1. The detection result reading device is characterized by comprising a reading device body (1), wherein a cavity (11) at least capable of accommodating a detection part of a reagent card (2) is arranged on the reading device body (1), a detection result acquisition device (12) is arranged on the side wall of the cavity (11), and the detection result acquisition device (12) is arranged opposite to a detection part of the reagent card (2);

the reading device body (1) is further provided with a lifting device used for lifting the detection part of the reagent card (2) to one side close to the detection result acquisition device (12).

2. The device for reading the detection result according to claim 1, wherein the detection site of the reagent card (2) is provided with a concave detection window (21), the device for collecting the detection result (12) is provided with a protrusion, the protrusion of the device for collecting the detection result (12) is matched with the concave structure of the concave detection window (21), and the gap between the device for collecting the detection result (12) and the side wall of the cavity (11) allows the reagent card (2) to pass through.

3. The test result reading device according to claim 1, wherein the end of the cavity (11) away from the opening thereof is provided with a lifting slide (3), and the lifting slide (3) is used for guiding the reagent card (2) entering the cavity (11) to move towards the side close to the test result collecting device (12);

reagent card (2) is to the direction motion of being close to testing result collection system (12) under the mating reaction of lifting device and lifting landslide (3), works as when reagent card (2) is close to the lateral wall of testing result collection system (12) one side and the close laminating of cavity (11) inner wall that corresponds, the protruding structure of testing result collection system (12) is inlayed and is established in concave type testing window (21).

4. The test result reading device according to claim 1, wherein the lifting device comprises a lever (4), the lever (4) is pivoted in a side wall of the cavity (11) facing away from the test result acquisition device (12), and a rotating shaft of the lever (4) is not higher than a lower wall of the cavity (11);

in a first state, the reagent card (2) is not inserted into the cavity (11), one end, far away from the opening of the cavity (11), of the lever (4) tilts towards the side wall of the cavity (11) close to the detection result acquisition device (12), and a gap between one end, close to the opening of the cavity (11), of the lever (4) and the side wall of the cavity (11) where the detection result acquisition device (12) is located allows the reagent card (2) to pass through;

during the second state, cavity (11) lateral wall at reagent card (2) and testing result collection system (12) place is closely laminated, two swinging booms of lever (4) all are located cavity (11), two swinging boom tip of lever (4) are equal with the relative height of lever (4) rotation axis, just the tip of two swinging booms of lever (4) all with reagent card (2) contact cooperation.

5. The detection result reading device according to claim 4, wherein a protrusion (44) is provided at one end of the rotating arm of the lever (4) close to the outlet of the cavity (11), and a lifting inclined plane (45) is provided at one side of the rotating arm of the lever (4) away from the outlet of the cavity (11);

the side wall of the cavity (11) provided with the rotating arm of the lever (4) is provided with a first open hole (43), and the first open hole (43) allows the rotating arm of the lever (4) close to the opening of the cavity (11) to enter or depart from the cavity (11).

6. The device for reading the detection result according to claim 1, wherein the lifting device comprises a spring plate (5), one end of the spring plate (5) is fixedly connected with a side wall of the cavity (11) deviating from the detection result acquisition device (12), the other end of the spring plate (5) extends to one side close to an opening of the cavity (11), the spring plate (5) tilts from a connection part of the spring plate and the cavity (11) to one side close to the detection result acquisition device (12), and the spring plate (5) allows the reagent card (2) to enter or leave the cavity (11).

7. The device for reading the detection result according to claim 6, wherein a guide inclined surface (51) is arranged on one side of the spring plate (5) close to the opening of the cavity (11), and in the second state, the reagent card (2) is tightly attached to the side wall of the cavity (11) where the detection result acquisition device (12) is located, and one end of the spring plate (5) close to the opening of the cavity (11) is tightly abutted to the reagent card (2).

8. The detection result reading device according to claim 1, wherein the lifting device comprises a torsion spring (6), the torsion spring (6) is mounted on an outer wall of the cavity (11) away from the detection result acquisition device (12), a lifting rod (64) of the torsion spring (6) is located on one side close to an opening of the cavity (11), a first avoidance port (63) is formed in a side wall of the cavity (11) away from the detection result acquisition device (12), and the first avoidance port (63) allows the lifting rod (64) of the torsion spring (6) to enter or leave the cavity (11);

a first boss (65) is arranged on one side, away from the detection part, of the reagent card (2), the side face, in contact with the lifting rod (64) of the torsion spring (6), of the first boss (65) is a smooth inclined face, and the first boss (65) is in sliding fit with the lifting rod (64) of the torsion spring (6);

after the first boss (65) is contacted with the lifting rod (64) of the torsion spring (6), along with the reagent card (2) moving towards the cavity (11), the contact point of the lifting rod (64) of the torsion spring (6) and the first boss (65) moves towards the end part close to the first boss (65) until the contact point of the lifting rod (64) of the torsion spring (6) and the first boss (65) moves to the end part of the first boss (65).

9. The test result reading apparatus according to claim 1, wherein the lifting means comprises an elastic lifting plate (7), the elastic lifting plate (7) comprising a bottom plate (71), a spring (72), and a lifting block (73), the spring (72) being connected between the bottom plate (71) and the lifting block (73); a second avoidance opening (81) is formed in the side wall of the cavity (11) departing from the detection result acquisition device (12), and the second avoidance opening (81) allows the lifting block (73) to enter or depart from the cavity (11);

one side of the reagent card (2) departing from the detection part is provided with a second boss (8), and the second boss (8) is in sliding fit with the lifting block (73).

10. The test result reading apparatus according to claim 9, wherein a side of the lifting block (73) facing away from the bottom plate (71) comprises a guiding slope (9) and an action plane (91), when the reagent card (2) moves into the cavity (11), the second boss (8) contacts with the guiding slope (9) and compresses the spring (72), the second boss (8) enters the action plane (91) through the guiding slope (9), and the action plane (91) is in abutting fit with the second boss (8).

Background

In the currently known medical diagnostic products, a certain quantitative index of an analyte is obtained by analyzing fluid samples such as nasopharyngeal secretions, saliva, urine, blood and the like. The current market is divided into desktop small analytical instruments and portable hand-held instruments.

The core detection mode is basically divided into two types: the first detection means is that a light source (including a common light source and a light source with a specific wavelength) is irradiated on a detected object to be detected, and a photoelectric sensor is used for converting an optical signal into an electric signal in a mechanical motion scanning mode, and the electric signal is processed by a mainboard specific algorithm to obtain detection data for analysis; the second detection means is to form a uniform light field on the object to be detected by a light source (including a common light source and a light source with a specific wavelength), and to perform image recognition processing analysis on the image by means of camera shooting to obtain the required detection data.

In the prior art, a set of mechanical transmission mechanism needs to be installed inside the instrument by the first detection means, and the mechanical transmission mechanism comprises a transmission shaft, a sliding rail, a motor and the like, so that the risk of faults generated in the transmission process of the instrument is increased, and meanwhile, the cost is increased. The second detection means is limited by the need of focusing a certain distance when the camera is used for shooting, so the volume of the instrument detection module is larger. Moreover, the uniformity of the light field, the white balance of the camera, the interference of the background and the like all cause more interference factors in the photographing detection mode, which is not beneficial to the stability and accuracy of the detection data.

The inventor considers that the gap between the reagent card and the collecting device of the detection device in the prior art is larger, thereby influencing the detection precision, and there is a place to be improved.

Disclosure of Invention

In view of the defects in the prior art, the present invention aims to provide a device for reading the detection result.

The detection result reading device comprises a reading device body, wherein a cavity which can at least accommodate a detection part of a reagent card is arranged on the reading device body, a detection result acquisition device is arranged on the side wall of the cavity, and the detection result acquisition device is arranged opposite to a detection part of the reagent card; the reading device body is also provided with a lifting device used for lifting the detection part of the reagent card to one side close to the detection result acquisition device.

Preferably, the detection site of reagent card is provided with concave type detection window, the testing result collection system is protruding setting, the protruding structure of testing result collection system and the sunken structure looks adaptation of concave type detection window, just clearance between testing result collection system and the cavity lateral wall allows the reagent card to pass through.

Preferably, one end of the cavity, which is far away from the opening of the cavity, is provided with a lifting landslide, and the lifting landslide is used for guiding the reagent card entering the cavity to move towards one side close to the detection result acquisition device; the reagent card moves towards the direction close to the detection result acquisition device under the matching action of the lifting device and the lifting landslide, and when the side wall of one side, close to the detection result acquisition device, of the reagent card is closely attached to the inner wall of the corresponding cavity, the protruding structure of the detection result acquisition device is embedded in the concave detection window.

Preferably, the lifting device comprises a lever, the lever is pivoted in a side wall of the cavity, which is far away from the detection result acquisition device, and a rotating shaft of the lever is not higher than the lower wall of the cavity; in a first state, the reagent card is not inserted into the cavity, one end of the lever, which is far away from the opening of the cavity, tilts towards the side wall of the cavity, which is close to the detection result acquisition device, and a gap between one end of the lever, which is close to the opening of the cavity, and the side wall of the cavity, which is close to the detection result acquisition device, allows the reagent card to pass through; during the second state, the cavity lateral wall at reagent card and testing result collection system place is closely laminated, two swinging booms of lever all are located the cavity, two swinging boom tip of lever and lever rotation axis's relative height equal, just the tip of two swinging booms of lever all contacts the cooperation with the reagent card.

Preferably, a protruding part is arranged at one end, close to the cavity outlet, of the rotating arm of the lever, and a lifting inclined plane is arranged at one side, away from the cavity outlet, of the rotating arm of the lever; the cavity is provided with a first open port on the side wall of the rotating arm of the lever, and the first open port allows the rotating arm of the lever close to the opening of the cavity to enter or separate from the cavity.

Preferably, the lifting device includes the shell fragment, the one end of shell fragment and the lateral wall fastening connection that the cavity deviates from testing result collection system, the other end of shell fragment extends to the one side that is close to the cavity open-ended, the shell fragment is from its junction with the cavity to the perk of one side that is close to testing result collection system, just the shell fragment allows the reagent card to get into or deviate from inside the cavity.

Preferably, a guide inclined plane is arranged on one side, close to the cavity opening, of the elastic sheet, and in the second state, the reagent card is tightly attached to the side wall, where the detection result acquisition device is located, of the cavity, and one end, close to the cavity opening, of the elastic sheet abuts against the reagent card.

Preferably, the lifting device comprises a torsion spring, the torsion spring is mounted on the outer wall of the cavity, which is far away from the detection result acquisition device, the lifting rod of the torsion spring is positioned on one side close to the opening of the cavity, a first avoidance port is formed in the side wall of the cavity, which is far away from the detection result acquisition device, and the first avoidance port allows the lifting rod of the torsion spring to enter or leave the cavity; a first boss is arranged on one side of the reagent card, which is far away from the detection part, the side surface of the first boss, which is in contact with the torsion spring lifting rod, is a smooth inclined surface, and the first boss is in sliding fit with the torsion spring lifting rod; after the first boss is in contact with the torsion spring lifting rod, along with the reagent card moves in the cavity, the torsion spring lifting rod moves towards the end part close to the first boss with the contact point of the first boss until the torsion spring lifting rod moves towards the end part of the first boss with the contact point of the first boss.

Preferably, the lifting device comprises an elastic lifting plate, the elastic lifting plate comprises a bottom plate, a spring and a lifting block, and the spring is connected between the bottom plate and the lifting block; a second avoidance port is formed in the side wall of the cavity, which deviates from the detection result acquisition device, and the second avoidance port allows the lifting block to enter or depart from the cavity; one side of the reagent card departing from the detection part is provided with a second boss, and the second boss is matched with the lifting block in a sliding manner.

Preferably, one side of the lifting block, which is away from the bottom plate, comprises a guide slope and an action plane, when the reagent card moves into the cavity, the second boss contacts with the guide slope and compresses the spring, the second boss enters the action plane through the guide slope, and the action plane is abutted against and matched with the second boss.

Compared with the prior art, the invention has the following beneficial effects:

1. according to the invention, the detection window of the reagent board card is closer to the detection sensor through the lifting device, so that the detection sensitivity is better improved, meanwhile, for the detected substance needing to be excited by the special waveband light source, the whole light path is shorter, the required light intensity is lower, the detected substance is protected from light signal attenuation caused by an over-strong light source to the maximum extent, and the instrument repeatability is improved;

2. the invention replaces the original motor transmission structure by the simple mechanical transmission structure design, reduces the cost, has simple installation process, and avoids the risk of the motor transmission structure failure by considering the characteristics that the portable instrument is easy to collide and the like;

3. compared with the structural precision of a camera detection mode, the portable camera detection system has stronger robustness in a portable scene through small and portable integral volume;

4. according to the invention, the embedded matching of the concave detection window and the detection result acquisition device which is convexly arranged is adopted to limit the relative position of the reagent card and the reading device body, so that the stability of the detection result reading device in an in-place state is improved;

5. according to the invention, the lifting device applies acting force to the reagent card, so that the reagent card is tightly attached to the inner wall of the cavity, and the stability of the relative positions of the reagent card and the cavity is ensured.

Drawings

Other features, objects and advantages of the invention will become more apparent upon reading of the detailed description of non-limiting embodiments with reference to the following drawings:

FIG. 1 is a schematic diagram of an external structure of a main body of a reading apparatus according to the present invention;

fig. 2 is an exploded view of the overall structure of the device for reading out the detection result according to embodiment 1 of the present invention;

fig. 3 is a schematic cross-sectional view of the overall structure of the detection result reading apparatus at the insertion stage in embodiment 1 of the present invention;

fig. 4 is a schematic cross-sectional view of an overall structure of a detection result reading apparatus in a lifting stage according to embodiment 1 of the present invention;

fig. 5 is a schematic cross-sectional view of an overall structure of a detection result reading apparatus in a state of being in place according to a first embodiment of the present invention;

fig. 6 is an exploded view of the overall structure of a device for reading out the detection result according to embodiment 2 of the present invention;

fig. 7 is a schematic cross-sectional view of an overall structure of a detection result reading apparatus in a lifting stage according to embodiment 2 of the present invention;

fig. 8 is a schematic cross-sectional view of an overall structure of a detection result reading apparatus in a state of being in place according to a first embodiment of the present invention;

fig. 9 is an exploded view of the overall structure of a device for reading out the detection result according to embodiment 3 of the present invention;

fig. 10 is a schematic cross-sectional view of the overall structure of a detection result reading apparatus in a lifting stage according to embodiment 3 of the present invention;

fig. 11 is a schematic cross-sectional view of an overall structure of a detection result reading apparatus in a state of being in place according to a first embodiment 3 of the present invention;

fig. 12 is an exploded view of the overall structure of a device for reading out the detection result according to embodiment 4 of the present invention;

fig. 13 is a schematic cross-sectional view of the overall structure of a detection result reading apparatus in a lifting stage according to embodiment 4 of the present invention;

fig. 14 is a schematic cross-sectional view of an overall structure of a detection result reading apparatus in a state of being in place according to a main embodiment 4 of the present invention.

Shown in the figure:

Detailed Description

The present invention will be described in detail with reference to specific examples. The following examples will assist those skilled in the art in further understanding the invention, but are not intended to limit the invention in any way. It should be noted that it would be obvious to those skilled in the art that various changes and modifications can be made without departing from the spirit of the invention. All falling within the scope of the present invention.

Example 1

As shown in fig. 1 and 2, the device for reading a detection result according to the present invention includes a reading device body 1 and a reagent card 2, a cavity 11 capable of accommodating at least a detection portion of the reagent card 2 is integrally formed inside the reading device body 1, a detection result collecting device 12 is mounted on any sidewall of the cavity 11, the detection result collecting device 12 is in a protruding state inside the cavity 11, and a gap between the detection result collecting device 12 and the sidewall of the cavity 11 allows the reagent card 2 to pass through. The detection part of the reagent card 2 is positioned in the middle of the reagent card 2, a concave detection window 21 is formed at the detection part of the reagent card 2, and the concave detection window 21 and the detection result acquisition device 12 are correspondingly arranged.

The reading device body 1 is further provided with a lifting device for lifting the detection part of the reagent card 2 to one side close to the detection result acquisition device 12. The cavity 11 deviates from its open-ended one end integrated into one piece has the lifting landslide 3, and the lifting landslide 3 cooperates with the one end that reagent card 2 got into in the cavity 11 for the reagent card 2 that the guide got into in the cavity 11 moves to the one side that is close to testing result collection system 12. When the reagent card 2 is installed in place in the cavity 11, the sidewall of the reagent card 2 close to one side of the detection result acquisition device 12 is tightly attached to the inner wall of the cavity 11, and at this time, the detection result acquisition device 12 enters the concave area of the concave detection window 21.

The reading device body 1 comprises a detection channel upper cover 14 and a detection channel lower cover 15, the detection channel upper cover 14 and the detection channel lower cover 15 are connected in a fastening mode through bolts, the cavity 11 is formed by matching the detection channel upper cover 14 and the detection channel lower cover 15, a detection result acquisition device 12 is installed on one side, close to an opening of the cavity 11, of the detection channel, and the lifting landslide 3 is integrally formed at one end, far away from the opening of the cavity 11, of the detection channel lower cover 15.

As shown in fig. 2, 3, 4 and 5, the lifting device is a lever 4, an insertion groove 41 for rotatably installing a rotation shaft of the lever 4 is formed in the middle of the length of the lower detection channel cover 15, a limit portion 42 is integrally formed at the edge position of the side wall of the upper detection channel cover 14 corresponding to the insertion groove 41, the limit portion 42 is rotatably matched with the rotation shaft of the lever 4, the rotation shaft of the lever 4 is rotatably installed on the lower detection channel cover 15 by matching the insertion groove 41 and the limit portion 42, and the rotation shaft of the lever 4 does not protrude from the side wall of the lower detection channel cover 15.

The lever 4 is of an asymmetric structure, the height of the end portion of the rotating arm, far away from the opening of the cavity 11, of the lever 4 is slightly larger than the height of the end portion of the rotating arm, near the opening of the cavity 11, of the lever 4 in a conventional state, and a first open hole 43 is formed in one side, near the opening of the cavity 11, of the lower cover 15 of the detection channel. The first open opening 43 allows the rotating arm of the lever 4 to enter or leave the cavity 11, the lifting slide 3 and the rotating arm of the lever 4 far away from the opening of the cavity 11 generate a limit, so that the rotating arm of the lever 4 far away from the opening of the cavity 11 cannot completely leave the cavity 11, and a gap between one end of the lever 4 close to the opening of the cavity 11 and the side wall of the cavity 11 where the detection result acquisition device 12 is located allows the reagent card 2 to pass through. Further, in order to improve the convenience of inserting the reagent card 2 into the cavity 11, a protruding portion 44 is arranged at one end, close to the outlet of the cavity 11, of the rotating arm of the lever 4, and a lifting inclined surface 45 is arranged at one side, away from the outlet of the cavity 11, of the rotating arm of the lever 4.

Adopt this design, when reagent card 2 just got into cavity 11, lever 4 was close to the swinging boom of cavity 11 open-ended and can be forced to revolve down, and lever 4 will revolve far away from the swinging boom of cavity 11 open-ended, and when reagent card 2 butt lifting landslide 3, lever 4's both sides atress simultaneously, continuously provide ascending power for reagent card 2, until concave type detection window 21 aligns with testing result collection system 12 and peg graft each other and form the spacing of a grafting direction. At this time, the concave detection window 21 on the reagent card 2 and the detection result acquisition device 12 both assume a locking structure and can better complete data acquisition work because they are closely attached to each other.

And because two rotating arms of lever 4 and reagent card 2 contact provide the resistance for the motion of reagent card 2 relative inner chamber, help guaranteeing that concave type detection window 21 and testing result collection system 12 are in the state of hugging closely, and then help guaranteeing to accomplish data acquisition work better.

The process of inserting the reagent plate into the cavity 11 is divided into three states, namely a horizontal insertion state, a lifting state and a in-place state.

As shown in fig. 3, the horizontal insertion state: the reagent card 2 is inserted into the cavity 11 by applying a horizontal force towards the inside of the cavity 11, at this time, the protrusion 44 on the rotating arm of the lever 4 contacts with the reagent card 2 and is forced to rotate downward, and the end of the rotating arm of the lever 4 far from the opening of the cavity 11 is lifted up, so that the reagent card 2 is maintained in a stable state.

As shown in fig. 4, the lifted state: continuously apply the horizontal effort towards in the cavity 11, conflict with lifting inclined plane 45 up to 2 tip of reagent card, reagent card 2 follows the inclination on lifting inclined plane 45, continues the lifting on the slant, and 2 middle parts of reagent card continue to receive the lifting force that lever 4 provided near the bellying 44 of 11 open-ended swinging boom tip of cavity, make the stable lifting of reagent integrated circuit board.

As shown in fig. 5, the in-place state: when the end of the reagent card 2 is pushed to the top end of the lifting inclined plane 45 on the lever 4, the concave detection window 21 and the detection result acquisition device 12 are completely overlapped, and the reagent card 2 is limited by the protruding part 44 on the rotating arm of the lever 4 close to the opening of the cavity 11, so that the relative positions of the concave detection window 21 and the detection result acquisition device 12 are kept stable, and the operation steps of inserting and lifting the reagent card are completed.

To remove the reagent card 2, the user applies a pulling force which will deform the lever 4 slightly until the reagent card 2 disengages from the raised ramp 45 on the lever 4, so that the lever 4 rotates the rotating arm of the lever 4 near the opening of the cavity 11 in a direction out of the cavity 11 and releases the reagent card 2.

As shown in fig. 2, when the reagent card 2 is inserted into the cavity 11, the protrusion 44 on the lever 4 abuts against the sidewall of the reagent card 2, and at this time, the reagent card 2 does not contact the lifting inclined plane 45 on the lever 4 yet, and with the continuous insertion of the reagent card 2, because the axial position of the lever 4 to the lifting slope 3 is a gradual lifting process, according to the principle of the lever 4, the end of the rotating arm of the lever 4 where the lifting inclined plane 45 is located feeds back a vertical upward lifting force to the reagent card 2 due to the vertical downward pressure applied to the end of the rotating arm of the lever 4 where the protrusion 44 is located.

When the reagent card 2 is completely inserted into the cavity 11, the end of the reagent card 2 reaches the end of the rotating arm of the lever 4 far away from the opening of the cavity 11 through the lifting slide 3 on the lever 4, the reagent card 2 is supported by the rotating arm of the lever 4, and meanwhile, the rotating arm of the lever 4 is pressed vertically downwards by the reagent card 2 due to the extrusion of the inner wall of the cavity 11. According to the principle of the lever 4, the supporting point is a rotating shaft of the lever 4, the rotating arm of the lever 4 close to the opening of the cavity 11 is lifted, a vertical upward acting force is applied to the reagent card 2, the concave detection window 21 and the detection result acquisition device 12 are tightly attached to each other, and the lifting action after the reagent card 2 is inserted is completed.

Example 2

As shown in fig. 6, 7 and 8, the device for reading a detection result according to the present invention includes a reading device body 1 and a reagent card 2, a cavity 11 capable of accommodating at least a detection portion of the reagent card 2 is integrally formed inside the reading device body 1, a detection result collecting device 12 is installed on any sidewall of the cavity 11, the detection result collecting device 12 is protruded inside the cavity 11, and a gap between the detection result collecting device 12 and the sidewall of the cavity 11 allows the reagent card 2 to pass through. The detection part of the reagent card 2 is positioned in the middle of the reagent card 2, a concave detection window 21 is formed at the detection part of the reagent card 2, and the concave detection window 21 and the detection result acquisition device 12 are correspondingly arranged.

The reading device body 1 is further provided with a lifting device for lifting the detection part of the reagent card 2 to one side close to the detection result acquisition device 12. The cavity 11 deviates from its open-ended one end integrated into one piece has the lifting landslide 3, and the lifting landslide 3 cooperates with the one end that reagent card 2 got into in the cavity 11 for the reagent card 2 that the guide got into in the cavity 11 moves to the one side that is close to testing result collection system 12. When the reagent card 2 is installed in place in the cavity 11, the sidewall of the reagent card 2 close to one side of the detection result acquisition device 12 is tightly attached to the inner wall of the cavity 11, and at this time, the detection result acquisition device 12 enters the concave area of the concave detection window 21.

The reading device body 1 comprises a detection channel upper cover 14 and a detection channel lower cover 15, the detection channel upper cover 14 and the detection channel lower cover 15 are connected in a fastening mode through bolts, the cavity 11 is formed by matching the detection channel upper cover 14 and the detection channel lower cover 15, a detection result acquisition device 12 is installed on one side, close to an opening of the cavity 11, of the detection channel, and the lifting landslide 3 is integrally formed at one end, far away from the opening of the cavity 11, of the detection channel lower cover 15.

As shown in fig. 6, 7 and 8, the lifting device is a spring plate 5, one end of the spring plate 5 is integrally formed on one side of the detection channel lower cover 15 away from the opening of the cavity 11, the other end of the spring plate 5 extends to one side close to the opening of the cavity 11, the spring plate 5 tilts from the joint of the spring plate and the detection channel lower cover 15 to one side close to the detection result collecting device 12, the spring plate 5 has certain elasticity, and the gap between the spring plate 5 and the detection channel upper cover 14 allows the reagent card 2 to enter or leave the cavity 11.

Furthermore, a guiding inclined plane 51 is integrally formed on one side of the elastic sheet 5 close to the opening of the cavity 11, so that the elastic sheet 5 is compressed under the guiding action of the guiding inclined plane 51 after the reagent card 2 is contacted with the guiding inclined plane 51 at the end of the elastic sheet 5, and the reagent card 2 can enter the cavity 11.

When the reagent card 2 is inserted into the cavity 11, the elastic sheet 5 is forced to press down for energy storage, and continuously provides a force towards the upper cover 14 of the detection channel for the reagent card 2 until the concave detection window 21 is aligned with the detection result acquisition device 12 and is mutually spliced to form a limit in the splicing direction when the side wall of one side of the reagent card 2 close to the detection result acquisition device 12 is tightly attached to the inner wall of the corresponding cavity 11. At this time, the concave detection window 21 and the convex detection result acquisition device 12 both bear the locking structure and can better complete the data acquisition work because the two are closely attached to each other.

As shown in fig. 7 and 8, the process of inserting the reagent card 2 into the cavity 11 is divided into three steps: a horizontal insertion state, a reagent board card lifting state and an in-place state;

horizontal insertion state: apply the level for the reagent integrated circuit board and towards the inside power of cavity 11, insert reagent card 2 toward cavity 11 depths, shell fragment 5 hugs closely reagent card 2 and deviates from the lateral wall of concave type detection window 21 and provides the lifting force of perpendicular orientation measuring channel upper cover 14 this moment for reagent card 2 maintains stable state.

Lifting state: continuously applying the horizontal acting force towards the inside of the cavity 11 until the end part of the reagent card 2 reaches the position of the lifting landslide 3 on the lower cover 15 of the detection channel, driving the reagent card 2 to continue lifting along the inclined angle of the lifting landslide 3 by the end part of the reagent card 2, and continuously receiving the lifting force provided by the elastic sheet 5 on one side of the reagent card 2 departing from the concave detection window 21 to stably lift the reagent card 2.

In-place state: when the end of the reagent card 2 is pushed to the fixed end of the lifting landslide 3, the side wall of one side, close to the detection result acquisition device 12, of the reagent card 2 is tightly attached to the inner wall of the corresponding cavity 11, the concave detection window 21 is aligned with the detection result acquisition device 12 and is mutually inserted to form a limit position in the insertion direction, and under the action of elastic force of the elastic sheet 5, the relative positions of the reagent card 2 and the inner wall of the cavity 11 are fixed, so that the operation steps of inserting the reagent card 2 and lifting are completed.

Example 3

As shown in fig. 9, 10 and 11, the device for reading a detection result according to the present invention includes a reading device body 1 and a reagent card 2, a cavity 11 capable of accommodating at least a detection portion of the reagent card 2 is integrally formed inside the reading device body 1, a detection result collecting device 12 is mounted on any sidewall of the cavity 11, the detection result collecting device 12 is protruded inside the cavity 11, and a gap between the detection result collecting device 12 and the sidewall of the cavity 11 allows the reagent card 2 to pass through. The detection part of the reagent card 2 is positioned in the middle of the reagent card 2, a concave detection window 21 is formed at the detection part of the reagent card 2, and the concave detection window 21 and the detection result acquisition device 12 are correspondingly arranged.

The reading device body 1 is further provided with a lifting device for lifting the detection part of the reagent card 2 to one side close to the detection result acquisition device 12. The cavity 11 deviates from its open-ended one end integrated into one piece has the lifting landslide 3, and the lifting landslide 3 cooperates with the one end that reagent card 2 got into in the cavity 11 for the reagent card 2 that the guide got into in the cavity 11 moves to the one side that is close to testing result collection system 12. When the reagent card 2 is installed in place in the cavity 11, the sidewall of the reagent card 2 close to one side of the detection result acquisition device 12 is tightly attached to the inner wall of the cavity 11, and at this time, the detection result acquisition device 12 enters the concave area of the concave detection window 21.

The reading device body 1 comprises a detection channel upper cover 14 and a detection channel lower cover 15, the detection channel upper cover 14 and the detection channel lower cover 15 are connected in a fastening mode through bolts, the cavity 11 is formed by matching the detection channel upper cover 14 and the detection channel lower cover 15, a detection result acquisition device 12 is installed on one side, close to an opening of the cavity 11, of the detection channel, and the lifting landslide 3 is integrally formed at one end, far away from the opening of the cavity 11, of the detection channel lower cover 15.

As shown in fig. 9, 10 and 11, the lifting device is a torsion spring 6, a mounting seat 61 is integrally formed on a side wall of the detection channel lower cover 15 away from the detection channel upper cover 14, the torsion spring 6 is mounted on the mounting seat 61 through a bolt 62, a lifting rod 64 of the torsion spring 6 is located on one side close to the opening of the cavity 11, a first avoiding opening 63 is formed on one side of the detection channel lower cover 15 close to the opening of the cavity 11, and the first avoiding opening 63 allows the lifting rod 64 to enter or be separated from the interior of the cavity 11.

A first boss 65 is integrally formed on the side wall of the reagent card 2 away from the detection part, the side surface of the first boss 65 contacting with the lifting rod 64 is a smooth inclined surface, and the first boss 65 is in sliding fit with the lifting rod 64; after the first boss 65 contacts with the lifting rod 64, as the reagent card 2 moves into the cavity 11, the contact point of the lifting rod 64 and the first boss 65 gradually moves to the end part close to the first boss 65 until the contact point of the lifting rod 64 and the first boss 65 moves to the end part of the first boss 65.

During the insertion process, the reagent card 2 enters the cavity 11 until the first boss 65 contacts with the lifting rod 64 of the torsion spring 6, and due to the influence of the elastic potential energy of the torsion spring 6, the lifting rod 64 applies a lifting force to the first boss 65 at the bottom of the reagent card 2, which is vertically towards the upper cover 14 of the detection channel, and meanwhile, the end of the reagent card 2 entering the cavity 11 contacts with the lifting ramp 3.

When the horizontal force is continuously applied to the inside of the cavity 11, the end of the reagent card 2 moves obliquely upward along the track of the lifting slide 3, and the lifting rod 64 continues to give the reagent card 2 a lifting force vertically toward the upper cover 14 of the detection passage along the slope of the first boss 65.

When the reagent card 2 is completely inserted, the side wall of one side of the reagent card 2 close to the detection result acquisition device 12 is tightly attached to the inner wall of the corresponding cavity 11, the concave detection window 21 is aligned with the detection result acquisition device 12 and is mutually inserted to form a limit in the insertion direction, the lifting rod 64 is clamped at the end part of the first boss 65 and continuously provides lifting force towards the upper cover 14 of the detection channel for the middle section of the reagent card 2, so that the concave detection window 21 of the reagent card 2 is tightly attached to the detection result acquisition device 12 on the upper cover 14 of the detection channel, and meanwhile, the opening of the cavity 11 is tightly attached to the handle of the reagent card 2, and the reagent card 2 is prevented from being subjected to position deviation.

At this time, it is ineffective to continuously apply a horizontal force, the reagent card 2 is inserted in place to complete small-amplitude lifting, and the relative distance between the concave detection window 21 and the detection result acquisition device 12 reaches a small distance of high-precision detection.

Example 4

As shown in fig. 12, 13 and 14, the device for reading a detection result according to the present invention includes a reading device body 1 and a reagent card 2, a cavity 11 capable of accommodating at least a detection portion of the reagent card 2 is integrally formed inside the reading device body 1, a detection result collecting device 12 is mounted on any sidewall of the cavity 11, the detection result collecting device 12 is in a protruding state inside the cavity 11, and a gap between the detection result collecting device 12 and the sidewall of the cavity 11 allows the reagent card 2 to pass through. The detection part of the reagent card 2 is positioned in the middle of the reagent card 2, a concave detection window 21 is formed at the detection part of the reagent card 2, and the concave detection window 21 and the detection result acquisition device 12 are correspondingly arranged.

The reading device body 1 is further provided with a lifting device for lifting the detection part of the reagent card 2 to one side close to the detection result acquisition device 12. The cavity 11 deviates from its open-ended one end integrated into one piece has the lifting landslide 3, and the lifting landslide 3 cooperates with the one end that reagent card 2 got into in the cavity 11 for the reagent card 2 that the guide got into in the cavity 11 moves to the one side that is close to testing result collection system 12. When the reagent card 2 is installed in place in the cavity 11, the sidewall of the reagent card 2 close to one side of the detection result acquisition device 12 is tightly attached to the inner wall of the cavity 11, and at this time, the detection result acquisition device 12 enters the concave area of the concave detection window 21.

The reading device body 1 comprises a detection channel upper cover 14 and a detection channel lower cover 15, the detection channel upper cover 14 and the detection channel lower cover 15 are connected in a fastening mode through bolts, the cavity 11 is formed by matching the detection channel upper cover 14 and the detection channel lower cover 15, a detection result acquisition device 12 is installed on one side, close to an opening of the cavity 11, of the detection channel, and the lifting landslide 3 is integrally formed at one end, far away from the opening of the cavity 11, of the detection channel lower cover 15.

As shown in fig. 12, 13 and 14, the lifting device is an elastic lifting plate 7, the elastic lifting plate 7 includes a bottom plate 71, a spring 72 and a lifting block 73, and the spring 72 is connected between the bottom plate 71 and the lifting block 73. The elastic lifting plate 7 is arranged on one side, departing from the detection channel upper cover 14, of the detection channel lower cover 15, the second boss 8 is arranged on one side, departing from the detection part, of the reagent card 2, and the second boss 8 is in sliding fit with the lifting block 73. One side of the lower cover 15 of the detection channel, which is close to the opening of the cavity 11, is provided with a second avoidance port 81, the second avoidance port 81 allows the lifting block 73 to enter or be separated from the interior of the cavity 11, and the second avoidance port 81 allows the second boss 8 to enter or be separated from the interior of the cavity 11.

The side of the lifting block 73, which is away from the bottom plate 71, comprises a guide slope 9 and an action plane 91, the guide slope 9 is located on the side of the lifting block 73, which is close to the opening of the cavity 11, when the reagent card 2 moves into the cavity 11, the second boss 8 contacts with the guide slope 9 and compresses the spring 72, the second boss 8 enters the action plane 91 through the guide slope 9, and the action plane 91 is in abutting fit with the second boss 8.

As shown in fig. 12, 13 and 14, the addition process is divided into three steps: a horizontal insertion state, a reagent board card lifting state and an in-place state;

in the horizontal insertion state, a force horizontally towards the inside of the cavity 11 is applied to the reagent card 2, the reagent card is inserted into the cavity 11, the second boss 8 is not in contact with the lifting block 73, and at this time, the spring 72 is not elastically deformed.

The reagent card lifting state, after second boss 8 contacts with guide slope 9, reagent card 2 keeps moving to cavity 11 inside, and the lifting board moves to the one side that is close to bottom plate 71 under the effect of second boss 8, and spring 72 is compressed, receives the influence of spring 72 elastic potential energy, and second boss 8 receives a power towards detection passageway upper cover 14. As the horizontal force continues to advance, the second boss 8 enters the action plane 91, the spring 72 is compressed to the lowest position at this time, the maximum lifting force is provided for the reagent card 2, and then the horizontal force continues to be applied, and the end of the reagent card 2 is in contact with the lifting slide 3, so that the reagent card 2 integrally performs the obliquely upward lifting motion.

In a state of being in place, the end part of the reagent card 2 is pushed to the end part of the lifting landslide 3, the side wall of one side, close to the detection result acquisition device 12, of the reagent card 2 is tightly attached to the inner wall of the corresponding cavity 11, and the concave detection window 21 is aligned to the detection result acquisition device 12 and is mutually inserted to form a limit in an insertion direction. Since the spring 72 does not return to the relaxed state, the lifting plate always provides a force to the reagent card 2 towards the upper cover 14 of the detection channel, ensuring that the reagent card 2 is stably held in place during the detection process.

Principle of operation

In operation, a worker applies a force to the reagent card 2 horizontally towards the inside of the cavity 11, inserts the reagent card 2 into the cavity 11, when the end part of the reagent card 2 entering the cavity 11 contacts with the lifting slide 3, the reagent card 2 continues to move along the track of the lifting slide 3 under the action of horizontal force, and the reagent card 2 is lifted to one side close to the detection result acquisition device 12 by matching with the lifting device, when the side wall of the reagent card 2 close to the side of the detection result acquisition device 12 is closely attached to the inner wall of the corresponding cavity 11, the concave detection window 21 is aligned with the detection result acquisition device 12 and is mutually inserted to form a limit position in the insertion direction, at the moment, the reagent card 2 is in a in-place state, and the reagent card 2 is ensured to be stably kept in the in-place state in the detection process by the acting force which is applied to the reagent card 2 by the lifting device and faces the upper cover 14 of the detection channel.

In the description of the present application, it is to be understood that the terms "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", and the like indicate orientations or positional relationships based on those shown in the drawings, and are only for convenience in describing the present application and simplifying the description, but do not indicate or imply that the referred device or element must have a specific orientation, be constructed in a specific orientation, and be operated, and thus, should not be construed as limiting the present application.

The foregoing description of specific embodiments of the present invention has been presented. It is to be understood that the present invention is not limited to the specific embodiments described above, and that various changes or modifications may be made by one skilled in the art within the scope of the appended claims without departing from the spirit of the invention. The embodiments and features of the embodiments of the present application may be combined with each other arbitrarily without conflict.