Integrated spectrum developing lycium barbarum polysaccharide detection platform

Abstract

The utility model discloses an integrated spectrum developing lycium barbarum polysaccharide detection platform which comprises support frames I arranged on two sides of a detection platform respectively and a slide rail I of which two ends are vertically connected with one side parts of the two support frames respectively, and a moving module II is arranged on the slide rail I in a sliding manner; the second moving module comprises a first moving seat arranged on the first sliding rail in a sliding mode, a second spectrograph arranged on the first moving seat and a developing device, the second spectrograph is connected with a data processing unit, an analysis program is arranged in the data processing unit, and the data processing unit is connected with a control module. The control module is connected with the developing device; the second spectrograph is connected with the light source adjusting circuit. The method not only can perform efficient spectral analysis on lycium barbarum polysaccharide, but also can perform real-time feedback aiming at the developing characteristic of a sample, and has the technical effect of multiple functions.

Description

Technical Field

[0001] This utility model belongs to the field of spectral detection technology, specifically an integrated spectral development platform for detecting Lycium barbarum polysaccharides. Background Technology

[0002] In the field of modern food and traditional Chinese medicine testing, efficient and accurate detection of active ingredients is crucial for ensuring product quality and safety. Lycium barbarum polysaccharides, as the main active ingredient in Lycium barbarum, possess various physiological functions such as antioxidation, immunomodulation, and anti-aging. Therefore, the research and development of detection methods for Lycium barbarum polysaccharides is of great significance. Currently, detection methods for Lycium barbarum polysaccharides mainly include high-performance liquid chromatography (HPLC), ultraviolet-visible spectroscopy (UV-Vis), and infrared spectroscopy (IR). However, these methods generally suffer from problems such as complex operation, long processing time, high cost, and demanding equipment requirements, limiting their widespread adoption and promotion in practical applications. Furthermore, existing detection methods typically require multiple steps and equipment, making it difficult to achieve integrated and rapid detection, thus affecting detection efficiency and accuracy. Therefore, developing an integrated, easy-to-operate, rapid, and accurate Lycium barbarum polysaccharide detection platform has significant practical implications and application prospects. Utility Model Content

[0003] The purpose of this invention is to provide an integrated spectral imaging platform for detecting Lycium barbarum polysaccharides, which solves the technical problems of low detection efficiency, complex operation, and difficulty in achieving rapid and accurate analysis of Lycium barbarum polysaccharides in the prior art, and has the technical effects of high efficiency, convenience and accuracy.

[0004] An integrated spectral developing platform for detecting Lycium barbarum polysaccharides includes a support frame 1 respectively disposed on both sides of the detection stage, and a slide rail 1 with both ends perpendicularly connected to one side of the two support frames. A moving module 2 is slidably disposed on the slide rail 1. The moving module 2 includes a moving seat 1 slidably disposed on the slide rail 1, a spectrometer 2 disposed on the moving seat 1, and a developing device. The spectrometer 2 is connected to a data processing unit, which contains an analysis program. The data processing unit is connected to a control module, which is connected to the developing device. The spectrometer 2 is connected to a light source adjustment circuit.

[0005] The movable seat 1 includes a horizontally arranged base plate 2, a drive wheel 2 arranged on the side end of the base plate 2, a plurality of support columns 2 arranged on the upper surface of the base plate 2, a heat dissipation plate 2 horizontally arranged at the top of the plurality of support columns 2, and heat dissipation plates 3 respectively vertically arranged at both ends of the heat dissipation plates 2. The heat dissipation plates 3 are arranged between two slide rails 1, and the drive wheel 2 is arranged on the slide rail 1.

[0006] It also includes a second support frame respectively disposed on both sides of the detection table, a second slide rail with both ends perpendicularly connected to the sides of the two second support frames respectively, and a first moving module disposed on the second slide rail. The first moving module is equipped with a signal acquisition system, and the signal acquisition system is connected to the data processing unit or the developing device.

[0007] The distance between the first support frame and the second support frame is greater than 150 cm.

[0008] The first moving module includes a horizontally arranged cross plate, a power wheel arranged at the bottom end of the cross plate, a vertically arranged column arranged on the upper surface of the cross plate, and a mounting plate arranged horizontally at the top of the column. The power wheel is movably arranged on the second slide rail.

[0009] The signal acquisition system includes a sample scanning device mounted on the mobile module 1. The sample scanning device is connected to the developing device via the control module and is connected to the control module via a wire.

[0010] The signal acquisition system also includes a camera and a wireless transmission module mounted on the first mobile module. The camera is connected to the wireless transmission module, which transmits wireless signals to the wireless receiving module. The wireless receiving module is mounted on the second mobile module and connected to the data processing unit. Through its internal analysis program, the data is compared with pre-recorded standard spectral data. When the detected sample spectral characteristics are inconsistent with the standard spectral data, the control module adjusts the movement of the drive wheel in the second mobile module (at the same time, the control module controls the developing device to work), and moves the second mobile module to the location of the sample. In this process, this helps to enhance the developing analysis of the sample and indicate possible component abnormalities or content deviations.

[0011] Beneficial effects: An integrated spectral development platform for detecting Lycium barbarum polysaccharides can not only perform efficient spectral analysis of Lycium barbarum polysaccharides, but also provide real-time feedback on the development characteristics of the sample, thus having multifunctional technical effects. Attached Figure Description

[0012] Figure 1 This is a schematic diagram of the overall structure of the integrated spectral development and detection platform for wolfberry polysaccharides in this embodiment of the present invention; Figure 2 This is a schematic diagram of the structure of mobile module one and mobile module two in an embodiment of this utility model; Figure 3 This is a detailed structural diagram of the movable seat one in an embodiment of this utility model; Figure 4 This is a schematic diagram of the signal acquisition system in an embodiment of the present invention.

[0013] The attached diagram is labeled as follows: 1. Support frame one; 2. Slide rail one; 3. Movable seat one; 31. Base plate two; 32. Drive wheel two; 33. Support column two; 34. Heat sink two; 35. Heat sink three; 4. Spectrometer two; 5. Developing device; 6. Data processing unit; 7. Control module; 8. Light source adjustment circuit; 9. Support frame two; 10. Slide rail two; 11. Movable module one; 111. Sample scanning device; 112. Camera one; 113. Wireless transmission module; 12. Wireless receiving module. Detailed Implementation

[0014] This invention provides an integrated spectral development platform for detecting Lycium barbarum polysaccharides, the overall structure of which is as follows: Figure 1 As shown in the accompanying drawings, the platform includes main components such as support frame 1, slide rail 2, moving module 2, support frame 2 9, slide rail 2 10, and moving module 11. The specific embodiments of this utility model will be described in detail below with reference to the accompanying drawings.

[0015] In practical applications, support frames 1 and 9 of the testing platform are respectively located on both sides of the testing table, with a distance greater than 150 cm between them to ensure sufficient space for sample placement and operation during the testing process. Slide rail 2 is vertically connected at both ends to the sides of the two support frames 1, and slide rail 10 is vertically connected at both ends to the sides of the two support frames 9. The design of slide rails 2 and 10 provides stable track support for the subsequent sliding of the moving module. The moving module 2 is slidably mounted on slide rail 2, and its structure is as follows... Figure 2 As shown, it includes a movable base 3, a spectrometer 4, a developing device 5, and related connecting components. The movable module 11 is slidably mounted on the slide rail 2 10, and its structure is similar to that shown. Figure 2 As shown, it includes a signal acquisition system and its related components.

[0016] The detailed structure of the movable seat 3 is as follows Figure 3 As shown, it mainly includes a base plate 31, a drive wheel 32, a support column 33, a heat sink 34, and a heat sink 35. The base plate 31 is horizontally positioned, with the drive wheel 32 mounted at its bottom. The drive wheel 32 contacts the slide rail 2 and can slide on the slide rail 2. Several support columns 33 are fixed to the upper surface of the base plate 31. The top of these support columns 33 is horizontally positioned with the heat sink 34 to dissipate the heat generated by the spectrometer 4 during operation. The heat sink 35 is vertically positioned at both ends of the heat sink 34 and located between the two slide rails 2, further enhancing the heat dissipation effect and providing additional stability to the overall structure of the moving base 3.

[0017] Both the spectrometer 4 and the developing device 5 are mounted on the movable base 3. The spectrometer 4 is connected to the light source adjustment circuit 8 via wires. The light source adjustment circuit 8 can adjust the light source intensity and wavelength according to the detection requirements, thereby optimizing the spectral analysis effect. The spectrometer 4 is also connected to the data processing unit 6, which has a built-in analysis program that can process and analyze the received spectral data in real time. The data processing unit 6 is connected to the control module 7, which is responsible for coordinating the operation of the entire detection platform, including controlling the working status of the developing device 5 and the movement of the drive wheel 32.

[0018] The moving module 11 includes a horizontally arranged cross plate, a drive wheel located at the bottom of the cross plate, a vertically arranged column located on the upper surface of the cross plate, and a mounting plate horizontally arranged at the top of the column. The drive wheel is movably mounted on the slide rail 10. The structure of the signal acquisition system on the moving module 11 is as follows: Figure 4 As shown, it mainly includes a sample scanning device 111, a camera 112, and a wireless transmission module 113. The sample scanning device 111 is connected to the control module 7 via wires and is used to perform a preliminary scan of the sample and transmit the scan results to the control module 7. The camera 112 is used to capture image information of the sample and transmits the image data to the wireless receiving module 12 via the wireless transmission module 113. The wireless receiving module 12 is mounted on the second moving module and connected to the data processing unit 6. The analysis program in the data processing unit 6 compares the received image data with the pre-recorded standard spectral data. If the detected sample spectral characteristics are inconsistent with the standard spectral data, the control module 7 adjusts the movement of the second drive wheel 32 to move the second moving module to the sample location, and simultaneously controls the developing device 5 to work to enhance the developing analysis of the sample and indicate possible component abnormalities or content deviations.

[0019] In the actual testing process, the wolfberry sample to be tested is first placed on the testing platform. After the testing platform is started, the sample scanning device 111 on the moving module 11 performs a preliminary scan of the sample to obtain basic information about it. Simultaneously, the camera 112 captures images of the sample and transmits the image data to the wireless receiving module 12 via the wireless transmission module 113. The wireless receiving module 12 transmits the received data to the data processing unit 6. The analysis program in the data processing unit 6 processes the data and compares it with standard spectral data. If the comparison result shows that the sample's spectral characteristics are normal, the testing process ends; if the comparison result shows that the sample's spectral characteristics are abnormal, the control module 7 activates the drive wheel 32, causing the moving module 2 to move along the slide rail 2 to the sample's location. During this process, the developing device 5 starts working to perform developing analysis on the sample to further confirm any abnormalities in the sample's composition or content deviations.

[0020] To improve detection efficiency and accuracy, this invention incorporates several key technical details. For example, the combined use of spectrometer 2 (4) and light source adjustment circuit 8 allows for adjustment of light source parameters based on the characteristics of different samples, thereby obtaining more accurate spectral data. The design of heat sink 2 (34) and heat sink 3 (35) effectively reduces the operating temperature of spectrometer 2 (4), extending the equipment's lifespan. Furthermore, the application of wireless transmission module 113 and wireless receiving module 12 enables rapid data transmission, reducing interference and inconvenience that may arise from traditional wired connections.

[0021] In specific applications, this integrated spectral imaging platform for detecting goji berry polysaccharides can be widely used in food testing, pharmaceutical development, and agricultural scientific research. For example, in food testing, the platform can quickly detect the polysaccharide content in goji berry products, ensuring product quality meets relevant standards. In pharmaceutical development, the platform can be used to analyze the active ingredients in goji berry extracts, providing data support for new drug development. In agricultural scientific research, the platform can help researchers assess the accumulation of goji berry polysaccharides under different planting conditions, providing a scientific basis for optimizing planting techniques.

[0022] In summary, this invention integrates spectral analysis and imaging analysis functions onto a single platform through an integrated design, which not only improves detection efficiency but also enhances the accuracy and reliability of the detection results. Through a rational structural design and advanced technical means, this invention successfully solves the technical problems of low detection efficiency, complex operation, and difficulty in achieving rapid and accurate analysis in existing technologies, achieving high efficiency, convenience, and precision.

[0023] 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 integrated spectral imaging platform for detecting Lycium barbarum polysaccharides, comprising support frames (1) respectively disposed on both sides of the detection platform, and slide rails (2) with both ends perpendicularly connected to the sides of the two support frames (1), characterized in that, A second moving module is slidably disposed on the slide rail (2). The second moving module includes a first moving seat (3) slidably disposed on the slide rail (2), a second spectrometer (4) disposed on the first moving seat (3), and a developing device (5). The second spectrometer (4) is connected to a data processing unit (6). The data processing unit (6) is provided with an analysis program. The data processing unit (6) is connected to a control module (7). The control module (7) is connected to the developing device (5). The second spectrometer (4) is connected to a light source adjustment circuit (8).

2. The integrated spectral imaging and detection platform for Lycium barbarum polysaccharides according to claim 1, characterized in that, The movable seat 1 (3) includes a horizontally arranged base plate 2 (31), a drive wheel 2 (32) arranged on the side of the base plate 2 (31), a plurality of support columns 2 (33) arranged on the upper surface of the base plate 2 (31), a heat dissipation plate 2 (34) arranged horizontally at the top of the plurality of support columns 2 (33), and heat dissipation plates 3 (35) arranged vertically at both ends of the heat dissipation plate 2 (34). The heat dissipation plate 3 (35) is arranged between two slide rails 1 (2), and the drive wheel 2 (32) is arranged on the slide rail 1 (2).

3. The integrated spectral imaging and detection platform for Lycium barbarum polysaccharides according to claim 1, characterized in that, It also includes a second support frame (9) respectively set on both sides of the detection table, a second slide rail (10) with both ends perpendicularly connected to the sides of the two second support frames (9), and a first moving module (11) set on the second slide rail (10). The first moving module (11) is equipped with a signal acquisition system, which is connected to the data processing unit (6) or the developing device (5). The distance between the first support frame (1) and the second support frame (9) is greater than 150 cm.

4. The integrated spectral imaging and detection platform for Lycium barbarum polysaccharides according to claim 3, characterized in that, The signal acquisition system includes a sample scanning device (111) mounted on the mobile module (11). The sample scanning device (111) is connected to the developing device (5) via the control module (7). The sample scanning device (111) is connected to the control module (7) via a wire.

5. The integrated spectral imaging and detection platform for Lycium barbarum polysaccharides according to claim 4, characterized in that, The signal acquisition system also includes a camera (112) and a wireless transmission module (113) mounted on the mobile module (11). The camera (112) is connected to the wireless transmission module (113). The wireless transmission module (113) transmits wireless signals to the wireless receiving module (12). The wireless receiving module (12) is mounted on the mobile module and is connected to the data processing unit (6).

6. The integrated spectral imaging and detection platform for Lycium barbarum polysaccharides according to claim 1, characterized in that, The light source adjustment circuit (8) is used to adjust the light source intensity and wavelength to optimize the spectral analysis effect.

7. The integrated spectral imaging and detection platform for Lycium barbarum polysaccharides according to claim 3, characterized in that, The first moving module (11) includes a horizontally arranged cross plate, a power wheel arranged at the bottom of the cross plate, a vertically arranged column on the upper surface of the cross plate, and a mounting plate arranged horizontally at the top of the column. The power wheel is movably arranged on the second slide rail (10).

8. The integrated spectral imaging and detection platform for Lycium barbarum polysaccharides according to claim 5, characterized in that, The analysis program in the data processing unit (6) compares the received image data with the pre-recorded standard spectral data, and controls the control module (7) to adjust the movement of the drive wheel (32) and the operation of the developing device (5) based on the comparison results.

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