A compact layout sample analyzer
By optimizing the internal module layout of the sample analyzer, especially the design of the empty cup input track, transfer needle, and cup gripping module, the problems of excessive instrument size and unreasonable module layout have been solved, achieving miniaturization and efficient detection of the instrument.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2023-02-22
- Publication Date
- 2026-03-20
AI Technical Summary
Existing sample analyzers have inefficient use of internal space and cumbersome module layouts, resulting in excessive instrument size and weight, increased transportation and maintenance costs, and difficulties in module upgrades and repairs.
The internal module layout of the sample analyzer was redesigned, especially the layout of the empty cup input track, transfer needle module, and cup gripping module, to improve module integration and reduce space occupation. This included rotary drive and up-down drive devices, a three-axis robot, etc., and optimization of module movement trajectory.
The overall size of the sample analyzer has been reduced by 10-15% while maintaining the same testing capabilities, and the integration of modules and ease of maintenance have been improved.
Smart Images

Figure CN116027056B_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to the technical field of sample analyzers, in particular to a sample analyzer with compact layout. BACKGROUND
[0002] Blood sample analyzers are special instruments for thrombus and hemostasis analysis. However, the three-dimensional motion mechanism in the internal space of most sample analyzers does not realize independent motion modules, which is not easy to upgrade and maintain a single module. At the same time, there are still internal partitioning complexities, and the internal module layout design is not reasonable enough, which occupies more space inside the instrument, making the overall size and weight of the instrument larger, not simple enough, and increasing the cost of the instrument and transportation and handling. At present, the mechanism of the fully automatic sample analyzer gradually tends to be modular design. For example, the patent with publication number CN215910503U discloses a blood sample analyzer, which adopts a modular design and optimizes the layout of each module. However, the overall size is still too large, and there is still room for compression. SUMMARY
[0003] In view of the problems in the prior art that the overall size of the sample analyzer is still too large and the layout of each module needs to be further optimized, the present application provides a sample analyzer with compact layout.
[0004] The present application provides the following technical solution: a sample analyzer with compact layout, comprising a main body frame and a sample rack conveying module, an empty cup conveying module, a reaction cup incubation disc, a reagent refrigeration bin, a detection module, a first transfer needle module, a second transfer needle module, a third transfer needle module, and a cup grabbing module arranged on the main body frame, wherein the reaction cup incubation disc is arranged around the reagent refrigeration bin and is rotationally connected with the main body frame, the sample rack conveying module is arranged on one side of the main body frame, the first transfer needle module and the second transfer needle module are both arranged between the sample rack conveying module and the reaction cup incubation disc, and the first transfer needle module and the second transfer needle module are respectively arranged on both sides of the reaction cup incubation disc; the detection module comprises a bottom plate arranged on the side of the reaction cup incubation disc away from the sample rack conveying module, one side of the bottom plate facing the reaction cup incubation disc is provided with a magnetic bead detection module and a first homogenizer, and the other side is provided with an optical detection module; the empty cup conveying module comprises an empty cup input track, one end of the empty cup input track extends between the reaction cup incubation disc and the first homogenizer; the cup grabbing module and the third transfer needle module each comprise a horizontal track and a vertical track, the horizontal track of the cup grabbing module extends from above the reaction cup incubation disc to above the optical detection module, and the horizontal track of the third transfer needle module extends from above the reagent refrigeration bin to above the bottom plate.
[0005] Preferably, the first transfer needle module and the second transfer needle module each comprise a needle tube, a rotating driving device for driving the needle tube and making the projection of the moving track of the needle tube on the horizontal plane circular, and an up-down driving device for driving the needle tube to move up and down; the moving track of the needle tube of the first transfer needle module covers the sample rack conveying module, the reaction cup incubation disc and the reagent refrigeration bin, and the moving track of the needle tube of the second transfer needle module covers the reaction cup incubation disc and the reagent refrigeration bin.
[0006] Preferably, the main body rack is further provided with an emergency module between the reaction cup incubation disc and the sample rack conveying module, the emergency module comprises an emergency sample rack input track, and the moving track of the needle tube of the first transfer needle module covers the emergency sample rack input track.
[0007] Preferably, the moving track of the needle tube of the first transfer needle module extends to outside of the main body rack.
[0008] Preferably, the reagent refrigeration bin comprises a bin cover, the bin cover is provided with a first suction window, a second suction window and a third suction window, the moving track of the needle tube of the first transfer needle module covers the first suction window, the moving track of the needle tube of the second transfer needle module covers the second suction window, and the transverse track of the third transfer needle module covers the third suction window.
[0009] Preferably, the cup grabbing module comprises a first cup grabbing module and a second cup grabbing module, the first cup grabbing module and the second cup grabbing module each comprise a three-axis manipulator and a grabbing hand arranged on the three-axis manipulator, the three-axis manipulator comprises the longitudinal track and the transverse track, the transverse track of the first cup grabbing module extends from above the reaction cup incubation disc to above the first mixing device, and the transverse track of the second cup grabbing module extends from above the first mixing device to above the optical detection module.
[0010] Preferably, the transverse track of the first cup grabbing module is arranged on the side of the first mixing device away from the magnetic bead detection module, the transverse track of the second cup grabbing module is arranged on the side of the magnetic bead detection module away from the first mixing device, and the longitudinal tracks of the first cup grabbing module and the second cup grabbing module are arranged between the transverse tracks of the first cup grabbing module and the second cup grabbing module.
[0011] Preferably, the third transfer needle module comprises a three-axis manipulator and a needle tube arranged on the three-axis manipulator, the three-axis manipulator comprises the longitudinal track and the transverse track, the transverse track of the third transfer needle module is arranged on the same side as the transverse track of the second cup grabbing module, the needle tube is arranged on the side of the longitudinal track of the third transfer needle module facing the first cup grabbing module, and the grabbing hand is arranged on the side of the longitudinal track of the first cup grabbing module facing the third transfer needle module.
[0012] Preferably, the sample analyzer further includes a second mixer and a third cup gripping module disposed between the base plate and the reaction cup incubation tray. The third cup gripping module includes a single-axis manipulator and a gripper disposed on the single-axis manipulator. The single-axis manipulator includes an inclined track that extends from above the reaction cup incubation tray to above the second mixer.
[0013] Preferably, the empty cup delivery module further includes an empty cup loading module, which is disposed on the side of the reaction cup incubation plate away from the first transfer needle module.
[0014] The beneficial effects of this invention are: the various modules inside the sample analyzer are rearranged, especially the layout of the high-frequency moving modules inside the sample analyzer, such as the empty cup input track, the third transfer needle module, and the cup gripping module, are redesigned, which improves the integration of the cup gripping module and reduces the space occupied by the cup gripping module compared with the prior art. This ensures the detection capability of the sample analyzer while reducing the overall size of the machine. Attached Figure Description
[0015] Fig. 1 This is a top view of a structure according to an embodiment of the present invention.
[0016] Fig. 2 This is a schematic diagram of the movement trajectory and range according to an embodiment of the present invention.
[0017] Reference numerals: 10-Sample rack transport module, 11-Emergency sample rack input track, 20-Empty cup transport module, 21-Empty cup input track, 22-Empty cup loading module, 30-Reaction cup incubation tray, 31-Second mixer, 40-Reagent cooling chamber, 41-First aspiration window, 42-Second aspiration window, 43-Third aspiration window, 50-Detection module, 51-Base plate, 52-Magnetic bead detection module, 53-Optical detection module, 54-First mixer, 61-First transfer needle module, 611-Needle, 62-Second transfer needle module, 63-Third transfer needle module, 71-Horizontal track, 72-Vertical track, 81-First cup gripper module, 811-Gripper, 82-Second cup gripper module, 83-Third cup gripper module, 831-Angled track. Detailed Implementation
[0018] The embodiments of the present invention will be described in more detail below with reference to the accompanying drawings and reference numerals, so that those skilled in the art can implement them after reading this specification. It should be understood that the specific embodiments described herein are only for explaining the present invention and are not intended to limit the present invention.
[0019] This invention provides, for example Figs. 1-2A compact sample analyzer is shown, including a main frame, and a sample rack conveying module 10, an empty cup conveying module 20, a reaction cup incubation disc 30, a reagent refrigeration bin 40, a detection module 50, a first transfer needle module 61, a second transfer needle module 62, a third transfer needle module 63, a cup grabbing module arranged on the main frame. The reaction cup incubation disc 30 surrounds the reagent refrigeration bin 40 and is rotationally connected with the main frame. The sample rack conveying module 10 conveys a sample rack to a sampling position. The first transfer needle module 61 samples blood samples and sends them into reaction cups arranged on the reaction cup incubation disc 30 for incubation. The reagent refrigeration bin 40 is used for refrigerating liquid reagents, diluents, cleaning liquids and the like required for detection. The first transfer needle module 61, the second transfer needle module 62 and the third transfer needle module 63 transfer various reagents required for detection from the reagent refrigeration bin 40 to the reaction cups. After incubation, the cups are sent to the detection module 50 by the cup grabbing module for detection. The empty cup conveying module 20 conveys empty reaction cups to the inside of the sample analyzer. The cup grabbing module is used to grab the reaction cups and move them between the above-mentioned modules. The structures of the above-mentioned modules can be referred to the relevant modules disclosed in the patent documents with publication numbers CN215910503U or CN108535503A, and the above-mentioned modules should be installed as compact as possible on the basis of layout and function implementation.
[0020] In the present application, without reducing the processing capacity of the sample rack conveying module 10, the reaction cup incubation disc 30, the reagent refrigeration bin 40, the magnetic bead detection module 52, the optical detection module 53 and the like, the layout of most modules is redesigned, especially the layout of the empty cup input track 21, the first transfer needle module 61, the second transfer needle module 62, the third transfer needle module 63 and the cup grabbing module which are high-frequency moving modules inside the sample analyzer. This not only guarantees the detection capacity of the sample analyzer, but also reduces the overall size of the machine. Compared with the same processing capacity sample analyzer in the prior art, the overall size of the machine can be reduced by 10-15%.
[0021] Specifically, the sample rack conveying module 10 is arranged on one side of the main frame. The first transfer needle module 61 and the second transfer needle module 62 are arranged between the sample rack conveying module 10 and the reaction cup incubation disc 30, and the first transfer needle module 61 and the second transfer needle module 62 are arranged on both sides of the reaction cup incubation disc 30, respectively. The first transfer needle module 61 is close to the sample rack conveying module 10, which is convenient for sampling. The second transfer needle module 62 avoids the activity range of the first transfer needle module 61, so that they do not affect each other.
[0022] Further, the first transfer needle module 61 and the second transfer needle module 62 each include a needle tube 611, a rotating driving device for driving the needle tube 611 and making the projection of the moving trajectory of the needle tube on the horizontal plane circular, and an up-down driving device for driving the needle tube 611 to move up and down. The structures of the needle tube 611, the rotating driving device, and the up-down driving device can refer to the blood sample analyzer disclosed in CN215910503U. The moving trajectory of the needle tube 611 of the first transfer needle module 61 covers the sample rack conveying module 10, the reaction cup incubation disc 30, and the reagent refrigeration bin 40, so as to complete the transfer of the sample from the sample tube in the sample rack conveying module 10 to the reaction cup in the reaction cup incubation disc 30, and at the same time, the reagent in the reagent bottle in the reagent refrigeration bin 40 can be sucked into the reaction cup in the reaction cup incubation disc 30, or other liquid can be sucked from the reagent refrigeration bin 40. The moving trajectory of the needle tube 611 of the second transfer needle module 62 covers the reaction cup incubation disc 30 and the reagent refrigeration bin 40, so as to suck the reagent in the reagent refrigeration bin 40 into the reaction cup in the reaction cup incubation disc 30 or suck other liquid from the reagent refrigeration bin 40.
[0023] Specifically, the detection module 50 includes a bottom plate 51 arranged on the side of the reaction cup incubation disc 30 away from the sample rack conveying module 10. The side of the bottom plate 51 facing the reaction cup incubation disc 30 is provided with a magnetic bead detection module 52 and a first mixing device 54, and the other side is provided with an optical detection module 53. The empty cup conveying module 20 includes an empty cup input track 21, one end of which extends to between the reaction cup incubation disc 30 and the first mixing device 54. The cup grabbing module and the third transfer needle module 63 each include a transverse track 71 and a longitudinal track 72. The transverse track 71 of the cup grabbing module extends from above the reaction cup incubation disc 30 to above the optical detection module 53, and the transverse track 71 of the third transfer needle module 63 extends from above the reagent refrigeration bin 40 to above the bottom plate 51.
[0024] The magnetic bead detection module 52, optical detection module 53, and first mixer 54 for uniformly mixing multiple liquids in the reaction cup before detection are integrated on the base plate 51 to form the main structure of the detection module 50, which is convenient for installation. The cup gripping module and empty cup input track 21 are also integrated near the detection module 50. The horizontal track 71 of the cup gripping module extends from above the reaction cup incubation plate 30 to above the optical detection module 53, and is equipped with a sufficiently long vertical track so that the movement range of the cup gripping module covers the magnetic bead detection module 52, optical detection module 53, first mixer 54, empty cup input track 21, and reaction cup incubation plate 30. The process of transferring the empty reaction cup from the empty cup input track 21 to the reaction cup incubation plate 30 and the process of transferring the incubated reaction cup from the reaction cup incubation plate 30 to the detection module 50 are both completed by the cup gripping module. Compared with the prior art, which uses two independent and far apart cup gripping devices to complete the above two transfer processes, the integration of the cup gripping module is improved and the space occupied by the cup gripping module is reduced. Simultaneously, the transverse track 71 of the third transfer needle module 63 extends from above the reagent cooling chamber 40 to above the base plate 51, causing the movement range of the third transfer needle module 63 to intersect with the movement range of the gripping cup module, thus completing the addition of reagents. The movement range of the third transfer needle module 63 is as follows: Fig. 2 As shown in frame A.
[0025] Furthermore, the cup-grabbing module includes a first cup-grabbing module 81 and a second cup-grabbing module 82. Both the first and second cup-grabbing modules 81 and 82 include a three-axis manipulator and a gripper 811 mounted on the manipulator. The three-axis manipulator includes a horizontal track 71, a vertical track 72, and a longitudinal track, respectively enabling the gripper 811 to move in the X, Y, and Z directions in three-dimensional space. The horizontal track 71 of the first cup-grabbing module 81 extends from above the reaction cup incubation tray 30 to above the first mixer 54, so that the movement range of the first cup-grabbing module 81 covers the reaction cup incubation tray 30, the magnetic bead detection module 52, the first mixer 54, and the empty cup input track 21, as shown below. Fig. 2 As shown in frame B, the system facilitates the transfer of an empty reaction vessel from the empty vessel input track 21 to the reaction vessel incubation tray 30, the transfer of the incubated reaction vessel from the reaction vessel incubation tray 30 to the first mixer 54, and the transfer from the first mixer 54 to the magnetic bead detection module 52. The transverse track 71 of the second cup-grabbing module 82 extends from above the first mixer 54 to above the optical detection module 53, ensuring that the movement range of the second cup-grabbing module 82 covers both the first mixer 54 and the optical detection module 53. Fig. 2The middle C frame realizes the transfer of the reaction cup from the first mixer 54 to the optical detection module 53. The cup grabbing module is divided into a first cup grabbing module 81 and a second cup grabbing module 82 according to the moving range to improve the detection efficiency. The magnetic bead detection module 52 and the optical detection module 53 are also provided with a cup discarding port, which is connected to a waste barrel through a pipeline, and the reaction cup after detection is grabbed by the first and second cup grabbing modules to the respective cup discarding ports for discarding.
[0026] Further, the lateral track 71 of the first cup grabbing module 81 is arranged on the side of the first mixer 54 away from the magnetic bead detection module 52, the lateral track 71 of the second cup grabbing module 82 is arranged on the side of the magnetic bead detection module 52 away from the first mixer 54, and the longitudinal tracks 72 of the first and second cup grabbing modules 81, 82 are arranged between the lateral tracks of the first and second cup grabbing modules 81, 82 to make full use of the space.
[0027] Further, the third transfer needle module 63 includes a three-axis manipulator and a needle tube 611 arranged on the three-axis manipulator, the three-axis manipulator includes a longitudinal track 72 and a lateral track 71, the lateral track 71 of the third transfer needle module 63 is arranged on the same side as the lateral track 71 of the second cup grabbing module 82, the needle tube 611 is arranged on the side of the longitudinal track 72 of the third transfer needle module 63 facing the first cup grabbing module 81, and the gripper 811 is arranged on the side of the longitudinal track 72 of the first cup grabbing module 81 facing the third transfer needle module 63. The lateral track 71 of the third transfer needle module 63 is arranged on the same side as the lateral track 71 of the second cup grabbing module 82, opposite to the lateral track of the first cup grabbing module 81, and the needle tube 611 of the third transfer needle module 63 and the gripper 811 of the first cup grabbing module 81 face each other, so that the moving range of the third transfer needle module 63 intersects with the moving range of the first cup grabbing module 81 to complete the addition of certain reagents.
[0028] Further, the first, second and third transfer needle modules 61, 62, 63 are provided with a cleaner in the moving track coverage range of the needle tube 611 for cleaning the inner and outer walls of the needle tube 611.
[0029] Preferably, the main body rack is further provided with an emergency module between the reaction cup incubation disc 30 and the sample rack conveying module 10, the emergency module includes an emergency sample rack input track 11, and the moving track of the needle tube of the first transfer needle module 61 covers the emergency sample rack input track 11 to complete the collection of samples in the sample rack on the emergency sample rack input track 11.
[0030] Preferably, the moving track of the needle tube of the first transfer needle module 61 extends to the outside of the main body rack, which facilitates the collection of samples in the sample rack on the online track.
[0031] Preferably, the reagent refrigeration bin 40 comprises a bin cover, and the first suction window 41, the second suction window 42 and the third suction window 43 are arranged on the bin cover to expose the reagent bottle openings covered by the bin cover. The needle tube movement track of the first transfer needle module 61 covers the first suction window 41, the needle tube movement track of the second transfer needle module 62 covers the second suction window 42, and the transverse track 71 of the third transfer needle module 63 covers the third suction window 43. The shapes of the first suction window 41, the second suction window 42 and the third suction window 43 are all adapted to the movement tracks of the corresponding modules, wherein the first suction window 41 and the second suction window 42 are arc-shaped, and the third suction window 43 is strip-shaped.
[0032] Preferably, the sample analyzer further comprises a second mixing device 31 arranged between the bottom plate 51 and the reaction cup incubation plate 30, and a third cup grabbing module 83, wherein the second mixing device 31 is used to complete the mixing of the sample and the first reagent. The third cup grabbing module 83 is used to complete the transfer of the reaction cup between the reaction cup incubation plate 30 and the second mixing device 31, and comprises a single-axis manipulator and a gripper arranged on the single-axis manipulator, wherein the single-axis manipulator comprises a diagonal track 831 extending from above the reaction cup incubation plate 30 to above the second mixing device 31. Both the first mixing device and the second mixing device can be vortex mixers.
[0033] Preferably, the empty cup conveying module 20 further comprises an empty cup loading module 22 arranged on the side of the reaction cup incubation plate 30 away from the first transfer needle module 61. The structure of the empty cup loading module 22 and the connection between the empty cup loading module 22 and the empty cup input track 21 can refer to the related structures disclosed in the patent documents with publication numbers CN215910503U and CN208544737U.
[0034] The above is one or more embodiments of the present application, which are described in more detail and in more detail, but should not be construed as limiting the scope of the present application. It should be noted that for those skilled in the art, without departing from the concept of the present application, a number of modifications and improvements can be made, which are all within the scope of the present application. Therefore, the protection scope of the present application patent should be subject to the appended claims.
Claims
1. A compact sample analyzer, comprising a main frame and a sample rack transport module (10), an empty cup transport module (20), a reaction cup incubation tray (30), a reagent cooling chamber (40), a detection module (50), a first transfer needle module (61), a second transfer needle module (62), a third transfer needle module (63), and a cup gripping module disposed on the main frame, wherein the reaction cup incubation tray (30) surrounds the reagent cooling chamber (40) and is rotatably connected to the main frame, characterized in that: The sample rack delivery module (10) is located on one side of the main frame. The first transfer needle module (61) and the second transfer needle module (62) are both located between the sample rack delivery module (10) and the reaction cup incubation plate (30), and the first transfer needle module (61) and the second transfer needle module (62) are respectively located on both sides of the reaction cup incubation plate (30). The detection module (50) includes a base plate (51) disposed on the side of the reaction cup incubation plate (30) away from the sample rack delivery module (10). A magnetic bead detection module (52) and a first mixer (54) are disposed on the side of the base plate (51) facing the reaction cup incubation plate (30), and an optical detection module (53) is disposed on the other side. The empty cup delivery module (20) includes an empty cup input track (21), one end of which extends between the reaction cup incubation plate (30) and the first mixer (54); The cup gripping module and the third transfer needle module (63) both include a horizontal track (71) and a vertical track (72). The horizontal track (71) of the cup gripping module extends from above the reaction cup incubation plate (30) to above the optical detection module (53). The moving range of the cup gripping module covers the magnetic bead detection module (52), the optical detection module (53), the first mixer (54), the empty cup input track (21), and the reaction cup incubation plate (30). The horizontal track (71) of the third transfer needle module (63) extends from above the reagent cooling chamber (40) to above the base plate (51).
2. The compact sample analyzer according to claim 1, characterized in that: The first transfer needle module (61) and the second transfer needle module (62) both include a needle tube (611), a rotary drive device for driving the needle tube (611) and making the projection of the needle tube's movement trajectory on the horizontal plane a circle, and an up-and-down drive device for driving the needle tube (611) to move up and down reciprocally; the needle tube movement trajectory of the first transfer needle module (61) covers the sample rack delivery module (10), the reaction cup incubation plate (30) and the reagent cooling chamber (40), and the needle tube movement trajectory of the second transfer needle module (62) covers the reaction cup incubation plate (30) and the reagent cooling chamber (40).
3. A compact sample analyzer according to claim 2, characterized in that: The main frame is further provided with an emergency module between the reaction cup incubation plate (30) and the sample rack delivery module (10). The emergency module includes an emergency sample rack input track (11), and the needle movement trajectory of the first transfer needle module (61) covers the emergency sample rack input track (11).
4. A compact sample analyzer according to claim 2, characterized in that: The needle movement trajectory of the first transfer needle module (61) extends outside the main frame.
5. A compact sample analyzer according to claim 2, characterized in that: The reagent cooling chamber (40) includes a chamber cover, on which a first suction window (41), a second suction window (42), and a third suction window (43) are provided. The needle movement trajectory of the first transfer needle module (61) covers the first suction window (41), the needle movement trajectory of the second transfer needle module (62) covers the second suction window (42), and the transverse track (71) of the third transfer needle module (63) covers the third suction window (43).
6. A compact sample analyzer according to claim 1, characterized in that: The cup-grabbing module includes a first cup-grabbing module (81) and a second cup-grabbing module (82). Both the first cup-grabbing module (81) and the second cup-grabbing module (82) include a three-axis manipulator and a gripper (811) mounted on the three-axis manipulator. The three-axis manipulator includes a longitudinal track (72) and a transverse track (71). The transverse track (71) of the first cup-grabbing module (81) extends from above the reaction cup incubation plate (30) to above the first mixer (54). The transverse track (71) of the second cup-grabbing module (82) extends from above the first mixer (54) to above the optical detection module (53).
7. A compact sample analyzer according to claim 6, characterized in that: The transverse track (71) of the first cup gripping module (81) is located on the side of the first mixer (54) away from the magnetic bead detection module (52), and the transverse track (71) of the second cup gripping module (82) is located on the side of the magnetic bead detection module (52) away from the first mixer (54). The longitudinal tracks (72) of the first cup gripping module (81) and the second cup gripping module (82) are both located between the transverse tracks of the first cup gripping module (81) and the second cup gripping module (82).
8. A compact sample analyzer according to claim 7, characterized in that: The third transfer needle module (63) includes a three-axis manipulator and a needle tube (611) disposed on the three-axis manipulator. The three-axis manipulator includes a longitudinal track (72) and a transverse track (71). The transverse track (71) of the third transfer needle module (63) and the transverse track (71) of the second cup gripping module (82) are disposed on the same side. The needle tube (611) is disposed on the side of the longitudinal track (72) of the third transfer needle module (63) facing the first cup gripping module (81). The gripper (811) is disposed on the side of the longitudinal track (72) of the first cup gripping module (81) facing the third transfer needle module (63).
9. A compact sample analyzer according to claim 1, characterized in that: The sample analyzer also includes a second mixer (31) disposed between the base plate (51) and the reaction cup incubation tray (30) and a third cup gripping module (83). The third cup gripping module (83) includes a single-axis manipulator and a gripper disposed on the single-axis manipulator. The single-axis manipulator includes an inclined track (831) that extends from above the reaction cup incubation tray (30) to above the second mixer (31).
10. A compact sample analyzer according to claim 1, characterized in that: The empty cup delivery module (20) also includes an empty cup loading module (22), which is located on the side of the reaction cup incubation plate (30) away from the first transfer needle module (61).
Citation Information
Patent Citations
Full-automatic coagulate blood analytical instrument and using method thereof
CN108535503A
Test cup advances cupule
CN208544737U
Blood sample analyzer
CN215910503U
Blood sample analyzer
CN113406346A
Sample analyzer with compact layout
CN220231759U