A segmented cooling base wine detection device

Abstract

The present invention belongs to the field of wine detection, and specifically relates to a segmented cooling base wine detection device, comprising a signal processing module, a base wine detection module, a signal transmission line, and a detection device platform; the base wine detection module is connected to a segmented cooling device, and the segmented cooling device is used to cool the wine to room temperature in segments and then send it into the base wine detection module for detection; a shock-absorbing part is provided below the detection device platform, which is used to buffer and shock-absorb the base wine detection device in a horizontal direction; a support part is provided below the detection device platform for sliding in and out of the detection device platform, and an adjustment part that cooperates with the support part is provided on the detection device platform; the base wine detection device has higher practicality and anti-interference performance, ensures the accuracy of base wine detection data, and improves the quality and efficiency of the base wine collection section.

Description

Technical Field

[0001] The invention belongs to the field of wine detection, and in particular relates to a segmented cooling base wine detection device. Background Art

[0002] During the distillation process of liquor, in order to scientifically determine the base liquor collection period, it is necessary to conduct timely testing of the various components and contents in the base liquor. The traditional identification method is to use a hydrometer to roughly measure the alcohol concentration by the specific gravity method or to manually determine the base liquor collection period by the size of the hops. In the actual collection process, since both the specific gravity method and the hop identification method are mainly based on alcohol concentration as the judgment standard, they are not only easily affected by other components, resulting in inaccurate measurement of alcohol concentration, but are also greatly affected by subjective factors and the limited number of measurements, which will lead to a decline in base liquor quality or waste of some base liquor. Therefore, the research on base liquor detection devices is of great significance and is of great help to improve the quality of base liquor and the efficiency of base liquor collection.

[0003] Most of the methods used in the existing technology are to use gas chromatography or molecular spectroscopy to test the liquor entering the base liquor testing chamber after the liquor is cooled to room temperature, compare the content of various compounds in it with the sample models of each grade, and determine the best base liquor collection section according to needs. The processing module processes the information transmitted from the base liquor testing chamber in real time, controls the timely opening or closing of each liquor collection channel, and realizes non-destructive testing and efficient collection of liquor.

[0004] However, in actual application, if the liquor enters the base liquor detection chamber before cooling to room temperature, or due to unstable liquid inflow or sudden pressurization, it may cause the base liquor detection device to shake, which will interfere with the data collection of the base liquor detection chamber. At the same time, because the height of most base liquor detection devices cannot be adjusted, it is difficult to directly cooperate with other equipment for testing, and it may also squeeze the hose at the bottom of the base liquor detection chamber, further increasing the probability of unstable liquid inflow and outflow. Summary of the Invention

[0005] The purpose of the present invention is to overcome the shortcomings of the above-mentioned prior art and provide a base wine detection device with segmented cooling, which can ensure that the wine is cooled to room temperature before entering the base wine detection chamber; at the same time, the height adjustment of the entire base wine detection device can adapt to the needs of different venues; the shock-absorbing and buffering effect can also avoid interference with the collection of data in the base wine detection chamber due to vibration, thereby realizing stable and accurate base wine detection.

[0006] To achieve the above object, the present invention adopts the following technical solutions:

[0007] A segmented cooling base wine detection device, the base wine detection device includes a signal processing module, a base wine detection module, and also includes a signal transmission line connecting the signal processing module and the base wine detection module, the signal processing module, the signal transmission line and the base wine detection module are all arranged on a detection device platform, the base wine detection module is connected to a segmented cooling device, the segmented cooling device is used to cool the wine in segments to room temperature and then send it into the base wine detection module for detection; a shock absorbing part is provided below the detection device platform for buffering and shock absorbing the base wine detection device in the horizontal direction; a support part is provided below the detection device platform for sliding in and out of the detection device platform, and an adjustment part that cooperates with the support part is provided on the detection device platform for adjusting the height of the detection device platform in the vertical direction.

[0008] Preferably, the segmented cooling device includes a first-stage cooling device and a second-stage cooling device, and a first circulating cooling pipe and a second circulating cooling pipe are arranged between the first-stage cooling device and the second-stage cooling device to connect the two in series; the segmented cooling device also includes an air cooling device for cooling the first circulating cooling pipe and the second circulating cooling pipe; the first-stage cooling device and the second-stage cooling device both cool the wine by heat exchange between the internal serpentine cooling pipe and the circulating coolant, the first-stage cooling device is used for preliminary cooling of the wine, and the second-stage cooling device is used for cooling the wine flowing out of the first-stage cooling device to room temperature.

[0009] Preferably, the wine flows in through the serpentine cooling pipe inlet arranged below the first-stage cooling device and the second-stage cooling device, and flows out through the serpentine cooling pipe outlet arranged above the first-stage cooling device and the second-stage cooling device, the first serpentine cooling pipe outlet is connected to the second serpentine cooling pipe inlet, the first serpentine cooling pipe outlet is provided with a first thermometer, the second serpentine cooling pipe outlet is connected to the liquid inlet hose of the base wine detection module, and the liquid inlet hose is provided with a third thermometer; the circulating coolant enters through the water inlet arranged above the first-stage cooling device and the second-stage cooling device, and flows out through the water outlet arranged below the first-stage cooling device and the second-stage cooling device; the air cooling device is provided with an air inlet and an air outlet, and the first circulation cooling pipe and the second circulation cooling pipe are provided between the air inlet and the air outlet; The two ends of the first circulating cooling pipe are respectively connected to the first water outlet and the second water inlet, the first water outlet is arranged below the first-stage cooling device, and the second water inlet is arranged above the second-stage cooling device; the two ends of the second circulating cooling pipe are respectively connected to the second water outlet and the first water inlet, the second water outlet is arranged below the second-stage cooling device, and the first water inlet is arranged above the first-stage cooling device; a second thermometer and a drain pipe are arranged between the first circulating cooling pipe and the first water outlet, and a first solenoid valve is arranged on the drain pipe for discharging excess circulating coolant; a third water inlet is also arranged above the second-stage cooling device, and a second solenoid valve is arranged at the third water inlet, and the third water inlet is used to replenish the circulating coolant according to the temperature of the third thermometer; the solenoid valve and the thermometer are both electrically connected to the control box.

[0010] Preferably, the first serpentine cooling pipe body of the first-stage cooling device is a circuitously arranged metal elbow with a large inlet and a small outlet.

[0011] Preferably, the platform shell of the detection device platform is an internal hollow cavity, and the adjustment part includes an adjustment knob arranged on the outside of the platform shell, and an adjustment rod threadedly engaged with the side hole arranged on the platform shell, and an adjustment block is fixedly sleeved on the adjustment rod and slidingly engaged with the support part to form a slope. The adjustment block can move back and forth along the rod length direction of the adjustment rod under the drive of the adjustment rod, and the adjustment block rises or falls along the slope when moving.

[0012] Preferably, the adjustment block is a wedge-shaped block with an inclined bottom surface, and the support part is a support rod with an inclined top surface. The adjustment block and the support part are grouped in pairs, and the adjustment block and the corresponding support part in each group form a sliding fit with each other along the inclined surface, and the inclination angle of the adjustment block and the corresponding support part in each group is the same.

[0013] Preferably, the adjustment block and the support part are both provided with four; the four adjustment blocks are connected into one by a connecting piece, and the connecting piece includes a transverse connecting piece arranged parallel to the adjustment rod, and a longitudinal connecting piece whose length direction is perpendicular to the adjustment rod; the adjustment rod also includes a head connecting rod and a tail connecting rod respectively threadedly matched with the two sides of the detection device platform, an intermediate connecting rod is provided between the head connecting rod and the tail connecting rod, and the longitudinal connecting piece sliding limit is located on the intermediate connecting rod; the longitudinal connecting piece includes a movable sleeve, and the movable sleeve is sleeved on the intermediate connecting rod; a limit block is provided on the intermediate connecting rod, which is used to limit the movable sleeve from sliding along the rod length direction of the adjustment rod.

[0014] Preferably, the adjustment block is a plurality of independent frustums, and the frustums form a sliding fit with the top slope of the support portion through their circumferential slopes, and the frustums are fixed to one end of the adjustment rod; the adjustment rod forms a threaded fit with the side of the detection device platform, and under the drive of the adjustment rod, each frustum can independently move back and forth along the length direction of the adjustment rod.

[0015] Preferably, the shock absorbing part includes a compression spring fixed obliquely to the bottom plate of the detection device platform, and a suction cup connected to the compression spring, and the suction cup is adsorbed on the working surface.

[0016] Preferably, the base wine detection module includes a funnel-shaped base wine detection chamber, a liquid outlet hose arranged above the base wine detection chamber, and a liquid inlet hose arranged at the bottom of the base wine detection chamber.

[0017] The beneficial effects of the present invention are:

[0018] (1) The segmented cooling base wine detection device realizes rapid and efficient cooling of the wine in segments through a two-stage cooling device, ensuring that the wine is cooled to the optimal detection temperature of room temperature before detection, thereby ensuring the accuracy of the data during detection; the use of circulating coolant is also conducive to cost saving and environmental protection.

[0019] (2) In the detection device platform of the segmented cooling base wine detection device, the adjustment part can be an integrated adjustment part, which cooperates with the corresponding support part to smoothly adjust all the support parts to the same height at the same time, thereby realizing operations at different heights.

[0020] (3) In the detection device platform of the segmented cooling base wine detection device, the adjustment part can be a plurality of independent adjustment parts, and each independent adjustment part cooperates with the corresponding support part to adjust the support part to different heights, so that the base wine detection device can still operate normally on an uneven or inclined working surface, and avoid squeezing the inlet and outlet hoses of the base wine detection device.

[0021] (4) The segmented cooling base wine detection device, before the base wine detection module starts working, adsorbs the suction cup of the shock-absorbing part to the working surface, which can be a work table, a test platform or the ground, etc. Through the change of the horizontal component of the elastic force of each compression spring, the entire base wine detection device can quickly return to a balanced state when it is shaken in the horizontal direction, regardless of whether it is subjected to a certain amount of shaking or impact, so as to keep the entire base wine detection device stable and not shake significantly, thereby reducing external interference in the base wine detection process; the mutual coordination between segmented cooling, height adjustment and buffering and shock absorption makes the base wine detection device more practical and anti-interference, ensuring the accuracy of the base wine detection data and optimizing the efficiency and quality of the base wine collection section.

[0022] (5) In the segmented cooling base wine detection device, no liquid will remain in the funnel-shaped base wine detection chamber during the non-liquid injection period. Even if the condensation device pipe and the detection chamber are cleaned, it is ensured that no water will remain in the base wine detection chamber to avoid contaminating the wine to be tested next time. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0024] Figure 2 It is a front cross-sectional view of the segmented cooling device of the present invention;

[0025] Figure 3 This is a left side view of the detection device platform of Example 1 of the present invention;

[0026] Figure 4 This is a high-level AA cross-sectional view of the detection device platform of Example 1 of the present invention;

[0027] Figure 5 This is a low-level AA cross-sectional view of the detection device platform of Example 1 of the present invention;

[0028] Figure 6 This is a low-level BB cross-sectional view of the detection device platform of Example 1 of the present invention;

[0029] Figure 7 This is a left side view of the detection device platform of Example 2 of the present invention;

[0030] Figure 8 This is a low-level AA cross-sectional view of the detection device platform of Example 2 of the present invention;

[0031] Figure 9 This is a low-level BB cross-sectional view of the detection device platform of Example 2 of the present invention;

[0032] The actual correspondence between the reference numerals and component names of the present invention is as follows:

[0033] 1. Signal processing module;

[0034] 2. Signal transmission line;

[0035] 3. Base wine detection module; 31. Liquid outlet hose; 32. Base wine detection chamber; 33. Liquid inlet hose;

[0036] 4. Segmented cooling device; 41. First-stage cooling device; 411. First water inlet; 412. First serpentine cooling pipe inlet; 413. First serpentine cooling pipe body; 414. First thermometer; 415. First serpentine cooling pipe outlet; 416. First water outlet; 417. Second thermometer; 418. Drain pipe; 419. First solenoid valve; 42. Air cooling device; 421. Air inlet; 422. Air outlet; 423. First circulating cooling pipe; 424. Second circulating cooling pipe; 43. Second-stage cooling device; 431. Second water inlet; 432. Second serpentine cooling pipe inlet; 433. Second serpentine cooling pipe body; 434. Second serpentine cooling pipe outlet; 435. Third thermometer; 436. Second solenoid valve; 437. Third water inlet; 438. Second water outlet;

[0037] 5. Detection device platform; 51. Platform housing; 511. Side hole; 512. Through hole; 52. Adjustment unit; 521. Adjustment knob; 522. Adjustment rod; 522a. Head connecting rod; 522b. Middle connecting rod; 522c. Tail connecting rod; 522d. Stopper; 523. Adjustment block; 523a. Wedge block; 523b. Round table; 524. Connector; 5241. Horizontal connector; 5242. Longitudinal connector; 5242a. Movable sleeve; 53. Support unit; 54. Shock absorber; 541. Compression spring; 542. Suction cup; DETAILED DESCRIPTION

[0038] In order to make the technical solution of the present invention clearer, the present invention is further described below with reference to the accompanying drawings. Any equivalent replacement of the technical features of the technical solution of the present invention and any solution derived by conventional reasoning by ordinary technicians in this field without creative work shall fall within the scope of protection of the present invention. Figure 1-9 The specific structure and working mode of the present invention are further described as follows: Example 1

[0039] Example 1 of the present invention is as follows Figure 1-6 As shown, the segmented cooling base wine detection device includes a signal processing module 1, a signal transmission line 2, a base wine detection module 3, a segmented cooling device 4, and a detection device platform 5.

[0040] The distilled gas-liquid mixture is cooled to room temperature by the segmented cooling device 4 and then enters the base wine detection chamber 32. The specific process is as follows:

[0041] In this embodiment, the circulating coolant circulates between the first-stage cooling device, the circulating cooling pipe and the second-stage cooling device, and the circulating coolant used is cooling water.

[0042] The distilled gas-liquid mixture enters the first-stage cooling device 41 through the first serpentine cooling tube inlet 412 at the lower left of the first-stage cooling device 41, is water-cooled within the first-stage cooling device 41, and flows out as a liquid from the first serpentine cooling tube outlet 415 at the upper right. The first serpentine cooling tube is a copper tube fixedly mounted within the first-stage cooling device 41, and the first serpentine cooling tube body 413 tapers gradually from the inlet to the outlet. This structure maximizes the efficiency of cooling the gas-liquid mixture liquor within the first-stage cooling device 41 to a liquid state. A first thermometer 414 is installed at the first serpentine cooling tube outlet 415, which displays the temperature of the liquor flowing out after cooling through the first-stage cooling device 41, which is controlled at approximately 50°C.

[0043] Cooling water from the first-stage cooling device 41 flows into the first water inlet 411 on the upper left side of the first-stage cooling device 41 and flows out of the first water outlet 416 on the lower right side. A second thermometer 417 is installed at the first water outlet 416 to display the temperature of the cooling water flowing out of the first water outlet 416, which is controlled to be approximately 50°C to 70°C. Based on the temperature displayed by the second thermometer 417, the first solenoid valve 419 on the drainage pipe 418 is controlled to drain excess cooling water. The remaining cooling water flows into the second-stage cooling device 43 through the first circulating cooling pipe 423 for use. The cooling water discharged from the drainage pipe 418 can be used for urban heating or power generation. The first circulating cooling pipe 423 connects the first water outlet 416 of the first-stage cooling device 41 and the second water inlet 431 of the second-stage cooling device 43. Part of the first circulating cooling pipe 423 is located inside the air cooling device 42, between the air inlet 421 and the air outlet 422. The cold air inside the air cooling device 42 flows from the air inlet 421 to the air outlet 422, cooling the cooling water flowing through the first circulation cooling pipe 423. The cooling water after air cooling flows out of the air cooling device 42 and enters the second water inlet 431 located on the upper left of the second-stage cooling device 43, and is used as cooling water for the second-stage cooling device 43.

[0044] The liquor flowing out of the first serpentine cooling pipe outlet 415 flows into the second-stage cooling device 43 through the second serpentine cooling pipe inlet 432 at the lower left of the second-stage cooling device 43. After being water-cooled in the second-stage cooling device 43, it flows out of the second serpentine cooling pipe outlet 434 at the upper right of the second-stage cooling device 43 and flows into the base liquor detection chamber 3 through the liquid inlet hose 33. The second serpentine cooling pipe is a copper tube fixedly mounted within the second-stage cooling device 43. A third thermometer 435 is installed at the second serpentine cooling pipe outlet 434 to display the temperature of the liquor flowing out of the second-stage cooling device 43 after cooling, which is controlled at approximately 20°C, the room temperature.

[0045] The amount of circulating coolant, or cooling water, entering the second-stage cooling device 43 is controlled by controlling the first solenoid valve 419. The amount of refilled circulating coolant, or cooling water, is controlled by controlling the second solenoid valve 436 located at the third water inlet 437. This is used to jointly adjust the temperature of the cooling water in the second-stage cooling device 43 so that the third thermometer 435 indicates room temperature. Specifically, when the weather is cold or the temperature indicated by the third thermometer 435 is below room temperature, the first solenoid valve 419 is adjusted to increase the amount of cooling water entering the second water inlet 431, or the second solenoid valve 436 is adjusted to reduce the amount of external low-temperature cooling water entering the third water inlet 437, or both solenoid valves are adjusted simultaneously. When the weather is hot or the temperature indicated by the third thermometer 435 is above room temperature, the first solenoid valve 419 is adjusted to reduce the amount of cooling water entering the second water inlet 431, or the second solenoid valve 436 is adjusted to increase the amount of external low-temperature cooling water entering the third water inlet 437, or both solenoid valves are adjusted simultaneously. All cooling water from the second-stage cooling device 43 flows out through the second water outlet 438 at its lower right corner and enters the second circulating cooling pipe 424. The second circulating cooling pipe 424 is partially located within the air cooling device 42, parallel to the first circulating cooling pipe 423, and between the air inlet 421 and the air outlet 422. After being cooled by air, the cooling water flows into the first water inlet 411 and is used as cooling water for the first-stage cooling device 41.

[0046] All solenoid valves and thermometers are electrically connected to the control box. The control box software and hardware cooperate to control the solenoid valve according to the temperature of the thermometer to adjust the replenishment of cooling water from the third water inlet 437 and the discharge of cooling water from the drainage pipe 418. The software algorithm for controlling the supply and discharge of cooling water by the control box belongs to the existing technology.

[0047] The two-stage cooling device realizes efficient cooling of the distilled liquor in sections, ensuring that the liquor is cooled to about 20°C room temperature before entering the base liquor testing chamber 32. The recycling of cooling water is also beneficial to cost saving and environmental protection.

[0048] After the liquor cools to room temperature, it enters the base liquor detection chamber 32 from the bottom of the base liquor detection chamber 32 through the liquid inlet hose 33 and undergoes full spectroscopy to detect the components and content of the real-time liquor. The tested liquor flows out from the liquid outlet hose 33 at the top of the base liquor detection chamber 32. The detection data is transmitted back to the signal processing module 1 through the signal transmission line 2 for processing and comparison. The entire base liquor detection chamber 32 is funnel-shaped, with a larger top and a smaller bottom. It will only be detected when the incoming liquid reaches the rectangular area at the top of the base liquor detection chamber 32, to ensure that the detection is carried out when the liquor flows stably and sufficiently through the base liquor detection chamber 32. No liquid will be retained in the funnel-shaped base liquor detection chamber 32 during the non-liquid inflow period. Even if the cooling device pipes and the detection chamber are cleaned, it can be ensured that no water will remain in the base liquor detection chamber, and the accuracy of the next test is guaranteed.

[0049] The detection device platform 5 includes a load-bearing platform shell 51 , an adjustment portion 52 , a support portion 53 inserted into the detection device platform 5 from below the platform shell 51 , and a shock absorbing portion 54 connected to the lower base plate of the platform shell 51 .

[0050] The adjustment portion of this embodiment is an integrated adjustment portion.

[0051] The platform housing 51 is a hollow, thick, steel hexahedron with side holes 511 on its sides. The adjustment unit 52 includes an adjustment knob 521, an adjustment rod 522, four identical adjustment blocks 523, and a connector 524. The adjustment knob 521 is located on the outside of the platform housing 51. The adjustment rod 522 is fixedly connected to the adjustment knob 521 and rotates in and out of the platform housing 51. The inner surfaces of the side holes 511 on either side of the platform housing 51 are threadedly engaged with the outer surfaces of the head connecting rod 522a and the tail connecting rod 522c of the adjustment rod 522. The adjusting rod 522 includes a head connecting rod 522a, an intermediate connecting rod 522b and a tail connecting rod 522c. The two ends of the smooth intermediate connecting rod 522b arranged inside the platform shell 51 are respectively welded to the head connecting rod 522a and the tail connecting rod 522c, and the connecting parts thereof are respectively sleeved with movable sleeves 5242a, and the connecting parts of the adjusting rod 522 are fixedly provided with limit blocks 522d in front and behind the movable sleeves 524a, which are used to limit the sliding of the movable sleeves 5242a along the length direction of the adjusting rod 522. The four adjustment blocks 523 are connected as a whole through a connecting piece 524. The connecting piece 524 includes two transverse connecting pieces 5241 arranged parallel to the adjustment rod 522, and two longitudinal connecting pieces 5242 whose length direction is perpendicular to the adjustment rod 522. The longitudinal connecting piece 5242 is fixed by a movable sleeve 5242a and connecting rods on both sides thereof. The inner surface of the movable sleeve 5242a is smooth, and its inner diameter is the same as the diameter of the middle connecting rod 522b.

[0052] Adjustment blocks 523 are located inside the detection device platform 5 and consist of four identical wedge-shaped blocks 523a. The upper surfaces of these wedge blocks 523a are horizontal and smoothly align with the inner surface of the upper base of the platform housing 51. Their lower surfaces are smooth, inclined surfaces. The vertical height of these wedge blocks 523a is the same as the height of the hollow space within the detection device platform 5. The four wedge blocks 523a are fixedly connected to the longitudinal connectors 5242 via transverse connectors 5241.

[0053] The support portion 53 used to support the entire base wine detection device is composed of four identical cylindrical support rods with smooth outer surfaces. The four support rods are respectively located at the four corners of the detection device platform 5 and are inserted into the interior of the detection device platform 5 from the bottom of the detection device platform 5 through four through holes 512. The inner diameter of the four through holes 512 is the same as the diameter of the four support rods, and the inner surface of the through holes 512 and the outer surface of the support portion 53 are both smooth curved surfaces. The top of the support portion 53 is cut into a smooth inclined surface with the same inclination angle as the bottom surface of the adjustment block 523. The adjustment block 523 and the support portion 53 are grouped in pairs, that is, the top inclined surface of each group of support portions 53 is completely in contact with the bottom inclined surface of the adjustment block 523, and they form a sliding fit along the inclined surface.

[0054] By rotating the adjusting knob 521, the adjusting rod 522 is screwed in or out of the detection device platform 5. Driven by the adjusting rod 522, the wedge block 523a moves back and forth synchronously and smoothly along the length direction of the adjusting rod 522. When moving, the wedge block 523a slides relatively up or down along the top inclined surface of the support part 53. Each group of support parts 53 also moves in the vertical direction relative to the position of each through hole 512. When the head connecting rod 522a is rotated out of the detection device platform 5 to the maximum extent, that is, when the two wedge-shaped blocks 523a on the left side of the detection device platform 5 are moved to the leftmost, the top of each group of support parts 53 slides to the highest point of the smooth inclined bottom surface of the corresponding wedge-shaped block 523a. At this time, the part of the support part 53 exposed to the detection device platform 5 is the shortest, and the entire detection device platform 5 is at the lowest position; when the head connecting rod 522a is completely screwed into the detection device platform 5, the top of each group of support parts 53 slides to the lowest point of the smooth inclined bottom surface of the corresponding wedge-shaped block 523a. At this time, the part of the support part 53 exposed to the detection device platform 5 is the longest, and the entire detection device platform 5 is at the highest position. The mutual cooperation between the adjustment part 52 and the support part 53 realizes the vertical height adjustment of the entire detection device platform 5, so that the base wine detection device can adapt to the height of various working surfaces, which can be a work table, a test platform surface or the ground, and avoids squeezing the liquid inlet hose 33 at the bottom of the base wine detection chamber 32.

[0055] The lower bottom plate of the detection device platform 5 is provided with a shock absorbing part 54, which is composed of a number of compression springs 541 and suction cups 542. The compression springs 541 are fixedly and obliquely connected to the midpoints of the sides of the lower bottom plate of the detection device platform 5. The compression springs 541 are adsorbed and connected to the working surface by suction cups 542. The suction cups 542 are located on the vertical line of the center of the bottom plate of the detection device platform 5. Before starting work, the suction cups 542 are adsorbed together with the working surface so that the elastic forces of each spring have a component in the horizontal direction, and the horizontal component forces of the detection device platform 5 are in a state of equilibrium that offsets each other in a stable state. The purpose of shock absorption is achieved by the change in the component force of the compression spring 541 in the horizontal direction, so as to ensure that when the base wine detection device is working, no matter it is shaken or hit in the horizontal direction, it can remain stable and will not shake significantly, so that the detection value of the base wine detection cabin is more accurate and reliable.

[0056] Example 2

[0057] Example 2 of the present invention is as follows Figure 1-2 As shown in Figures 7-9, the segmented cooling base wine detection device includes a signal processing module 1, a signal transmission line 2, a base wine detection module 3, a segmented cooling device 4, and a detection device platform 5.

[0058] This embodiment is based on the embodiment 1, and only the detection device platform 5 is modified, such as Figure 7-9 As shown, it includes a load-bearing platform housing 51, an adjustment portion 52, a support portion 53 inserted from the bottom of the platform housing 51 into the interior of the detection device platform 5, and a shock-absorbing portion 54 connected to the bottom plate of the platform housing 51. Other parts have not been modified and will not be described in detail below.

[0059] The regulating parts in this embodiment are independent of each other.

[0060] The platform shell 51 is a steel structure hexahedron with a certain thickness and a hollow interior. Side holes 511 are provided on its sides. Each side hole 511 is respectively threadedly engaged with the outer surface of the adjustment rod 522 of each adjustment part 52. The four identical adjustment parts 52 include an adjustment knob 521, an adjustment rod 522, and an adjustment block 523. The adjustment knob 521 is arranged on the outside of the detection device platform 5; the adjustment rod 522 is fixedly connected to the adjustment knob 521 and rotates in and out of the interior of the detection device platform 5; each adjustment block 523 is arranged on the interior of the detection device platform 5 and is fixedly connected to each adjustment rod 522. The adjustment block 523 is four identical and smooth-surfaced frustums 523b.

[0061] The support portion 53 used to support the entire base wine detection device is composed of four identical support rods with smooth outer surfaces. They are inserted into the interior of the detection device platform 5 from the bottom of the detection device platform 5 through four through holes 512. The inner diameter of the four through holes 512 is the same as the diameter of the four support rods, and the inner surface of the through holes 512 and the outer surface of the support portion 53 are both smooth curved surfaces. The top of the support portion 53 is cut into a smooth inclined surface with the same inclination angle as the inclined surface of the frustum 523b. The frustum 523b and the support portion 53 are grouped in pairs, and the top inclined surface of each group of support portions 53 contacts the circumferential inclined surface of the frustum 523b, forming a sliding fit with each other.

[0062] By rotating the adjustment knob 521, the adjustment rod 522 is screwed in or out of the detection device platform 5. Driven by the adjustment rod 522, the circular table 523b moves synchronously and smoothly back and forth along the length of the adjustment rod 522. As the circular table 523b moves, it slides up or down relative to the inclined surface of the top of the support portion 53. Each group of support portions 53 also moves vertically relative to the position of each through hole 512. When each adjustment rod 522 is completely rotated out of the detection device platform 5, the top of each group of support portions 53 slides to the highest point of the corresponding smooth circular inclined surface of the circular table 523b. At this time, the portion of each group of support portions 53 exposed to the detection device platform 5 is the shortest, and the entire detection device platform 5 is at its lowest position. When each adjustment rod 522 is completely screwed into the detection device platform 5, the top of each group of support portions 53 slides to the lowest point of the corresponding smooth circular inclined surface of the circular table 523b. At this time, the portion of each group of support portions 53 exposed to the detection device platform 5 is the longest, and the entire detection device platform 5 is at its highest position. The mutual cooperation between the adjustment part 52 and the support part 53 realizes the vertical height adjustment of the entire detection device platform 5. According to the special needs of the site, if there is an uneven or obstructed working surface, the working surface can be a work table, a test platform surface or the ground, etc., by adjusting the adjustment parts 52 on each side of the detection device platform 5 and adjusting the corresponding support parts 53 to different heights, the detection device platform 5 can be adjusted to the required horizontal height or the required inclination angle.

[0063] The lower bottom plate of the detection device platform 5 is provided with a shock absorbing part 54, which is composed of a number of compression springs 541 and suction cups 542. The compression springs 541 are fixedly and obliquely connected to the midpoints of the sides of the lower bottom plate of the detection device platform 5. The compression springs 541 are adsorbed and connected to the working surface by suction cups 542. The suction cups 542 are located on the vertical line of the center of the bottom plate of the detection device platform 5. Before starting work, the suction cups 542 are adsorbed together with the working surface so that the elastic forces of each spring have a component in the horizontal direction, and the horizontal component forces of the detection device platform 5 are in a state of equilibrium that offsets each other in a stable state. The purpose of shock absorption is achieved by the change in the component force of the compression spring 541 in the horizontal direction, so as to ensure that when the base wine detection device is working, no matter it is shaken or hit in the horizontal direction, it can remain stable and will not shake significantly, so that the detection value of the base wine detection cabin is more accurate and reliable.

[0064] The technology, shape, and structure not described in detail in the present invention are all well-known technologies.

Claims

1. A segmented cooling base wine detection device, comprising a signal processing module (1), a base wine detection module (3), and a signal transmission line (2) connecting the signal processing module (1) and the base wine detection module (3), wherein the signal processing module (1), the signal transmission line (2) and the base wine detection module (3) are all arranged on a detection device platform (5), and characterized in that: The base wine detection module (3) is connected to a segmented cooling device (4), and the segmented cooling device (4) is used to cool the wine in segments to room temperature and then send it to the base wine detection module (3) for detection; a shock-absorbing part (54) is provided below the detection device platform (5) for buffering and shock-absorbing the base wine detection device in the horizontal direction; a support part (53) is provided below the detection device platform (5) for sliding in and out of the detection device platform (5), and an adjustment part (52) is provided on the detection device platform (5) to cooperate with the support part (53) for adjusting the height of the detection device platform (5) in the vertical direction; The platform housing (51) of the detection device platform (5) is a hollow cavity. The adjustment portion (52) includes an adjustment knob (521) arranged outside the platform housing (51), and an adjustment rod (522) threadedly engaged with a side hole (511) arranged on the platform housing (51). An adjustment block (523) is fixedly sleeved on the adjustment rod (522) and is slidably engaged with the support portion (53) to form a slope. The adjustment block (523) can reciprocate along the length direction of the adjustment rod (522) under the drive of the adjustment rod (522). The adjustment block (523) rises or falls along the slope when moving. The adjusting block (523) is a wedge-shaped block (523a) with an inclined bottom surface, and the supporting portion (53) is a supporting rod with an inclined top surface. The adjusting blocks (523) and the supporting portions (53) are arranged in pairs, and the adjusting blocks (523) and the corresponding supporting portions (53) in each group form a sliding fit along the inclined surface, and the inclination angles of the adjusting blocks (523) and the corresponding supporting portions (53) in each group are the same; The regulating blocks (523) and the supporting parts (53) are each provided in four numbers; the four regulating blocks (523) are connected as a whole by a connecting member (524), wherein the connecting member (524) comprises a transverse connecting member (5241) arranged in parallel with the regulating rod (522), and a longitudinal connecting member (5242) having a length direction perpendicular to the regulating rod (522); the regulating rod (522) further comprises a head connecting rod (522a) and a tail connecting rod (522c) respectively threadedly engaged with two sides of the detection device platform (5); An intermediate connecting rod (522b) is provided between the head connecting rod (522a) and the tail connecting rod (522c); the longitudinal connecting member (5242) is limited in sliding on the intermediate connecting rod (522b); the longitudinal connecting member (5242) comprises a movable sleeve (5242a), and the movable sleeve (5242a) is sleeved on the intermediate connecting rod (522b); a limiting stopper (522d) is provided on the intermediate connecting rod (522b) for limiting the movable sleeve (5242a) from sliding along the length direction of the adjusting rod (522).

2. The base wine detection device according to claim 1, characterized in that: The segmented cooling device (4) comprises a first-stage cooling device (41) and a second-stage cooling device (43); a first circulating cooling pipe (423) and a second circulating cooling pipe (424) are provided between the first-stage cooling device (41) and the second-stage cooling device (43) to connect the first-stage cooling device (41) and the second-stage cooling device (43) in series; the segmented cooling device (4) further comprises an air cooling device (42) for cooling the first circulating cooling pipe (423) and the second circulating cooling pipe (424); the first-stage cooling device (41) and the second-stage cooling device (43) both cool the wine by heat exchange between the internal serpentine cooling pipe and the circulating cooling liquid; the first-stage cooling device (41) is used for preliminary cooling of the wine, and the second-stage cooling device (43) is used for cooling the wine flowing out of the first-stage cooling device (41) to room temperature.

3. The base wine detection device according to claim 2, characterized in that: The liquor flows in through the serpentine cooling pipe inlet provided below the first-stage cooling device (41) and the second-stage cooling device (43), and flows out through the serpentine cooling pipe outlet provided above the first-stage cooling device (41) and the second-stage cooling device (43). The first serpentine cooling pipe outlet (415) is connected to the second serpentine cooling pipe inlet (432). The first serpentine cooling pipe outlet (415) is provided with a first thermometer (414). The second serpentine cooling pipe outlet (434) is connected to the liquid inlet hose (33) of the base liquor detection module (3). The liquid inlet hose (33 ) is provided with a third thermometer (435); the circulating coolant enters through the water inlet provided above the first-stage cooling device (41) and the second-stage cooling device (43), and flows out through the water outlet provided below the first-stage cooling device (41) and the second-stage cooling device (43); the air cooling device (42) is provided with an air inlet (421) and an air outlet (422), and the first circulating cooling pipe (423) and the second circulating cooling pipe (424) are provided between the air inlet (421) and the air outlet (422); the first circulating cooling pipe (42 3) The two ends are respectively connected to the first water outlet (416) and the second water inlet (431), the first water outlet (416) is arranged below the first-stage cooling device (41), and the second water inlet (431) is arranged above the second-stage cooling device (43); the two ends of the second circulating cooling pipe (424) are respectively connected to the second water outlet (438) and the first water inlet (411), the second water outlet (438) is arranged below the second-stage cooling device (43), and the first water inlet (411) is arranged above the first-stage cooling device (41); A second thermometer (417) and a drainage pipeline (418) are provided between a circulating cooling pipe (423) and the first water outlet (416); a first electromagnetic valve (419) is provided on the drainage pipeline (418) for discharging excess circulating coolant; a third water inlet (437) is further provided above the second-stage cooling device (43); a second electromagnetic valve (436) is provided at the third water inlet (437); the third water inlet (437) is used to replenish the circulating coolant according to the temperature of the third thermometer (435); the electromagnetic valve and the thermometer are both electrically connected to the control box.

4. The base wine detection device according to claim 3, characterized in that: The first serpentine cooling pipe body (413) of the first-stage cooling device (41) is a circuitously arranged metal elbow with a large inlet and a small outlet.

5. The base wine detection device according to claim 1, characterized in that: The adjusting block (523) is composed of a plurality of independent truncated cones (523b), wherein the truncated cones (523b) form a sliding fit with the top truncated cone of the support portion (53) through their circumferential inclined surfaces, and the truncated cones (523b) are fixed to one end of the adjusting rod (522); the adjusting rod (522) forms a threaded fit with the side surface of the detection device platform (5), and under the drive of the adjusting rod (522), each truncated cone (523b) can independently move back and forth along the length direction of the adjusting rod (522).

6. The base wine detection device according to claim 1 or 5, characterized in that: The shock absorbing part (54) comprises a compression spring (541) fixed obliquely to the bottom plate of the detection device platform (5), and a suction cup (542) connected to the compression spring (541), wherein the suction cup (542) is adsorbed on the working surface.

7. The base wine detection device according to claim 5, characterized in that: The base wine detection module (3) comprises a funnel-shaped base wine detection chamber (32), a liquid outlet hose (31) arranged above the base wine detection chamber (32), and a liquid inlet hose (33) arranged at the bottom of the base wine detection chamber (32).

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