated, and the multiple detection parts 3 are respectively attached to the position with a smaller area such as a toe, a finger, an earlobe, and a certain position on the sole of the foot or the palm of the hand, and qi and blood detection can be performed on multiple positions at the same time to obtain qi and blood data, which is conducive to improving the detection efficiency; When the device detects blood and qi at locations with a large skin area such as the soles of the feet and the palms, if the contact area between the output end of the detection unit 3 and the soles of the feet or the palms is too small, the detection unit 3 will not be able to detect blood and qi at all locations on the soles of the feet or the palms. If the contact area between the output end of the detection unit 3 and the soles of the feet or the palms is too large, the detection unit 3 will not be able to fully contact the soles of the feet or the palms, and it will not be easy to contact the fingers, toes and earlobes with smaller areas for blood and qi detection, thereby reducing the detection accuracy of the detection unit 3. Figures 5-6As shown in the figure, multiple detection parts 3 are spliced together by an adhesion part 5, and the length of the adhesion part 5 is changed by the telescopic structure of the adhesion part 5 itself to connect multiple detection parts 3 for detecting the sole or the palm. On the one hand, multiple detection parts 3 respectively detect multiple positions on the sole or the palm with a relatively large area at the same time, increasing the actual contact area between the detection part 3 and the sole or the palm, and also preventing the surface area of a single detection part 3 from being too large, so that the detection part 3 cannot fully contact the sole or the palm to detect its qi and blood, and also preventing the surface area of a single detection part 3 from being too large to detect the qi and blood of parts with a relatively small skin area such as toes, fingers or earlobes, which is beneficial to improving the detection accuracy of the detection part 3.

[0032] On this basis, the specific structure is disclosed in detail: When a single detection part 3 is to detect a certain position on a toe, a finger, an earlobe, a palm or a sole, the specific structure of the detection part 3 needs to be disclosed. Therefore, as Figure 3 shown, the detection part 3 includes a flexible block 31. A detection head 32 for detecting the qi and blood data of a patient is fixedly arranged at the center of one side of the flexible block 31. The detection head 32 is electrically connected to the circuit 2. The detection head 32 is internally provided with an optical sensor. The optical sensor includes a light source module, a receiver and other structures. The light source module emits multi-wavelength light beams such as red light and infrared light to penetrate tissues, and the receiver detects the change in the transmitted / reflected light intensity and converts it into an electrical signal. Through the operation of the detection head 32 itself, a certain position on a toe, a finger, an earlobe, a palm or a sole is detected, and the detected qi and blood data is converted into an electrical signal and transmitted to the body 1 through the circuit 2 for storage and display, which is harmless to the patient and has good safety.

[0033] Considering that whether a single or multiple detection heads 3 are used to detect the qi and blood of a patient's skin, the detection head 32 and the flexible block 31 need to be attached to the skin to be detected. Therefore, the specific structure of the detection part 3 needs to be further disclosed. Therefore, as Figure 3 shown, adhesive strips 33 for adhering the flexible block 31 and the detection head 32 to the skin are symmetrically arranged at both ends of one side of the flexible block 31; The thickness of the adhesive strip 33 is less than the thickness of the detection head 32. The thickness of the adhesive strip 33 is less than the thickness of the detection head 32, so that the surface of the detection head 32 can fully contact the skin. If the thickness of the adhesive strip 33 is too thick, the surface of the detection head 32 cannot fully contact the skin, resulting in a weakened detection effect of the detection head 32; Through the arrangement of the adhesive strip 33, the side of the adhesive strip 33 away from the flexible block 31 has adhesiveness. The adhesive strip 33 contacts the skin around the detection point to be detected, and fixes the detection head 32 at the detection point to be detected, so that the detection head 32 can normally detect the detection point, preventing the detection head 32 from falling off and affecting the qi and blood detection process.

[0034] Considering that after the adhesive strip 33 is used many times, it is likely to lose its adhesiveness and can no longer adhere to the skin, thus failing to fix the position of the detection head 32. To replace the worn-out adhesive strip 33, it is necessary to further disclose the specific structure of the detection unit 3. Therefore, as Figure 3 shown, a chute is provided at the connection between the flexible block 31 and the adhesive strip 33. A slider 34 is slidably arranged in the chute. The other side of the adhesive strip 33 is fixedly arranged on the slider 34. By sliding the slider 34 along the inside of the chute, the adhesive strip 33 is driven to slide, so that the adhesive strip 33 and the slider 34 are separated from the flexible block 31. Then, a new adhesive strip 33 and slider 34 are replaced, and the new slider 34 and adhesive strip 33 are slid along the chute, so that the new adhesive strip 33 is moved to the original position, and the position of the detection head 32 can be limited again to prevent the detection head 32 from falling off.

[0035] Considering that most of the skin waiting for detection has a certain degree of curvature or arc, and it is necessary for the output end of the detection head 32 to fit the skin as much as possible, it is necessary to further disclose the specific structure of the detection unit 3. Therefore, as Figure 3 shown, the output end of the detection head 32 is set to be arc-shaped and concave. Through the concave arc-shaped setting of the detection head 32, when the detection head 32 contacts the skin waiting for detection, the output surface of the detection head 32 can be in full contact with the skin as much as possible. When the detection head 32 works, it can detect the qi and blood state of the skin at the detection point as fully as possible, obtain qi and blood data, and enhance the detection effect.

[0036] Among them, to enable the adhesion part 5 to join different detection heads 32 together, it is necessary to disclose the specific structure of the adhesion part 5. Therefore, as Figure 3 shown, the adhesion part 5 includes a flexible belt 51. One end of the flexible belt 51 close to the flexible block 31 is arranged on the sliding part 4. Different flexible blocks 31 are joined together through the flexible belt 51, so that multiple detection heads 32 can be connected together to detect the qi and blood of positions with a relatively large skin area such as the sole or the palm. Moreover, when the detection heads 32 are connected together, the probability of the detection heads 32 falling off the human skin is also reduced.

[0037] Among them, to enable adjacent two flexible belts 51 to be connected to each other to achieve the purpose of joining the detection heads 32, simply relying on the flexible belt 51 itself cannot connect adjacent two flexible belts 51 together. It is necessary to further disclose the specific structure of the adhesion part 5. Therefore, as Figure 3As shown in the figure, at one end of the flexible band 51 far from the detection head 32, a magic male fastener 52 and a magic female fastener 53 are symmetrically and fixedly arranged, and one end of the flexible band 51 far from the detection head 32 is set in a bent shape. By setting one end of the detection head 32 in a bent shape, the magic male fastener 52 and the magic female fastener 53 are arranged oppositely. This enables different flexible bands 51 to be spliced together by simply sticking the different magic male fasteners 52 and magic female fasteners 53 to each other. In this way, different flexible bands 51 can be connected together, as Figures 5-6 shown, and then different detection heads 32 can be spliced together to detect qi and blood at positions such as the sole of the foot or the palm of the hand.

[0038] Among them, when the detection head 32 is used alone, since the adhesive strip 33 is only arranged near the detection head 32, it is difficult to limit the flexible band 51 connected near the flexible block 31. To limit the flexible band 51 at this time and further limit the detection head 32, the specific structure of the adhesion part 5 needs to be further disclosed. Therefore, as Figure 3 shown, a rubber block 54 is fixedly arranged at the bent part of the flexible band 51, and both ends of the rubber block 54 are adhered to each other. By tearing open the rubber block 54 to make it unfold, as Figure 7 shown, the rubber block 54 can be adhered to the skin, which plays a certain role in limiting the flexible band 51, and at the same time further limits the detection head 32 and the flexible block 31, further reducing the risk of the detection head 32 and the flexible block 31 falling off from the detection point.

[0039] Among them, due to the limitation of the flexibility of the flexible band 51 itself, it is impossible to adjust the degree within a large range to splice different detection heads 32. To further expand the adjustment range of the flexible band 51, the specific structure of the adhesion part 5 needs to be further disclosed. Therefore, as Figure 3 shown, the middle part of the flexible band 51 is set in a wave shape, and the wave shape is a telescopic structure. Through the telescopic characteristics of the wave structure, the adjustable range of the flexible band 51 can be increased, and different detection heads 32 at different distances within a large range can be spliced.

[0040] Among them, to replace the adhesion part 5 that has been used for a long time and avoid the old adhesion part 5 affecting the normal use of the detection head 32, the specific structure of the sliding part 4 needs to be disclosed. Therefore, as Figure 3 shown, the sliding part 4 includes a channel-shaped strip 41. The outside of the channel-shaped strip 41 is fixedly arranged on the side of the flexible block 31. A slide bar 42 is slidably arranged on the inner wall of the channel-shaped strip 41. One side of the slide bar 42 is fixedly arranged on the flexible band 51. By sliding the slide bar 42 inside the channel-shaped strip 41 to make the slide bar 42 leave the channel-shaped strip 41, the flexible band 51 can be driven away from the side of the flexible band 51, as Figure 4 shown, to achieve the purpose of replacing the new flexible band 51.

[0041] In summary, the overall working principle of the present invention is as follows: When it is necessary to detect a certain position on the toe, finger, earlobe, palm or sole of the foot, the detection head 32 is attached to the point to be detected. The adhesive strip 33 contacts the skin around the point to be detected, fixing the detection head 32 at the point to be detected. The detection head 32 operates on its own, and the detected qi and blood data is converted into an electrical signal and transmitted via the circuit 2 to the body 1 for storage and display. Similarly, when detecting a certain position on the toe, finger, earlobe, palm or sole of the foot simultaneously, multiple detection heads 32 can be enabled respectively; When it is necessary to detect the qi and blood of multiple detection points on positions with a relatively large skin area such as the sole of the foot and the palm, multiple detection heads 32 are also attached to each detection point respectively. Different magic stickers 52 and magic patches 53 are adhered to each other to splice different flexible bands 51. Then, the detection head 32 is started, and the detection process is repeated.

[0042] The above shows and describes the basic principle, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. The above embodiments and the descriptions in the specification are only preferred examples of the present invention and are not used to limit the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. A non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor, which comprises a body (1), and a plurality of signal transmission lines (2) are fixedly arranged on one side of the body (1), and is characterized in that: One end of the circuit (2) is provided with a detection part (3) for detecting the qi and blood state of a patient, and it is set to be arc-shaped to adapt to the skin curvature. Sliding parts (4) are arranged on four side edges of the detection part (3). An adhesion part (5) for splicing or pasting is arranged on one side of the sliding part (4). The sliding part (4) forms a displacement structure to disassemble and assemble the detection part (3) or the adhesion part (5), facilitating the update of the detection part (3) or the adhesion part (5), and forms a telescopic structure to stretch or compress to meet the splicing requirements. Cooperating with the detection part (3), the detection part (3) works alone or multiple detection parts (3) are connected to each other to cooperate and perform multi-point detection.

2. The non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor according to claim 1, characterized in that: The detection part (3) includes a flexible block (31). A detection head (32) for detecting the qi and blood data of a patient is fixedly arranged at the center of one side of the flexible block (31). The detection head (32) is electrically connected to the circuit (2).

3. The non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor according to claim 2, wherein: On both ends of one side of the flexible block (31), adhesive strips (33) for adhering the flexible block (31) and the detection head (32) to the skin are symmetrically arranged; The thickness of the adhesive strip (33) is smaller than the thickness of the detection head (32).

4. The non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor according to claim 3, wherein: A chute is opened at the connection between the flexible block (31) and the adhesive strip (33). A slider (34) is slidably arranged in the chute. The other side of the adhesive strip (33) is fixedly arranged on the slider (34).

5. The non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor according to claim 4, wherein: The output end of the detection head (32) is set to be arc-shaped and in a concave shape.

6. The non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor according to claim 5, wherein: The adhesion part (5) includes a flexible belt (51). One end of the flexible belt (51) close to the flexible block (31) is arranged on the sliding part (4).

7. The non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor according to claim 6, wherein: On one end of the flexible belt (51) far from the detection head (32), a magic male fastener (52) and a magic female fastener (53) are symmetrically and fixedly arranged, and one end of the flexible belt (51) far from the detection head (32) is set to be in a curved shape.

8. The non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor according to claim 7, characterized in that: A glue block (54) is fixedly arranged at the curved part of the flexible belt (51), and both ends of the glue block (54) are adhered to each other.

9. The non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor according to claim 8, characterized in that: The middle part of the flexible belt (51) is set to be in a wavy shape.

10. The non-invasive traditional Chinese medicine qi and blood detection device based on a biosensor according to claim 9, characterized in that: The sliding part (4) includes a channel-shaped strip (41). The outer side of the channel-shaped strip (41) is fixedly arranged on the side edge of the flexible block (31). A sliding strip (42) is slidably arranged on the inner wall of the channel-shaped strip (41). One side of the sliding strip (42) is fixedly arranged on the flexible belt (51).

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