Cultivation drying mechanism and raw milk detection device

Abstract

The utility model relates to the technical field of detection, and provides a cultivation drying mechanism and a raw milk detection device. The incubation table is arranged on the incubator and is provided with an incubation station for heating the sample vessel; and the heat conducting plate is arranged on the incubator, is connected with the incubation table, and is provided with a drying station for drying the sample vessel, so that the heat conducting plate heats the sample vessel on the drying station by utilizing heat on the incubation table and / or the incubator. According to the cultivation drying mechanism provided by the utility model, through the design of integrating the incubator and the heat conducting plate, heat generated by the incubator can be fully utilized, and a sample vessel can be rapidly and uniformly heated and dried. Compared with a traditional natural air drying mode, the drying method adopting active heating has the advantages that the drying time is remarkably shortened, and the overall efficiency of the detection process is improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to detection technical field especially, relate to a kind of cultivation drying mechanism and raw milk detection device. BACKGROUND

[0002] In the field of dairy product detection, especially in the detection process of total bacterial count and somatic cell project of raw milk, the cleaning and drying of sample cups are key links to ensure the accuracy and stability of detection results. Traditionally, after the sample cups go through the cleaning steps of water, 2% RBS solution and water in turn, they are usually dried by natural air drying. However, this natural air drying method has significant shortcomings, which are manifested in the following aspects:

[0003] Low drying efficiency: Natural air drying relies on environmental temperature and air flow, resulting in a long drying process and unable to meet the demand for rapid detection. High energy consumption: Although natural air drying does not directly consume energy, due to the long drying period, additional equipment or space may be needed to store the sample cups to be dried during the entire detection process, indirectly increasing energy consumption and cost. Uneven drying: Natural air drying cannot ensure that each sample cup is uniformly and quickly dried, which may cause residual moisture in some areas, affecting the accuracy and reliability of subsequent detection. Affecting detection efficiency and cycle: Due to the uncertainty of the drying process, the detection cycle may be prolonged, which cannot complete sample detection in time, thereby affecting the overall detection efficiency and the time of issuing the report. SUMMARY

[0004] The utility model provides a kind of cultivation drying mechanism and raw milk detection device, on the basis of not separately adding drying equipment, improve the drying efficiency and uniformity of sample cup, ensure the accuracy and stability of detection result.

[0005] In the first aspect, the utility model provides a kind of cultivation drying mechanism, comprising:

[0006] Incubator;

[0007] Incubation table, arranged on the incubator, provided with incubation station for heating sample vessel;

[0008] Heat-conducting plate, arranged on the incubator, connected with the incubation table, provided with drying station for drying the sample vessel, so that the heat-conducting plate heats the sample vessel on the drying station using the heat on the incubation table and / or the incubator.

[0009] According to the cultivation drying mechanism provided by the utility model, the heat-conducting plate is connected to at least one side of the incubation table.

[0010] According to the cultivation drying mechanism provided by the utility model, the heat-conducting plate is a heat-conducting copper plate.

[0011] According to the present invention, a cultivation and drying mechanism is provided, wherein the cultivation station and / or the drying station are provided with positioning grooves suitable for placing the sample vessels.

[0012] According to the present invention, a cultivation and drying mechanism is provided, wherein the cultivation station and / or the drying station are provided with a plurality of positioning grooves, wherein the positioning grooves on the cultivation station are arranged in an array, and the positioning grooves on the drying station are arranged in an array.

[0013] Secondly, this utility model also provides a raw milk detection device, comprising:

[0014] Experimental platform;

[0015] In the aforementioned cultivation and drying apparatus, the incubator is mounted on the experimental table;

[0016] The testing mechanism is located on the experimental platform;

[0017] The robot, positioned on the experimental platform, has a first working state where it grasps the sample vessel from the cultivation station to the detection mechanism, and a second working state where it grasps the sample vessel from the position of the detection mechanism to the drying station.

[0018] According to the present invention, a raw milk detection device further includes:

[0019] An ultrasonic device is installed on the experimental platform;

[0020] The robot has a third working state in which it grasps the ultrasonic mechanism to the culture station to perform ultrasonic treatment on the sample in the sample dish and then places the ultrasonic mechanism back onto the experimental table.

[0021] According to the present invention, a raw milk detection device includes an ultrasonic mechanism comprising:

[0022] An ultrasonic fixture is connected to the experimental platform and has a mounting groove.

[0023] An ultrasonic device is inserted into the mounting slot;

[0024] When the operating robot is in the first working state, the operating robot picks up the ultrasonic device from the placement tank and moves it to the cultivation station to sonicate the sample in the sample dish, and then returns the ultrasonic device to the placement tank.

[0025] According to the present invention, a raw milk detection device is provided, the detection mechanism comprising:

[0026] The detection components are installed on the experimental platform;

[0027] The sample feeder is connected with the detection assembly, and is provided with a placing position for placing the sample container, and is used for sucking the sample in the sample container and sending the sample to the detection area of the detection assembly for analysis.

[0028] According to the raw milk detection device, the raw milk detection device further comprises:

[0029] The cleaning mechanism is arranged on the test bench and is used for cleaning the sample container.

[0030] The cultivation and drying mechanism provided by the utility model can fully utilize the heat generated by the incubator to quickly and uniformly heat and dry the sample container. Compared with the traditional natural air drying method, the active heating drying method can significantly shorten the drying time and improve the overall efficiency of the detection process. Meanwhile, the incubator existing heat source is utilized for drying, and no additional drying equipment or energy is needed, so that the energy consumption is effectively reduced. The design of the heat conducting plate can uniformly transmit heat to each part of the sample container, avoiding the uneven drying problem that may occur in the natural air drying. The uniform drying effect helps to ensure the accuracy and stability of the subsequent detection. The cultivation and drying mechanism can significantly shorten the detection period, so that the detection mechanism can quickly issue a detection report, meeting the customer's demand for detection timeliness. BRIEF DESCRIPTION OF DRAWINGS

[0031] In order to more clearly illustrate the technical scheme in the utility model or the prior art, the following will briefly introduce the drawings needed to be used in the embodiment or the prior art description. Obviously, the drawings in the following description are some embodiments of the utility model, and those skilled in the art can also obtain other drawings according to these drawings without creating creative labor.

[0032] Figure 1 It is a schematic view of the cultivation and drying mechanism provided by the utility model.

[0033] Figure 2 It is a schematic view of the raw milk detection device provided by the utility model.

[0034] Figure 3 It is a schematic view of the raw milk detection device provided by the utility model.

[0035] Reference numerals:

[0036] 10, cultivating and drying mechanism; 101, incubator; 102, incubation table; 103, heat conduction plate; 104, positioning groove; 20, sample vessel; 30, experiment table; 40, detection mechanism; 401, detection assembly; 402, sample feeder; 50, ultrasonic mechanism; 501, ultrasonic fixing member; 502, ultrasonic device; 60, cleaning mechanism; DETAILED DESCRIPTION

[0037] In order to make the purpose, technical scheme and advantages of the utility model more clear, the technical scheme in the utility model will be described clearly and completely below in combination with the drawings in the utility model. Obviously, the described embodiments are part of the embodiments of the utility model, rather than all the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by the ordinary skilled in the art without creative labor fall within the protection scope of the utility model.

[0038] The cultivating and drying mechanism 10 and the milk detection device provided by the utility model will be described below in combination with Figures 1-3 The cultivating and drying mechanism 10 and the milk detection device provided by the utility model will be described below in combination with

[0039] The application provides a cultivating and drying mechanism 10, as Figure 1 The incubation table 102 is arranged on the incubator 101 and is provided with a cultivating station for heating the sample vessel 20 (sample cup). The heat conduction plate 103 is arranged on the incubator 101 and is connected with the incubation table 102 and is provided with a drying station for drying the sample vessel 20, so that the heat conduction plate 103 heats the sample vessel 20 on the drying station by using the heat on the incubation table 102 and / or the incubator 101.

[0040] In the embodiment, the incubator 101 is used for cultivating biological samples, cells, microorganisms or other biological entities. The incubator 101 not only provides a running environment for cultivation, but also becomes a main source of heat generation. The incubation table 102 is located above the incubator 101. The incubation table 102 is specially designed with a cultivating station for heating the sample in the sample vessel 20 placed thereon. The heat conduction plate 103 is closely connected with the incubator 101. The heat conduction plate 103 is provided with a drying station specially used for drying the sample vessel 20. By efficiently utilizing the heat generated by the incubator 101, the heat conduction plate 103 can uniformly and quickly transfer the heat energy to the sample vessel 20 on the drying station, so as to realize rapid drying.

[0041] During the working process, a certain amount of raw milk sample is sucked into the sample cup, the raw milk sample cup to be detected is placed on the incubation workbench 102 of the incubator 101, and the incubator 101 is controlled to heat until the required temperature is reached, and then the raw milk sample in the sample cup starts to incubate. After the raw milk sample is used (for example, detection is performed), the sample cup can be cleaned, and after cleaning, the sample cup can be placed in the drying workbench, and the heat plate 103 uses the residual heat on the incubation workbench 102 and / or the incubator 101 to heat the sample cup in the drying workbench.

[0042] The incubation and drying mechanism 10 provided by the utility model, through the design of integrated incubator 101 and heat plate 103, can fully utilize the heat generated by the incubator 101 to quickly and uniformly heat and dry the sample vessel 20. Compared with the traditional natural air drying method, this active heating drying method significantly shortens the drying time and improves the overall efficiency of the detection process. At the same time, since the incubator 101 is used to dry the existing heat source, additional drying equipment or energy is not needed, thereby effectively reducing energy consumption. The design of the heat plate 103 enables the heat to be uniformly transmitted to each part of the sample vessel 20, avoiding the uneven drying problem that may occur in natural air drying. This uniform drying effect helps to ensure the accuracy and stability of subsequent detection. The incubation and drying mechanism 10 can significantly shorten the detection period, so that the detection mechanism 40 can issue a detection report faster, meeting the customer's demand for detection timeliness.

[0043] In some embodiments, as shown in Figure 1 The heat plate 103 is connected to at least one side of the incubation workbench 102. Generally, the heat plate 103 surrounds the incubation workbench 102, which can more comprehensively absorb and utilize the heat generated by the incubator 101. This ensures that the heat can be more uniformly transmitted to the sample vessel 20 of the heat plate 103.

[0044] Optionally, the heat plate 103 is a heat-conducting copper plate. Copper is a metal with a very high thermal conductivity, which can quickly and effectively transmit heat. Therefore, using a heat-conducting copper plate as the heat plate 103 can ensure that the heat is quickly and uniformly transmitted from the incubator 101 to the sample vessel 20, thereby improving the drying efficiency and uniformity.

[0045] In some embodiments, as shown in Figure 1 The incubation workbench and / or the drying workbench are provided with a positioning groove 104 suitable for placing the sample vessel 20.

[0046] The size and shape of the positioning groove 104 can be adjusted according to the size and specifications of the sample vessel 20 to ensure a perfect fit with sample vessels 20 of various standard sizes. By providing the positioning groove 104, not only is it possible to stably secure the sample vessel 20, preventing it from moving or tilting during heating or drying, but it is also possible to ensure that heat is uniformly transmitted to the sample vessel 20. The provision of the positioning groove 104 makes it very simple and intuitive to place and remove the sample vessel 20. The user simply needs to gently place the sample vessel 20 into the positioning groove 104, and it will be securely fixed in place on the work station.

[0047] It should be noted that the incubation work station and / or the drying work station are provided with a plurality of positioning grooves 104, and the positioning grooves 104 on the incubation work station are arranged in an array, and the positioning grooves 104 on the drying work station are arranged in an array. By arranging the positioning grooves 104 in an array, it is possible to maximize the use of space on the incubation work station and the drying work station. This layout allows each positioning groove 104 to make full use of the space at its location, thereby improving the space utilization of the entire device. The arrayed positioning grooves 104 allow multiple sample vessels 20 to be processed simultaneously, thereby significantly improving the processing efficiency of experiments or tests. The user can complete the heating, incubation and drying steps of a large number of samples in a short period of time, thereby shortening the experimental period.

[0048] The present application also provides a raw milk detection device, as shown in Figures 1 to 3 The raw milk detection device includes a workbench 30, an incubation and drying mechanism 10, a detection mechanism 40 and an operating robot. The incubation and drying mechanism 10 includes an incubator 101, an incubation table 102 and a heat-conducting plate 103. The incubator 101 is provided on the workbench 30; the incubation table 102 is provided on the incubator 101 and is provided with an incubation work station for heating a sample vessel 20 (sample cup); the heat-conducting plate 103 is provided on the incubator 101 and is connected to the incubation table 102, and is provided with a drying work station for drying the sample vessel 20, so that the heat-conducting plate 103 heats the sample vessel 20 on the drying work station using the heat on the incubation table 102 and / or the incubator 101. The detection mechanism 40 is provided on the workbench 30; the operating robot is provided on the workbench 30 and has a first working state of grabbing the sample vessel 20 from the incubation work station to the detection mechanism 40, and a second working state of grabbing the sample vessel 20 from the position of the detection mechanism 40 to the drying work station.

[0049] In this embodiment, the experimental bench 30 serves as the basic platform of the entire detection device, used to support and fix other components. The incubation and drying mechanism 10 is responsible for the incubation and drying of the sample. The incubator 101 provides heat and controls the temperature, ensuring that the sample is incubated in a suitable environment. The incubation table 102 is arranged on the incubator 101 and is used to heat and incubate the sample container 20 (such as a sample cup). The heat-conducting plate 103 is arranged on the incubator 101 and is connected with the incubation table 102, and uses the heat on the incubation table 102 and / or the incubator 101 to dry the sample container 20. The detection mechanism 40 is used to detect the incubated sample to obtain relevant data or results of raw milk. The operation robot automatically grabs and moves the sample container 20 to realize the automation of the incubation, detection and drying process of the sample. When the operation robot is in the first working state, it grabs the sample container 20 from the incubation station to the detection mechanism 40. When the operation robot is in the second working state, it grabs the sample container 20 from the detection mechanism 40 to the drying station.

[0050] During the test, the operation robot grabs the sample container 20 from the initial position to the incubation station. The incubator 101 starts to incubate the sample in the sample container 20. After incubation, the operation robot grabs the sample container 20 from the incubation station to the detection mechanism 40. The detection mechanism 40 detects the sample and generates relevant data or results. After detection and waste liquid pouring, the sample container 20 is sequentially cleaned with water, 2% RBS solution and water. The operation robot grabs the sample container 20 from the detection mechanism 40 to the drying station. The heat-conducting plate 103 uses the heat on the incubation table 102 and / or the incubator 101 to dry the sample container 20. After drying, the sample container 20 is placed in the drying station for standby, waiting for the next sample test.

[0051] In some embodiments, as shown in Figures 1 to 3 The raw milk detection device further comprises an ultrasonic mechanism 50. The ultrasonic mechanism 50 is arranged on the experimental bench 30. The operation robot has a third working state of grabbing the ultrasonic mechanism 50 to the incubation station to perform ultrasonic treatment on the sample in the sample container 20 and placing the ultrasonic mechanism 50 back to the experimental bench 30.

[0052] The ultrasonic mechanism 50 is mainly used for ultrasonic treatment of the sample in the sample container 20. Ultrasonic treatment is a commonly used physical method that can destroy the cell structure of the sample, promote chemical reactions or accelerate the dissolution of substances by generating high-frequency vibration waves. In raw milk detection, ultrasonic treatment can be used to improve the uniformity of the sample, promote the release of microorganisms, or accelerate certain chemical reactions, etc.

[0053] In this embodiment, the robot is added with the function of placing the ultrasonic mechanism 50 to the incubation station to perform ultrasonic treatment on the sample in the sample container 20, and then placing the ultrasonic mechanism 50 back to the experimental table 30 based on the original working state. This newly added working state enables the raw milk detection device to perform ultrasonic treatment on the sample, further enriching the detection means.

[0054] During the detection process, the robot grasps the sample container 20 from the initial position to the incubation station. The robot grasps the sample container 20 from the incubation station to a temporary position (or directly grasps the ultrasonic mechanism 50 to the incubation station), and then grasps the ultrasonic mechanism 50 to the incubation station to perform ultrasonic treatment on the sample. After the ultrasonic treatment is completed, the robot places the ultrasonic mechanism 50 back to the experimental table 30, and grasps the sample container 20 back to the incubation station. The incubator 101 is started to incubate the sample in the sample container 20. The detection mechanism 40 detects the sample after incubation and / or ultrasonic treatment, and generates relevant data or results. After the detection is completed and the waste liquid is poured out, the sample container 20 is sequentially cleaned with water, 2% RBS solution, and water. The robot grasps the sample container 20 from the detection mechanism 40 to the drying station for drying. After drying is completed, the sample container 20 is placed in the drying station for standby, waiting for the next sample test.

[0055] As shown in Figure 2 and Figure 3 , the ultrasonic mechanism 50 includes an ultrasonic fixing member 501 and an ultrasonic device 502. The ultrasonic fixing member 501 is connected to the experimental table 30 and forms a placement slot; the ultrasonic device 502 is inserted into the placement slot; in the case that the robot is in the first working state, the robot grasps the ultrasonic device 502 in the placement slot to the incubation station to perform ultrasonic treatment on the sample in the sample container 20, and returns the ultrasonic device 502 to the placement slot.

[0056] The main function of the ultrasonic fixing member 501 is to be connected to the experimental table 30 to provide a stable and easy-to-operate placement environment for the ultrasonic device 502. The ultrasonic fixing member 501 is fixed to the experimental table 30 by a suitable connection method (such as bolts, welding, etc.), to ensure that it does not move or loosen during operation.

[0057] The ultrasonic device 502 is used to perform ultrasonic treatment on the sample. The ultrasonic device 502 usually has one or more vibration elements that can generate high-frequency vibration waves and transmit them to the sample. The ultrasonic device 502 is inserted into the placement slot of the ultrasonic fixing member 501 to ensure that it can maintain a stable position and angle during operation.

[0058] As shown in Figure 3As shown, the detection mechanism 40 includes a detection assembly 401 and a sample feeder 402. The detection assembly 401 is disposed on the test bench 30, and the sample feeder 402 is connected to the detection assembly 401 and is provided with a placement position for placing the sample vessel 20, for sucking the sample in the sample vessel 20 and sending it to the detection area of the detection assembly 401 for analysis. The detection assembly 401 is used for various analysis and detection operations on the sample. These operations can include spectral analysis, chemical analysis, biological analysis, etc., depending on the detection requirements and sample characteristics. The detection assembly 401 is disposed on the test bench 30 and generally has one or more detection areas for placing and analyzing samples. During operation, the sample feeder 402 will use a suction head or other device to suck the sample from the sample vessel 20 and send it to the detection area of the detection assembly 401 through a pipe or channel. The sample feeder 402 is connected to the detection assembly 401, usually through a pipe, an interface or other connecting device. This connection ensures that the sample can be smoothly transferred from the sample feeder 402 to the detection assembly 401.

[0059] In addition, the detection mechanism 40 also includes a display electrically connected to the detection assembly 401, which is used to display the detection results and / or operation interface.

[0060] In some embodiments, as shown, Figure 3 As shown, the raw milk detection device also includes a cleaning mechanism 60 disposed on the test bench for cleaning the sample vessel 20. The cleaning mechanism 60 includes a spray head, a cleaning tank, a water pump, a waste water discharge device and other components. The spray head is used to spray cleaning liquid, the cleaning tank is used to contain the sample vessel 20 and the cleaning liquid, the water pump is used to provide power for the cleaning liquid, and the waste water discharge device is used to discharge waste water generated during the cleaning process. The cleaning mechanism 60 is usually designed in an automated or semi-automated form to reduce the burden on the operator and improve the cleaning efficiency and accuracy. For example, an operating robot can automatically send the sample vessel 20 into the cleaning mechanism 60 and take it out after the cleaning is completed.

[0061] During the detection process, the operation robot picks up the sample vessel 20 from the initial position to the incubation station. The operation robot picks up the sample vessel 20 from the incubation station to a temporary position (or directly picks up the ultrasonic mechanism 50 to the incubation station), and then picks up the ultrasonic mechanism 50 to the incubation station for ultrasonic treatment of the sample. After the ultrasonic treatment is completed, the operation robot returns the ultrasonic mechanism 50 to the experimental table 30, and picks up the sample vessel 20 back to the incubation station. The incubator 101 is started, and the sample in the sample vessel 20 is incubated. The detection mechanism 40 detects the sample after incubation and / or ultrasonic treatment, and generates related data or results. After detection and waste liquid pouring are completed, the sample vessel 20 can be moved to the cleaning mechanism 60, which sequentially uses clean water, 2% RBS solution, and clean water for cleaning. After cleaning is completed, the operation robot picks up the sample vessel 20 from the detection mechanism 40 to the drying station for drying. After drying is completed, the sample vessel 20 is placed in the drying station for standby, waiting for the next sample test.

[0062] In a specific embodiment, during the total number of colonies detection process using the raw milk detection device provided in the embodiment, 1 mL of the sample to be detected is taken in the sample vessel 20, 2 mL of IBCm bacterial detection reagent is added, and it is placed on the incubation station of the incubation table 102. The sample can be numbered and named through the operation interface, or can be numbered and named through the code scanning gun. After the sample numbering and naming is completed (note: the above steps are completed within 1 min, and the sample cup is placed on the incubator for 1 min), the display prompts the sample ultrasonic, the ultrasonic device 502 is vertically placed in the sample bottle and pressed down, the ultrasonic device 502 automatically ultrasonicates, the ultrasonic time is 8 s, the culture is continued for 8 min, the ultrasonic is performed again for 8 s, and the culture is continued for 1 min. At this time, the icon turns green, the sample is moved to the placement position of the sample feeder 402 by the operation robot, the sample feeder 402 sucks the sample in the sample vessel 20 and sends it into the detection area of the detection assembly 401 for analysis. After the detection assembly 401 completes the detection, the waste liquid is poured, the sample vessel 20 is moved to the cleaning mechanism 60, and the cleaning mechanism 60 sequentially uses clean water, 2% RBS solution, and clean water for cleaning. After cleaning is completed, the operation robot picks up the sample vessel 20 from the detection mechanism 40 to the drying station for drying. After drying is completed, the sample vessel 20 is placed in the drying station for standby, waiting for the next sample test.

[0063] In the process of detecting somatic cells by using the raw milk detection device provided by the embodiment, 1 mL of a sample to be detected is taken in the sample container 20, 2 mL of SCC somatic cell reagent is added, and the sample is placed on the incubation station of the incubation table 102. The sample can be numbered and named through the operation interface or can be numbered and named through the code scanning gun. After the sample naming is completed (note: the above steps are completed within 1 minute; after the sample cup is placed on the incubator for 1 minute), the detection can be started. The sample is transferred to the installation position of the sample feeder 402 by operating the robot, the sample feeder 402 sucks the sample in the sample container 20 and sends it into the detection area of the detection assembly 401 for analysis. After the detection assembly 401 completes the detection, the waste liquid is poured, and the sample container 20 is moved to the cleaning mechanism 60, which is sequentially cleaned with water, 2% RBS solution and water. After cleaning is completed, the sample container 20 is grabbed from the detection mechanism 40 to the drying station by the operating robot for drying. After drying is completed, the sample container 20 is placed in the drying station for standby, waiting for the next sample test.

[0064] The raw milk detection device provided by the embodiment of the utility model can fully utilize the heat generated by the incubator 101 to quickly and uniformly heat and dry the sample container 20. Compared with the traditional natural air drying method, the active heating drying method significantly shortens the drying time and improves the overall efficiency of the detection process. At the same time, since the incubator 101 is used as the existing heat source for drying, additional drying equipment or energy is not needed, thereby effectively reducing energy consumption. The design of the heat conduction plate 103 enables the heat to be uniformly transmitted to each part of the sample container 20, avoiding the uneven drying problem that may occur in natural air drying. This uniform drying effect helps to ensure the accuracy and stability of subsequent detection. The incubation and drying mechanism 10 can significantly shorten the detection period, so that the detection mechanism 40 can issue a detection report faster, meeting the customer's demand for detection timeliness.

[0065] Finally, it should be noted that: the above embodiments are only used to illustrate the technical solutions of the utility model, but not to limit them; although the utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that they can still modify the technical solutions recorded in the foregoing embodiments, or make equivalent replacement for part of the technical features; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the embodiments of the utility model.

Claims

1. A culture drying mechanism (10) characterized by, The incubator (101) comprises: An incubation table (102) disposed on the incubator (101) and provided with an incubation station for heating a sample container (20); A heat-conducting plate (103) disposed on the incubator (101) and connected with the incubation table (102), and provided with a drying station for drying the sample container (20), so that the heat-conducting plate (103) heats the sample container (20) on the drying station by using the heat on the incubation table (102) and / or the incubator (101). The heat-conducting plate (103) is connected to at least one side of the incubation table (102).

2. The incubation drying mechanism (10) according to claim 1, characterized in that The heat-conducting plate (103) is a heat-conducting copper plate.

3. The incubation drying mechanism (10) according to claim 2, characterized in that The incubation station and / or the drying station are provided with positioning grooves (104) suitable for accommodating the sample container (20).

4. The incubation drying mechanism (10) according to claim 1, characterized in that, The incubation station and / or the drying station are provided with a plurality of positioning grooves (104), and the positioning grooves (104) on the incubation station are arranged in an array, and the positioning grooves (104) on the drying station are arranged in an array.

5. The incubation drying mechanism (10) according to claim 4, characterized in that The incubation and drying mechanism (10) comprises:

6. A raw milk detecting device characterized by comprising: An experimental table (30); The incubator (101) is disposed on the experimental table (30); A detection mechanism (40) disposed on the experimental table (30); An operation robot disposed on the experimental table (30) and having a first working state of grabbing the sample container (20) from the incubation station to the detection mechanism (40), and a second working state of grabbing the sample container (20) from the detection mechanism (40) to the drying station. The raw milk detection device further comprises:

7. The apparatus of claim 6, wherein An ultrasonic mechanism (50) disposed on the experimental table (30); The operation robot has a third working state of grabbing the ultrasonic mechanism (50) from the incubation station to perform ultrasonic treatment on the sample in the sample container (20) and placing the ultrasonic mechanism (50) back on the experimental table (30). The ultrasonic mechanism (50) comprises:

8. The apparatus of claim 7, wherein An ultrasonic fixing member (501) connected to the experimental table (30) and formed with an accommodation groove; An ultrasonic device (502) inserted into the accommodation groove; In the case that the operation robot is in the first working state, the operation robot grabs the ultrasonic device (502) from the accommodation groove to the incubation station to perform ultrasonic treatment on the sample in the sample container (20), and returns the ultrasonic device (502) to the accommodation groove. The detection mechanism (40) comprises:

9. The apparatus of claim 6, wherein A detection assembly (401) disposed on the experimental table (30); A sample feeder (402) connected with the detection assembly (401) and provided with an accommodation position for accommodating the sample container (20), for sucking the sample in the sample container (20) and sending it to the detection area of the detection assembly (401) for analysis. The raw milk detection device further comprises:

10. The apparatus of claim 6, wherein A cleaning mechanism (60) disposed on the experimental table and used for cleaning the sample container (20). ​

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