An experimental sample analysis station

Abstract

The utility model is suitable for laboratory equipment technical field provides an experimental sample analysis detection platform, the experimental sample analysis detection platform includes: installation platform, detection component, swing component and display component, detection component is used for gathering the image of sample on detection position, swing component is used for driving the swing of container on connecting frame, display component is used for receiving the output signal of detection component and shows the image of sample that detection component gathered. The utility model is used for the installation of detection component and swing component on the front of installation platform, is used for the swing component of swing container to facilitate the sample in the oscillation container, utilizes detection component to detect the sample on detection position and exports the electric signal to be received by display component and shows the image information of sample to facilitate the observation of experimental personnel, and the experimental personnel need not to carry sample to shift on different table top when carrying out sample analysis, thereby improves the experimental efficiency and avoids the error of experiment caused by the pollution of sample introduction.

Description

Technical Field

[0001] This utility model belongs to the field of laboratory equipment technology, and in particular relates to an experimental sample analysis and testing station. Background Technology

[0002] A laboratory testing bench is a common piece of laboratory equipment. It provides a stable operating platform, supports the placement of experimental equipment and instruments, manages experimental supplies, and ensures experimental safety. Common sample analysis procedures performed on a laboratory bench include: sample weighing, sample dilution, sample mixing, sample reaction, and sample testing.

[0003] In existing technologies, different sample analysis steps require the use of different tools or equipment. In particular, the sample mixing step requires the experimenter to manually shake the sample before transferring it to the sample detection equipment for testing. However, the traditional laboratory bench is mostly used to place different equipment or tools. The experimenter has to manually shake the sample before analysis and testing, which requires the experimenter to carry the sample between benches, resulting in low experimental efficiency. Utility Model Content

[0004] The purpose of this utility model embodiment is to provide an experimental sample analysis and testing station, which aims to solve the problem that different sample analysis steps require the use of different tools or equipment. In particular, the sample mixing step requires the experimenter to manually shake the sample before transferring it to the sample testing equipment for testing. However, the traditional experimental station is mostly used to place different equipment or tools. The experimenter has to manually shake the sample before analysis and testing, which requires the experimenter to carry the sample between the station, resulting in low experimental efficiency.

[0005] This utility model embodiment is implemented as follows: an experimental sample analysis and detection station, the experimental sample analysis and detection station comprising:

[0006] The mounting platform has a front side for installing the testing component and the swing component, a side side for placing the container, and a side side for installing the display component.

[0007] A detection component, wherein the detection component is used for image acquisition of a sample;

[0008] A swing assembly, wherein the swing assembly is provided with a connecting frame for connecting a container, and the swing assembly is used to drive the connecting frame and the container to swing.

[0009] A display component is used to display images of samples acquired by the detection component.

[0010] Preferably, the mounting platform has an internal cavity, the swing assembly is installed in the internal cavity of the mounting platform and the connecting frame extends out of the mounting platform so that the connecting frame is connected to the container, the placement frame includes a placement plate and a support plate, the placement plate and the support plate are respectively connected to the side of the mounting platform, the placement plate is provided with a plurality of placement holes for placing the container, and the support plate is located below the placement plate and is used to support the container;

[0011] The mounting platform is provided with several mounting protrusions for mounting clamps, which are used for detachable connection with the connecting frame.

[0012] Preferably, the detection assembly includes an adjustment assembly and a detection element. The adjustment assembly is mounted on the mounting platform and connected to the detection element. The adjustment assembly is used to adjust the distance between the detection element and the detection position. The adjustment assembly includes an adjustment knob, a connecting rod, and a guide rod. The adjustment knob is inserted into a connecting cylinder, which is mounted on the side of the mounting platform. The adjustment knob passes through the side of the mounting platform and is connected to the connecting rod. The connecting rod is rotatably connected to the mounting platform and threadedly connected to the detection element. The guide rod passes through the detection element and is installed in the internal cavity of the mounting platform. Rotating the adjustment knob drives the connecting rod to rotate, causing the detection element to move along the axis of the connecting rod. The guide rod is used to guide the movement of the detection element.

[0013] Preferably, the detection component includes a detection part and a connecting part. The side of the detection part is connected to the connecting part. The bottom of the detection part is provided with a plurality of lenses for observing the product. The connecting part is provided with a connecting hole for threaded connection with a connecting rod. The connecting part is provided with a guide hole for sleeved guide rod.

[0014] Preferably, the detection assembly further includes a mounting plate, which is installed on the front of the mounting platform and located below the detection component. The mounting plate is used to install the product. A set of first elastic members is provided on the top surface of the mounting plate. A light-transmitting hole is provided at the center of the mounting plate to facilitate the placement of the product on the mounting plate. A set of first elastic members are respectively located on both sides of the light-transmitting hole to facilitate clamping the product. One end of each first elastic member is installed on the boss of the mounting plate, and the other end is used to clamp the product.

[0015] Preferably, the swing assembly is provided with a power component connected to the connecting frame. The connecting frame is used to connect to the container. The power component is installed in the cavity inside the mounting platform. The output end of the power component is connected to the connecting frame through a first connecting gear. The connecting frame extends out of the mounting platform and is connected to the container. The power component is used to drive the connecting frame and the container connected to the connecting frame to swing.

[0016] Preferably, the power assembly includes a motor, a first transmission assembly, and a second transmission assembly, wherein the output end of the motor is rotatably connected to the first transmission assembly;

[0017] The first transmission assembly includes a first connecting shaft, a first gear, and a first toothed gear. The two ends of the first connecting shaft are respectively inserted into the sleeves on the inner wall of the mounting platform. The first connecting shaft is connected to the first gear and the first toothed gear respectively. The first connecting shaft is connected to the output end of the motor so that the first connecting shaft can drive the first gear and the first toothed gear to rotate.

[0018] The first gear is coaxially connected to the first toothed gear via a first connecting shaft, the first gear is meshed with the second transmission assembly, and the first toothed gear is meshed with the first connecting gear.

[0019] Preferably, the second transmission assembly includes a second connecting shaft, a second gear, and a second toothed gear. The two ends of the second connecting shaft are respectively inserted into the sleeves on the inner wall of the mounting platform, and the second connecting shaft is respectively connected to the second gear and the second toothed gear.

[0020] The second gear is coaxially connected to the second toothed gear via the second connecting shaft. The second gear meshes with the first gear, and the second toothed gear meshes with the first connecting gear. The second toothed gear and the first toothed gear rotate in opposite directions at the same speed, thereby driving the connecting frame and the container connected to the connecting frame to swing.

[0021] Preferably, the back of the connecting frame is inserted into the first connecting gear, and the connecting frame is detachably connected to the clamp to facilitate clamp replacement. The connecting frame is provided with a limiting plate for limiting clamp displacement. A set of limiting plates is provided and installed on the upper and lower sides of the connecting frame respectively, with the limiting plates facing the clamp. The side of the connecting frame is provided with a rod-shaped mounting part, which is inserted into the clamp. The outer side of the mounting part is provided with an annular groove for cooperating with the clamp.

[0022] The clamp is used to hold a container. The side of the clamp is provided with a mounting hole. The wall of the mounting hole is connected to the locking block through a second elastic member. The locking block is used to cooperate with the annular groove so that the connecting frame and the clamp can be detachably connected. The clamp is provided with a U-shaped clamping part for holding the container. The U-shaped clamping part is made of elastic material.

[0023] Preferably, the display assembly includes a connecting bracket and a display screen. The connecting bracket includes a rotating rod and a connecting plate. One end of the rotating rod is rotatably connected to the side of the mounting platform, and the other end of the rotating rod is connected to the connecting plate. The connecting plate is rotatably connected to the top of the display screen to facilitate adjustment of the orientation of the display screen.

[0024] This utility model provides an experimental sample analysis and detection station. The station includes a mounting platform with a front for mounting a detection component and a swing component. A container rack is mounted on one side of the mounting platform, and a display component is mounted on the opposite side. A swing component is provided to swing the container to agitate the sample inside. On the same operating plane, a swing component for agitating the container to even out the sample and a detection component for acquiring sample images are also provided. The detection component acquires the sample at the detection position and outputs an electrical signal, which is received by the display component and displayed for easy observation by the experimenter. This eliminates the need for the experimenter to move the sample between different platforms during analysis, thus improving experimental efficiency. Attached Figure Description

[0025] Figure 1 A three-dimensional structural diagram of an experimental sample analysis and detection station provided for an embodiment of this utility model;

[0026] Figure 2 A three-dimensional structural diagram of an experimental sample analysis and detection station from another direction, provided for an embodiment of this utility model;

[0027] Figure 3 A front view of an experimental sample analysis and testing station provided in an embodiment of this utility model;

[0028] Figure 4 A schematic diagram illustrating the movement principle of the detection element in an experimental sample analysis and testing station provided in this embodiment of the present invention;

[0029] Figure 5 A schematic diagram of the structure of the swing assembly in an experimental sample analysis and testing station provided in this embodiment of the present invention;

[0030] Figure 6 A schematic diagram of the connecting frame and clamp in an experimental sample analysis and testing station provided in this embodiment of the present invention;

[0031] Figure 7 This is a cross-sectional view of the connecting frame and clamp in an experimental sample analysis and testing station provided in an embodiment of the present invention.

[0032] In the attached diagram: 1. Mounting platform; 11. Placement plate; 12. Support plate; 13. Mounting protrusion; 2. Detection assembly; 21. Adjustment assembly; 211. Adjustment knob; 212. Connecting rod; 213. Guide rod; 22. Detection component; 23. Mounting plate; 231. First elastic component; 3. Swing assembly; 31. Connecting frame; 311. First connecting gear; 312. Limiting plate; 313. Mounting part; 32. Clamp; 321. 33. Power assembly; 331. Motor; 332. First transmission assembly; 3321. First connecting shaft; 3322. First gear; 3323. First toothed gear; 333. Second connecting shaft; 3331. Second connecting shaft; 3332. Second gear; 3333. Second toothed gear; 4. Display assembly; 41. Connecting bracket; 411. Rotating rod; 412. Connecting plate; 42. Display screen; 5. Container. Detailed Implementation

[0033] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.

[0034] The specific implementation of this utility model will be described in detail below with reference to specific embodiments.

[0035] like Figure 1 The diagram shown is a structural diagram of an experimental sample analysis and detection station provided in an embodiment of the present utility model. It includes: a mounting platform 1, the front of which is used for mounting the detection component 2 and the swing component 3, a placement rack for placing a container 5 is provided on one side of the mounting platform 1, and a display component 4 is mounted on the other side of the mounting platform 1.

[0036] Detection component 2, which is used for image acquisition of the sample;

[0037] The swing assembly 3 is provided with a connecting frame 31 for connecting the container 5, and the swing assembly 3 is used to drive the connecting frame 31 and the container 5 to swing.

[0038] Display component 4 is used to display images of samples collected by detection component 2.

[0039] In this embodiment of the invention, preferably, the experimental sample analysis and detection platform is mainly used to provide a stable operating platform for experiments, facilitating sample processing and analysis by experimental personnel. The front of the mounting platform 1 is used for the installation of the swing component 3 and the detection component 2, so that the experimental personnel can first use the swing component 3 to shake and mix the sample to make the sample in the container 5 meet the analysis requirements, and then use the detection component 2 to detect the processed sample on the same operating plane, eliminating the need for the experimental personnel to carry the processed sample between multiple platforms. On both sides of the mounting platform 1, a placement rack for placing the container 5 is set on the first side, and the second side can be used to install the display component 4 to display the sample image collected by the detection component 2. The placement rack can be close to the detection component 2, and the display component 4 can be close to the swing component 3 to facilitate the detection component 2. After the sample is tested, the image of the sample can be displayed in real time through the display component 4. The swing component 3 installed on the front of the mounting platform 1 can shake the sample in the container 5 to meet the testing requirements. The detection component 2, also located on the front of the mounting platform 1, detects the sample placed in the detection position. The image information of the sample detected by the detection component 2 is displayed through the display component 4 for easy observation by the experimenter. The entire experimental process does not require the experimenter to manually shake the sample or transfer the sample between different platforms. The sample processing and detection analysis can be completed directly on the mounting platform 1 and can be carried out simultaneously. When the first sample is detected in the detection area, the second sample can be shaken in the processing area, which can reduce time costs and improve experimental efficiency. At the same time, it avoids the need to transfer the sample between multiple platforms, thus avoiding the introduction of contamination and inaccurate experimental results.

[0040] In one embodiment of this utility model, a mounting platform 1 is provided. The front of the mounting platform 1 is used for mounting the detection component 2 and the swing component 3. A placement rack for placing the container 5 is provided on one side of the mounting platform 1, and a display component 4 is installed on the opposite side. A swing component 3 is provided for swinging the container 5 to facilitate the shaking of the sample inside the container 5. On the same operating plane, a swing component 3 for shaking the container 5 to even out the sample inside the container 5 and a detection component 2 for acquiring sample images are provided. The detection component 2 acquires the sample at the detection position and outputs an electrical signal, which is received by the display component 4 and the image information of the sample is displayed for easy observation by the experimenter. When performing sample analysis, the experimenter does not need to carry the sample to transfer between different platforms, thereby improving experimental efficiency.

[0041] like Figure 1-3As shown, in a preferred embodiment of the present invention, the mounting platform 1 is provided with an internal cavity, the swing assembly 3 is installed in the internal cavity of the mounting platform 1 and the connecting frame 31 extends out of the mounting platform 1 so that the connecting frame 31 is connected to the container 5, the placement frame includes a placement plate 11 and a support plate 12, the placement plate 11 and the support plate 12 are respectively connected to the side of the mounting platform 1, the placement plate 11 is provided with a plurality of placement holes for placing the container 5, and the support plate 12 is located below the placement plate 11 and is used to support the container 5;

[0042] The mounting platform 1 is provided with a plurality of mounting protrusions 13 for mounting the clamp 32, which is used to detachably connect to the connecting frame 31.

[0043] In this embodiment of the present invention, preferably, the mounting platform 1 may have an internal cavity structure. The swing assembly 3 is installed in the internal cavity of the mounting platform 1 and connected to the swing assembly 3. The connecting frame 31 for connecting to the container 5 extends out of the mounting platform 1 to drive the container 5 on the connecting frame 31 to swing, so as to realize the sample mixing process. The placement frame provided on the side of the mounting platform 1 may be composed of a placement plate 11 and a support plate 12. The placement plate 11 may be provided in two pieces and located above the support plate 12. The container 5 is placed using the placement holes of the placement plate 11. When the container 5 is placed upright, it can be supported. The container 5 may be placed upside down to facilitate tilting. The support plate 12 guides the liquid accumulated in the cleaned container 5 to flow out, and the container 5 can also be placed upright for easy access by the experimenter. The support plate 12 can be an inclined plate to guide the liquid in the inverted container 5 to flow out. The mounting protrusion 13 for mounting the clamp 32 can also be provided on the side of the mounting platform 1. The mounting protrusion 13 can be similar to or the same as the shape and structure of the container 5, and the mounting protrusion 13 can be of multiple different sizes to facilitate the installation of different clamps 32. The clamp 32, which is detachably connected to the connecting frame 31, can be selected according to the different containers 5 to meet the requirements of mixing samples in different containers 5.

[0044] like Figure 1-4As shown in the preferred embodiment of this utility model, the detection component 2 includes an adjustment component 21 and a detection element 22. The adjustment component 21 is mounted on the mounting platform 1 and connected to the detection element 22. The adjustment component 21 is used to adjust the distance between the detection element 22 and the detection position. The adjustment component 21 includes an adjustment knob 211, a connecting rod 212, and a guide rod 213. The adjustment knob 211 is inserted into a connecting cylinder, which is mounted on the side of the mounting platform 1. The adjustment knob 211 passes through the side of the mounting platform 1 and is connected to the connecting rod 212. The connecting rod 212 is rotatably connected to the mounting platform 1 and threadedly connected to the detection element 22. The guide rod 213 passes through the detection element 22 and is installed in the internal cavity of the mounting platform 1. Rotating the adjustment knob 211 drives the connecting rod 212 to rotate, causing the detection element 22 to move along the axis of the connecting rod 212. The guide rod 213 is used to guide the movement of the detection element 22.

[0045] In this embodiment of the present invention, preferably, the detection component 2 installed on the front of the mounting platform 1 includes an adjustment component 21 and a detection element 22. The adjustment component 21 is used to adjust the distance between the detection element 22 and the detection position so that the detection element 22 can detect the sample. The adjustment component 21 mainly includes an adjustment knob 211, a connecting rod 212 and a guide rod 213. The adjustment knob 211 passes through the mounting platform 1 and is connected to the connecting rod 212. Rotating the adjustment knob 211 can drive the connecting rod 212 to rotate. The detection element 22, which is threadedly connected to the connecting rod 212, can move to adjust the distance between the detection element 22 and the sample on the detection position. The guide rod 213, which is installed in the cavity inside the mounting platform 1, is inserted into the detection element 22 to guide the movement of the detection element 22. The transmission connection between the adjustment knob 211 and the connecting rod 212 can be a gear meshing connection. The rotation of the adjustment knob 211 drives the connecting rod 212 to rotate, so that the detection element 22, which is threadedly connected to the connecting rod 212, moves along the length direction of the connecting rod 212.

[0046] like Figure 1-4 As shown, in a preferred embodiment of the present invention, the detection component 22 includes a detection part and a connecting part. The side of the detection part is connected to the connecting part. The bottom of the detection part is provided with a plurality of lenses for observing the product. The connecting part is provided with a connecting hole for threaded connection with the connecting rotating rod 212. The connecting part is provided with a guide hole for sleeve guide rod.

[0047] In this embodiment of the present invention, preferably, the detection component 22 may include a detection part and a connecting part. The detection component 22 may be an electron microscope, which uses multiple lenses of different magnification on the detection part to scan and detect the sample and display the corresponding image information of the sample through the display component 4 for the experimenter to analyze and observe. The rod-shaped connecting part on the back of the electron microscope passes through the mounting stage 1 and is threadedly connected to the connecting rotating rod 212 installed in the cavity inside the mounting stage 1. A guide hole is provided on the connecting part so that the guide rod 213 can be sleeved in the guide hole to guide the movement of the detection component 22. The connecting part is connected to the detection part. The detection part is provided with multiple lenses facing the detection position so that the detection component 22 can detect the sample. An observation position for the experimenter to observe the sample can also be provided so that the lens for detecting the sample can be adjusted in real time according to the sample position observed by the experimenter's naked eye. The multiple lenses for observing the product can be rotatably connected to the detection part so that the appropriate lens can be selected according to different samples and distance positions.

[0048] like Figure 1-4 As shown in the preferred embodiment of this utility model, the detection component 2 further includes a mounting plate 23. The mounting plate 23 is installed on the front of the mounting platform 1 and located below the detection component 22. The mounting plate 23 is used to install the product. A set of first elastic members 231 is provided on the top surface of the mounting plate 23. A light-transmitting hole is provided at the center of the mounting plate 23 to facilitate the placement of the product on the mounting plate 23. A set of first elastic members 231 are respectively located on both sides of the light-transmitting hole to facilitate clamping the product. One end of each first elastic member 231 is installed on the protrusion of the mounting plate 23, and the other end is used to clamp the product.

[0049] In this embodiment of the present invention, preferably, the detection component 2 further includes a mounting plate 23 for placing a sample. The mounting plate 23 is located on the front of the mounting platform 1 and directly below the detection element 22 to facilitate the detection of the sample by the detection element 22. The center of the mounting plate 23 is used to place the sample and utilizes a light-transmitting hole to facilitate the detection of the sample by the detection element 22. A set of first elastic members 231 arranged in parallel are provided on the mounting plate 23. The set of first elastic members 231 are respectively located on both sides of the light-transmitting hole at the center. When the sample is positioned on the mounting plate 23 by the elastic first elastic members 231, the sample between the two glass slides corresponds to the light-transmitting hole to facilitate the detection of the sample by the detection element 22. The first elastic member 231 can be a plate with a certain elasticity. One end of the first elastic member 231 is connected to the boss on the mounting plate 23, and the other end can be attached to the top surface of the mounting plate 23. The elasticity of the first elastic member 231 is used to position the glass slide holding the sample between the first elastic member 231 and the mounting plate 23.

[0050] like Figure 1-5As shown, in a preferred embodiment of the present invention, the swing assembly 3 is provided with a power assembly 33 connected to the connecting frame 31. The connecting frame 31 is used to connect to the container 5. The power assembly 33 is installed in the internal cavity of the mounting platform 1. The output end of the power assembly 33 is connected to the connecting frame 31 through the first connecting gear 311. The connecting frame 31 extends out of the mounting platform 1 and is connected to the container 5. The power assembly 33 is used to drive the connecting frame 31 and the container 5 connected to the connecting frame 31 to swing.

[0051] In this embodiment of the present invention, preferably, the swing assembly 3 installed on the front of the mounting platform 1 mainly includes a power assembly 33 and a connecting frame 31. The power assembly 33 is connected to the connecting frame 31 in a transmission manner. The power assembly 33 drives the connecting frame 31 and the container 5 connected to the connecting frame 31 to swing. The power assembly 33 is installed in the internal cavity of the mounting platform 1. The connecting frame 31 connected to the power assembly 33 extends out of the mounting platform 1 to facilitate connection with the container 5.

[0052] like Figure 5 As shown, in a preferred embodiment of the present invention, the power assembly 33 includes a motor 331, a first transmission assembly 332 and a second transmission assembly, wherein the output end of the motor 331 is rotatably connected to the first transmission assembly 332.

[0053] The first transmission assembly 332 includes a first connecting shaft 3321, a first gear 3322, and a first toothed gear 3323. The two ends of the first connecting shaft 3321 are respectively inserted into the sleeves on the inner wall of the mounting platform 1. The first connecting shaft 3321 is connected to the first gear 3322 and the first toothed gear 3323 respectively. The first connecting shaft 3321 is connected to the output end of the motor 331 so that the first connecting shaft 3321 can drive the first gear 3322 and the first toothed gear 3323 to rotate.

[0054] The first gear 3322 is coaxially connected to the first toothless gear 3323 via the first connecting shaft 3321. The first gear 3322 is meshed with the second transmission assembly. The first toothless gear 3323 is meshed with the first connecting gear 311.

[0055] In a preferred embodiment of this utility model, the power assembly 33 mainly comprises a motor 331, a first transmission assembly 332, and a second transmission assembly. The motor 331 is connected to the first connecting shaft 3321 of the first transmission assembly 332 via a belt to drive the first connecting shaft 3321 and the first gear 3322 and the first toothed gear 3323 connected to the first connecting shaft 3321 to rotate. The first connecting gear 311, which meshes with the first toothed gear 3323, is connected to the connecting frame 31. When the first toothed gear 3323 rotates, it drives the first connecting gear 311 and the connecting frame 31 to rotate. The first gear 3322 is connected to the second transmission assembly to drive the second transmission assembly to rotate.

[0056] like Figure 5 As shown, in a preferred embodiment of the present invention, the second transmission component includes a second connecting shaft 3331333, a second gear 3332 and a second toothed gear 3333. The two ends of the second connecting shaft 3331333 are respectively inserted into the sleeves on the inner wall of the mounting platform 1. The second connecting shaft 3331333 is connected to the second gear 3332 and the second toothed gear 3333 respectively.

[0057] The second gear 3332 is coaxially connected to the second toothed gear 3333 via the second connecting shaft 3331333. The second gear 3332 meshes with the first gear 3322. The second toothed gear 3333 meshes with the first connecting gear 311. The second toothed gear 3333 and the first toothed gear 3323 rotate in opposite directions at the same speed, thereby driving the connecting frame 31 and the container 5 connected to the connecting frame 31 to swing.

[0058] In this embodiment of the present invention, preferably, the second transmission component, which is connected to the first gear 3322 of the first transmission component 332, includes a second connecting shaft 3331333, a second gear 3332, and a second toothed gear 3333. The second connecting shaft 3331333 is connected to the second gear 3332 and the second toothed gear 3333 respectively. The second gear 3332 is meshed with the first gear 3322, and the second toothed gear 3333 is meshed with the first connecting gear 311. During rotation, the motor 331 starts and drives the first connecting shaft 3321 to rotate, and the first connecting shaft 3321 drives the first toothed gear 3323 and the first gear 3322 to rotate. The first gear 3322 drives the second gear 3332 to rotate. The first gear 3322 and the second gear 3332 rotate in opposite directions, while the second gear 3332 and the second toothed gear 3333 rotate in the same direction. This causes the second toothed gear 3333 and the first toothed gear 3323 to rotate in opposite directions at the same speed. Furthermore, the meshing of the first toothed gear 3323 and the second toothed gear 3333 with the first connecting gear 311 alternates between phases. This can be achieved by the two toothed gears being arranged in a phase-crossing manner, causing the first connecting gear 311 to exhibit an oscillating motion. This allows the connecting frame 31 and the sample in the container 5 on the connecting frame 31 to oscillate and evenly distribute the sample in the container 5.

[0059] like Figure 5-7 As shown, in a preferred embodiment of the present invention, the back of the connecting frame 31 is inserted into the first connecting gear 311. The connecting frame 31 is detachably connected to the clamp 32 to facilitate replacement of the clamp 32. The connecting frame 31 is provided with a limiting plate 312 for limiting the displacement of the clamp 32. A set of limiting plates 312 are provided and respectively installed on the upper and lower sides of the connecting frame 31 with the limiting plates 312 facing the clamp 32. The side of the connecting frame 31 is provided with a rod-shaped mounting part 313. The mounting part 313 is inserted into the clamp 32. The outer side of the mounting part 313 is provided with an annular groove for cooperating with the clamp 32.

[0060] The clamp 32 is used to clamp the container 5. The clamp 32 has a mounting hole on its side. The wall of the mounting hole is connected to the locking block through the second elastic member 321. The locking block is used to cooperate with the annular groove so that the connecting frame 31 and the clamp 32 can be detachably connected. The clamp 32 is provided with a U-shaped clamping part for clamping the container 5. The U-shaped clamping part is made of elastic material.

[0061] In this embodiment of the present invention, preferably, the connecting frame 31 is inserted into the first connecting gear 311, and the connecting frame 31 is detachably connected to the clamp 32. The clamp 32 is connected to the container 5, so that the swinging of the connecting frame 31 drives the clamp 32 and the container 5 to swing, thereby shaking the sample in the container 5. A limiting plate 312 is provided on the connecting frame 31 to limit the displacement of the clamp 32, so as to prevent the clamp 32 from shifting during the swinging process and affecting the sample processing effect. The mounting part 313 on the side of the connecting frame 31 is inserted into the clamp 32. The clamp 32 is provided with an annular groove that is adapted to the clamp 32 to facilitate disassembly of the clamp 32; the clamp 32, which is detachably connected to the connecting frame 31, has a locking block inside the mounting hole on its side. The locking block is connected to the wall of the mounting hole through the second elastic member 321. When the mounting part 313 of the connecting frame 31 is nested in the mounting hole of the clamp 32, the locking block compresses the second elastic member 321 and cooperates with the annular groove to achieve a detachable connection. The clamping part on the clamp 32 that is connected to the container 5 can be made of U-shaped elastic material to facilitate clamping on the outer wall of the container 5.

[0062] like Figure 1-3 As shown, in a preferred embodiment of the present invention, the display component 4 includes a connecting bracket 41 and a display screen 42. The connecting bracket 41 includes a rotating rod 411 and a connecting plate 412. One end of the rotating rod 411 is rotatably connected to the side of the mounting platform 1, and the other end of the rotating rod 411 is connected to the connecting plate 412. The connecting plate 412 is rotatably connected to the top of the display screen 42 to facilitate adjustment of the orientation of the display screen 42.

[0063] In this embodiment of the present invention, preferably, the display component 4 installed on the side of the mounting platform 1 includes a connecting bracket 41 and a display screen 42. The connecting plate 412 of the connecting bracket 41 and the display screen 42 can be hinged to allow the display screen 42 to be rotated to adjust the tilt angle of the display screen 42 so that the experimenter can observe the sample image displayed on the display screen 42. The rotating rod 411 connected between the mounting platform 1 and the connecting plate 412 is mainly used to rotate the connecting plate 412 and the display screen 42 to change the orientation of the display screen 42.

[0064] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. An experimental sample analysis and detection station, characterized in that, The experimental sample analysis and detection station includes: The mounting platform has a front side for installing the testing component and the swing component, a side side for placing the container, and a side side for installing the display component. A detection component, wherein the detection component is used for image acquisition of a sample; A swing assembly, wherein the swing assembly is provided with a connecting frame for connecting the container, and the swing assembly is used to drive the connecting frame and the container to swing. A display component is used to display images of samples acquired by the detection component.

2. The experimental sample analysis and detection station according to claim 1, characterized in that, The mounting platform has an internal cavity. The swing assembly is installed in the internal cavity of the mounting platform and the connecting frame extends out of the mounting platform to connect with the container. The placement frame includes a placement plate and a support plate. The placement plate and the support plate are respectively connected to the side of the mounting platform. The placement plate has a plurality of placement holes for placing the container. The support plate is located below the placement plate and is used to support the container. The mounting platform is provided with several mounting protrusions for mounting clamps, which are used for detachable connection with the connecting frame.

3. The experimental sample analysis and detection station according to claim 1, characterized in that, The detection assembly includes an adjustment component and a detection element. The adjustment component is mounted on a mounting platform and connected to the detection element. The adjustment component is used to adjust the distance between the detection element and the detection position. The adjustment component includes an adjustment knob, a connecting rod, and a guide rod. The adjustment knob is inserted into a connecting cylinder, which is mounted on the side of the mounting platform. The adjustment knob passes through the side of the mounting platform and is connected to the connecting rod. The connecting rod is rotatably connected to the mounting platform and threadedly connected to the detection element. The guide rod passes through the detection element and is installed in the internal cavity of the mounting platform. Rotating the adjustment knob drives the connecting rod to rotate, causing the detection element to move along the axis of the connecting rod. The guide rod is used to guide the movement of the detection element.

4. The experimental sample analysis and detection station according to claim 3, characterized in that, The detection component includes a detection part and a connecting part. The side of the detection part is connected to the connecting part. The bottom of the detection part is provided with multiple lenses for observing the product. The connecting part is provided with a connecting hole for threaded connection with a connecting rod. The connecting part is provided with a guide hole for sleeved guide rod.

5. The experimental sample analysis stage of claim 4, wherein, The detection assembly also includes a mounting plate, which is installed on the front of the mounting platform and located below the detection component. The mounting plate is used to install the product. A set of first elastic members is provided on the top surface of the mounting plate. A light-transmitting hole is provided at the center of the mounting plate to facilitate the placement of the product on the mounting plate. A set of first elastic members are respectively located on both sides of the light-transmitting hole to facilitate clamping the product. One end of each first elastic member is installed on the boss of the mounting plate, and the other end is used to clamp the product.

6. The experimental sample analysis stage of claim 2, wherein, The swing assembly is equipped with a power component connected to a connecting frame. The connecting frame is used to connect to a container. The power component is installed in the cavity inside the mounting platform. The output end of the power component is connected to the connecting frame through a first connecting gear. The connecting frame extends out of the mounting platform and is connected to the container. The power component is used to drive the connecting frame and the container connected to the connecting frame to swing.

7. The experimental sample analysis stage of claim 6, wherein, The power assembly includes a motor, a first transmission assembly, and a second transmission assembly, with the output end of the motor being rotatably connected to the first transmission assembly. The first transmission assembly includes a first connecting shaft, a first gear, and a first toothed gear. The two ends of the first connecting shaft are respectively inserted into the sleeves on the inner wall of the mounting platform. The first connecting shaft is connected to the first gear and the first toothed gear respectively. The first connecting shaft is connected to the output end of the motor so that the first connecting shaft can drive the first gear and the first toothed gear to rotate. The first gear is coaxially connected to the first toothed gear via a first connecting shaft, the first gear is meshed with the second transmission assembly, and the first toothed gear is meshed with the first connecting gear.

8. The experimental sample analysis stage of claim 7, wherein, The second transmission assembly includes a second connecting shaft, a second gear, and a second toothed gear. The two ends of the second connecting shaft are respectively inserted into the sleeves on the inner wall of the mounting platform, and the second connecting shaft is connected to the second gear and the second toothed gear respectively. The second gear is coaxially connected to the second toothed gear via the second connecting shaft. The second gear meshes with the first gear, and the second toothed gear meshes with the first connecting gear. The second toothed gear and the first toothed gear rotate in opposite directions at the same speed, thereby driving the connecting frame and the container connected to the connecting frame to swing.

9. The experimental sample analysis stage of claim 8, wherein, The back of the connecting frame is inserted into the first connecting gear. The connecting frame and the clamp are detachably connected to facilitate clamp replacement. The connecting frame is provided with a limiting plate for limiting clamp displacement. A set of limiting plates is provided and installed on the upper and lower sides of the connecting frame respectively, with the limiting plates facing the clamp. The side of the connecting frame is provided with a rod-shaped mounting part, which is inserted into the clamp. The outer side of the mounting part is provided with an annular groove for cooperating with the clamp. The clamp is used to hold a container. The side of the clamp is provided with a mounting hole. The wall of the mounting hole is connected to the locking block through a second elastic member. The locking block is used to cooperate with the annular groove so that the connecting frame and the clamp can be detachably connected. The clamp is provided with a U-shaped clamping part for holding the container. The U-shaped clamping part is made of elastic material.

10. The experimental sample analysis stage of claim 1, wherein, The display assembly includes a connecting bracket and a display screen. The connecting bracket includes a rotating rod and a connecting plate. One end of the rotating rod is rotatably connected to the side of the mounting platform, and the other end of the rotating rod is connected to the connecting plate. The connecting plate is rotatably connected to the top of the display screen to facilitate adjustment of the orientation of the display screen.

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