Hidden glue content detection device for hidden glue production

Abstract

The invention discloses a hidden glue content detection device for hidden glue production, and relates to the technical field of hidden glue content detection.The hidden glue content detection device comprises a spectrograph, a bottom box is fixedly installed on the top face of the spectrograph, an infrared laser head is fixedly embedded in the middle of the front face of the bottom box, and a photosensitive plate is fixedly embedded in the back face of the bottom box; the back face of the infrared laser head is aligned with the front face of the photosensitive plate, supporting frames are fixed to the two sides of the top face of the spectrograph, sliding grooves are formed in the middles of the sides, close to each other, of the two supporting frames correspondingly, a transverse concave plate is fixedly installed on the top faces of the two supporting frames, and a servo electric cylinder penetrates through the middle of the top face of the transverse concave plate and is fixedly installed in the middle of the top face of the transverse concave plate. According to the device, sampling hidden glue is clamped and moved to the front face of the light sensing plate through the L-shaped sliding plate, and therefore the problem that the detection effect of the content of the sampling hidden glue is poor due to the fact that medicine residues of the sampling hidden glue are attached to the light sensing plate is solved.

Description

Technical Field

[0001] The present invention relates to the technical field of detecting the content of Tibetan gum, and specifically provides a device for detecting the content of Tibetan gum used in the production of Tibetan gum. Background Art

[0002] Tibetan gum is a traditional Tibetan medicine originating from the Qinghai-Tibet Plateau region, mainly composed of plant, animal, and mineral substances. During the production of Tibetan gum, sampling and testing are required. The main method of the Tibetan gum content detection device is through spectroscopic analysis technology. Infrared light is irradiated onto the sample, and the molecules in the Tibetan gum will absorb infrared light at specific frequencies, thereby detecting whether the medicinal materials in the Tibetan gum meet the standards and ensuring the quality of the Tibetan gum products.

[0003] The patent with the publication number CN221038702U discloses a near-infrared spectrometer detection accessory and a near-infrared detection device. The near-infrared spectrometer detection accessory includes a sample placement unit and a reflector provided at one end of the sample placement unit. The sample placement unit includes a first quartz dish and a second quartz dish that are slidably engaged. A first quartz groove is provided at the inner end face of the first quartz dish, and a second quartz groove is provided at the inner end face of the second quartz dish. The first quartz groove and the second quartz groove together form a sample cell. The near-infrared detection device includes this near-infrared spectrometer detection accessory, and this invention can preferably reduce the detection error for irregular samples.

[0004] However, the current near-infrared spectrometer detection accessory and near-infrared detection device have the following problems: When in use, since there are residues of medicinal herbs on the surface of the sampled Tibetan gum, the residues of medicinal herbs on the Tibetan gum are likely to fall onto the photosensitive area, which may lead to poor detection results for the content of the sampled Tibetan gum. Therefore, we propose a device for detecting the content of Tibetan gum used in the production of Tibetan gum. Summary of the Invention

[0005] Aiming at the deficiencies of the prior art, the present invention provides a device for detecting the content of Tibetan gum used in the production of Tibetan gum, which solves the problems raised in the above background art.

[0006] To achieve the above objectives, the present invention is realized through the following technical solutions: A Tibetan glue content detection device for Tibetan glue production, including a spectrometer, on the top surface of the spectrometer, a bottom box is fixedly installed. In the middle of the front surface of the bottom box, an infrared laser head is embedded. On the back surface of the bottom box, a photosensitive plate is embedded. The back surface of the infrared laser head is aligned with the front surface of the photosensitive plate. On both sides of the top surface of the spectrometer, support frames are fixedly installed. In the middle of the side of the two support frames close to each other, sliding grooves are respectively opened. On the top surface of the two support frames, a transverse concave plate is fixedly installed. In the middle of the top surface of the transverse concave plate, a servo electric cylinder is penetrated and fixedly installed. On the bottom surface of the telescopic end of the servo electric cylinder, a cross frame is fixed. On the bottom surface of the cross frame, a groove is opened. On the bottom surface of the cross frame, a square cover is fixed. The square cover is located above the bottom box. On the bottom surface of the square cover, a U-shaped frame is fixed. On the left and right sides of the inner wall of the U-shaped frame, L-shaped sliding plates are penetrated and slidably installed. On the side of the two L-shaped sliding plates away from each other, a first spring is respectively fixed. The ends of the two first springs away from the two L-shaped sliding plates are fixedly connected to the inner wall of the U-shaped frame. The L-shaped sliding plates clamp the sampled Tibetan glue and move it to the front of the photosensitive plate, so that the medicinal residues of the sampled Tibetan glue will not adhere to the photosensitive plate.

[0007] According to the above technical solution, a vacuum pump is fixedly installed on the left side of the spectrometer. On the top surface of the vacuum pump, an L-shaped pipe is fixedly installed. The end of the L-shaped pipe away from the vacuum pump is penetrated and fixedly installed on the left side of the bottom box.

[0008] According to the above technical solution, a touch display screen is opened on the front surface of the spectrometer. The data cable on the front surface of the infrared laser head is fixedly connected to the top surface of the spectrometer. The wiring harness on the back surface of the photosensitive plate is fixedly connected to the top surface of the spectrometer. A circular groove is provided at the bottom end inside the U-shaped frame.

[0009] According to the above technical solution, the two support frames are located on the left and right sides of the bottom box. The U-shaped frame is located in the middle of the bottom surface of the square cover. The bottom end inside the bottom box is on the movement track of the bottom surface of the U-shaped frame.

[0010] According to the above technical solution, an anti-vibration device is arranged on the inner wall of the groove of the cross frame. The anti-vibration device is used to reduce the vibration when the Tibetan glue moves. A limiting device is arranged on the outer wall of the anti-vibration device. The limiting device is used to reduce the collision above the square cover and the bottom box.

[0011] According to the above technical solution, a horizontal long plate is fixed on the inner wall of the groove of the cross frame. The outer wall of the horizontal long plate is in sliding contact with the inner walls of the two support frames. At both ends of the horizontal long plate, hole blocks are fixed. In the inner walls of the two hole blocks, two circular shafts are respectively rotatably installed. At both ends of the two circular shafts, four rubber rollers are respectively fixed. The outer walls of the four rubber rollers are in rolling contact with the side of the two support frames away from each other. During the downward movement of the rubber rollers, the rubber rollers roll on the surface of the support frames, and the circular shafts rotate in the hole blocks. Under the action of friction, the vibration when the cross frame moves downward is slowed down.

[0012] According to the above technical solution, insertion frames are fixedly installed through both sides of the top surface of the horizontally long plate. Circular holes are respectively formed in the top parts of the two insertion frames close to each other. Two rubber rollers are respectively rotatably installed at the bottom parts of the two insertion frames close to each other. The left and right sides of the bottom box are on the movement tracks of the outer walls of the two rubber rollers. The rubber rollers roll on the surface of the bottom box, and the rubber rollers abut against the surface of the bottom box, so that when the square cover covers the bottom box, the square cover will not shift.

[0013] According to the above technical solution, two L-shaped rods are respectively fixed on the inner walls of the circular holes of the two insertion frames. The bottom surfaces of the two L-shaped rods are fixedly connected to the top surface of the horizontally long plate. Four concave shells are respectively fixed at the ends of the two L-shaped rods far from the horizontally long plate. Four sponge blocks are respectively fixed on the inner walls of the four concave shells. The outer walls of the four sponge blocks are in sliding contact with the inner walls of the chutes of the two support frames. When the sponge blocks move downward, the sponge blocks wipe the chutes of the support frames, so that there will be no foreign objects blocking in the chutes of the support frames.

[0014] According to the above technical solution, two U-shaped frames are respectively fixed on the outer walls of the two L-shaped rods. Two sliding rods are respectively fixedly installed through the middle of the bottom surfaces of the two U-shaped frames in a sliding manner. Rubber pads are respectively fixed at the bottom ends of the two sliding rods. Square plates are respectively fixed at the top ends of the two sliding rods. Two second springs are respectively fixed on the top surfaces of the two square plates. The ends of the two second springs far from the two square plates are fixedly connected to the bottom surface of the horizontally long plate. The top surface of the spectrometer is on the movement tracks of the bottom surfaces of the two rubber pads. Under the elastic force of the second springs, the rubber pads limit the square cover, so that the square cover will not bump against the bottom box when moving downward.

[0015] According to the above technical solution, two groups of short columns are respectively fixed on the top surfaces of the two U-shaped frames. Two magnetic plates are respectively fixed on the top surfaces of the four short columns. The two magnetic plates are respectively located above the two U-shaped frames. Two T-shaped plates are respectively in contact with the top surfaces of the two magnetic plates. The top surfaces of the two T-shaped plates are fixedly connected to the inner top end of the horizontal concave plate. The magnetic plates are tightly adsorbed on the T-shaped plates by magnetic force, so that the square cover stays stably above the bottom box.

[0016] The present invention provides a glue content detection device for glue production. It has the following beneficial effects:

[0017] (1) In the present invention, through the cooperation of a spectrometer, a bottom box, an infrared laser head, a photosensitive plate, a support frame, a horizontally concave plate, a servo electric cylinder, a cross frame, a square cover, a U-shaped frame, and an L-shaped sliding plate with a first spring, the square cover drives the U-shaped frame to move downward. The U-shaped frame drives the L-shaped sliding plate, and the L-shaped sliding plate clamps the sampled hidden glue and moves downward. The square cover moves downward above the bottom box, and the U-shaped frame enters the interior of the bottom box, making the bottom box in a sealed state. The infrared laser head emits infrared light to irradiate the hidden glue sample, and the photosensitive plate receives the spectrum. The photosensitive plate transmits the spectrum data to the spectrometer through a cable, causing the L-shaped sliding plate to clamp the sampled hidden glue and move to the front of the photosensitive plate, so that the dregs of the sampled hidden glue do not adhere to the photosensitive plate, preventing the dregs of the sampled hidden glue from adhering to the photosensitive plate and resulting in poor detection effect of the content of the sampled hidden glue.

[0018] (2) Through the setting of the anti-shake device in the present invention, the horizontally long plate, the hole block, the round shaft, the rubber roller, and the insertion frame cooperate with the rubber roller. During the downward movement of the rubber roller, the rubber roller rolls on the surface of the support frame, and the round shaft rotates in the hole block. Under the action of friction, the shaking during the downward movement of the cross frame is slowed down, preventing the cross frame from shaking violently and causing the sampled hidden glue clamped by the L-shaped sliding plate to fall into the bottom box. Moreover, the insertion frame drives the rubber roller to move downward, and the rubber roller rolls on the surface of the bottom box. The rubber roller abuts against the surface of the bottom box, so that when the square cover covers the bottom box, the square cover will not shift, preventing light leakage above the bottom box due to the shift of the square cover when covering the bottom box.

[0019] (3) Through the setting of the anti-shake device in the present invention, the L-shaped rod and the concave shell cooperate with the sponge block. During the downward movement of the sponge block, the sponge block wipes the chute of the support frame, so that there is no foreign object blocking in the chute of the support frame, preventing the operation of the equipment from being unsmooth due to the blocking of foreign objects in the chute of the support frame.

[0020] (4) Through the setting of the limiting device in the present invention, the U-shaped frame, the sliding rod, the rubber pad, and the square plate cooperate with the second spring. Under the elastic force of the second spring, the rubber pad limits the square cover, so that the square cover will not bump into the bottom box when moving downward, preventing the infrared laser head on the bottom box from being easily vibrated and damaged due to the square cover bumping into the bottom box.

[0021] (5) Through the setting of the limiting device in the present invention, the short column and the magnetic plate cooperate with the T-shaped plate. The magnetic plate is tightly adsorbed on the T-shaped plate by magnetic force, making the square cover stay stably above the bottom box, preventing the inconvenient placement of the sampled hidden glue by the operator due to the unstable stay of the square cover. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 is a schematic diagram of the whole of the present invention;

[0023] Figure 2 is a schematic diagram of the whole back of the present invention;

[0024] Figure 3Schematic diagram of the internal components of the present invention;

[0025] Figure 4 Cross-sectional schematic diagram at the support of the present invention;

[0026] Figure 5 Schematic diagram of the anti-shake device of the present invention;

[0027] Figure 6 For the present invention Figure 5 Partial enlarged schematic diagram at position A in the present invention;

[0028] Figure 7 Schematic diagram of the limit device of the present invention;

[0029] Figure 8 For the present invention Figure 7 Partial enlarged schematic diagram at position B in the present invention.

[0030] In the figure: 1, spectrometer; 2, bottom box; 3, infrared laser head; 4, photosensitive plate; 5, support; 6, horizontal concave plate; 7, servo electric cylinder; 8, cross frame; 9, square cover; 10, U-shaped frame; 11, L-shaped slide plate; 12, spring one; 13, anti-shake device; 131, horizontal long plate; 132, hole block; 133, round shaft; 134, rubber roller; 135, insertion frame; 136, rubber roller; 137, L-shaped rod; 138, concave shell; 139, sponge block; 14, limit device; 141, return-shaped frame; 142, slide rod; 143, rubber pad; 144, square plate; 145, spring two; 146, short column; 147, magnetic plate; 148, T-shaped plate; 15, vacuum pump; 16, L-shaped pipe. Specific embodiments

[0031] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments.

[0032] Please refer to Figures 1 - 8, an embodiment of the present invention is: a glue content detection device for glue production, including a spectrometer 1. A bottom box 2 is fixedly installed on the top surface of the spectrometer 1. An infrared laser head 3 is embedded in the middle of the front surface of the bottom box 2, and a photosensitive plate 4 is embedded in the back surface of the bottom box 2. The back surface of the infrared laser head 3 is aligned with the front surface of the photosensitive plate 4. On both sides of the top surface of the spectrometer 1, support frames 5 are fixedly installed. Chutes are respectively opened in the middle of the sides of the two support frames 5 close to each other. A horizontal concave plate 6 is fixedly installed on the top surfaces of the two support frames 5. A servo electric cylinder 7 is fixedly installed through and in the middle of the top surface of the horizontal concave plate 6. The bottom surface of the telescopic end of the servo electric cylinder 7 is fixed with a cross frame 8. A groove is opened on the bottom surface of the cross frame 8. A square cover 9 is fixed on the bottom surface of the cross frame 8. The square cover 9 is located above the bottom box 2. A U-shaped frame 10 is fixed on the bottom surface of the square cover 9. On the left and right sides of the inner wall of the U-shaped frame 10, L-shaped sliding plates 11 are respectively installed through and slidably. On the sides of the two L-shaped sliding plates 11 away from each other, first springs 12 are respectively fixed. The ends of the two first springs 12 away from the two L-shaped sliding plates 11 are fixedly connected to the inner wall of the U-shaped frame 10. A touch display screen is opened on the front surface of the spectrometer 1. The data line on the front surface of the infrared laser head 3 is fixedly connected to the top surface of the spectrometer 1. The wiring harness on the back surface of the photosensitive plate 4 is fixedly connected to the top surface of the spectrometer 1. A circular groove is provided at the bottom end inside the U-shaped frame 10. The two support frames 5 are located on the left and right sides of the bottom box 2. The U-shaped frame 10 is located in the middle of the bottom surface of the square cover 9. The bottom end inside the bottom box 2 is on the movement track of the bottom surface of the U-shaped frame 10. A vacuum pump 15 is fixedly installed on the left side of the spectrometer 1. An L-shaped pipe 16 is fixedly installed on the top surface of the vacuum pump 15. The end of the L-shaped pipe 16 away from the vacuum pump 15 penetrates and is fixedly installed on the left side of the bottom box 2. The telescopic end of the servo electric cylinder 7 drives the cross frame 8, the cross frame 8 drives the square cover 9 to move downward, the square cover 9 drives the U-shaped frame 10 to move downward, the U-shaped frame 10 drives the L-shaped sliding plates 11, and the L-shaped sliding plates 11 clamp the sampled glue and move downward. When the square cover 9 moves downward to above the bottom box 2, the U-shaped frame 10 enters the inside of the bottom box 2 to make the bottom box 2 in a sealed state. The infrared laser head 3 emits infrared light to irradiate the glue sample, and the photosensitive plate 4 receives the spectrum. The photosensitive plate 4 transmits the spectrum data to the spectrometer 1 through the wiring harness, so that the L-shaped sliding plates 11 clamp the sampled glue and move to the front of the photosensitive plate 4, preventing the dregs of the sampled glue from adhering to the photosensitive plate 4 and avoiding the poor detection effect of the sampled glue content caused by the dregs of the sampled glue adhering to the photosensitive plate 4 when the glue content detection device performs detection;

[0033] A vibration damping device 13 is arranged on the inner wall of the groove of the cross frame 8. The vibration damping device 13 is used to reduce the vibration when the glue moves. A limiting device 14 is arranged on the outer wall of the vibration damping device 13. The limiting device 14 is used to reduce the collision above the square cover 9 and the bottom box 2.

[0034] Since there are residues of medicinal materials on the sampled glue film, and the residues on the glue film are likely to fall onto the photosensitive area. When using the device, the operator places the sampled glue film in the circular groove of the U-shaped frame 10. The L-shaped sliding plate 11 slides in the U-shaped frame 10. Under the elastic force of the first spring 12, the L-shaped sliding plate 11 clamps the sampled glue film. The spectrometer 1 supports the support frame 5, and the support frame 5 supports the transverse concave plate 6. The operator starts the servo cylinder 7 through the touch display screen on the spectrometer 1. The telescopic end of the servo cylinder 7 drives the cross frame 8, and the cross frame 8 drives the square cover 9 to move downward. The square cover 9 drives the U-shaped frame 10 to move downward. The U-shaped frame 10 drives the L-shaped sliding plate 11, and the L-shaped sliding plate 11 clamps the sampled glue film and moves downward. The square cover 9 moves downward to above the bottom box 2, and the U-shaped frame 10 enters the interior of the bottom box 2 to make the bottom box 2 in a sealed state. The operator starts the vacuum pump 15 through the touch display on the spectrometer 1. The vacuum pump 15 starts to pump air. The L-shaped pipe 16 extracts the gas in the bottom box 2 to make the bottom box 2 in a vacuum state. At the same time, the infrared laser head 3 emits infrared light to irradiate the glue film sample, and the photosensitive plate 4 receives the spectrum. The photosensitive plate 4 transmits the spectrum data to the spectrometer 1 through the cable. During the use of the device, the L-shaped sliding plate 11 clamps the sampled glue film and moves to the front of the photosensitive plate 4, so that the residues of the sampled glue film do not adhere to the photosensitive plate 4, preventing the residues of the sampled glue film from adhering to the photosensitive plate 4 when the device is in use, thereby avoiding the problem that the detection effect of the glue film content detection device is poor due to the residues of the sampled glue film adhering to the photosensitive plate 4 during detection.

[0035] Please refer to Figures 1 - 8 , on the basis of the above embodiment, in another embodiment of the present invention, a horizontal long plate 131 is fixed to the inner wall of the groove of the cross frame 8. The outer wall of the horizontal long plate 131 is in sliding contact with the inner walls of the two support frames 5. Both ends of the horizontal long plate 131 are fixed with hole blocks 132. Two circular shafts 133 are respectively rotatably installed in the inner walls of the two hole blocks 132. Four rubber rollers 134 are respectively fixed to the two ends of the two circular shafts 133. The outer walls of the four rubber rollers 134 are in rolling contact with the mutually remote sides of the two support frames 5. During the downward movement of the rubber rollers 134, the rubber rollers 134 roll on the surface of the support frame 5, and the circular shafts 133 rotate in the hole blocks 132. Under the action of friction, the jitter when the cross frame 8 moves downward is reduced, avoiding the violent jitter of the cross frame 8 during the detection of the glue film content detection device, which causes the sampled glue film clamped by the L-shaped sliding plate 11 to fall into the bottom box 2.

[0036] On both sides of the top surface of the horizontally long plate 131, there are insertion frames 135 penetrating and fixedly installed. On the top parts of the sides of the two insertion frames 135 close to each other, round holes are respectively provided. On the bottom parts of the sides of the two insertion frames 135 close to each other, two rubber rollers 136 are respectively rotatably installed. The left and right sides of the bottom box 2 are on the movement tracks of the outer walls of the two rubber rollers 136. The insertion frame 135 drives the rubber roller 136 to move downward, and the rubber roller 136 rolls on the surface of the bottom box 2. The rubber roller 136 abuts against the surface of the bottom box 2, so that when the square cover 9 covers the bottom box 2, the square cover 9 will not shift, avoiding light leakage above the bottom box 2 caused by the shift of the square cover 9 when covering the bottom box 2 during the detection of the hidden glue content detection device.

[0037] Two L-shaped rods 137 are respectively fixed on the inner walls of the round holes of the two insertion frames 135. The bottom surfaces of the two L-shaped rods 137 are fixedly connected to the top surface of the horizontally long plate 131. Four concave shells 138 are respectively fixed at the ends of the two L-shaped rods 137 far from the horizontally long plate 131. Four sponge blocks 139 are respectively fixed on the inner walls of the four concave shells 138. The outer walls of the four sponge blocks 139 are in sliding contact with the inner walls of the sliding grooves of the two support frames 5. During the downward movement of the sponge block 139, the sponge block 139 wipes the sliding groove of the support frame 5, so that there is no foreign object blocking in the sliding groove of the support frame 5, avoiding the unsmooth operation of the equipment caused by foreign object blocking in the sliding groove of the support frame 5 during the detection of the hidden glue content detection device.

[0038] Two return-shaped frames 141 are respectively fixed on the outer walls of the two L-shaped rods 137. Two sliding rods 142 penetrate and are slidably installed in the middle of the bottom surfaces of the two return-shaped frames 141 respectively. Rubber pads 143 are respectively fixed at the bottom ends of the two sliding rods 142. Square plates 144 are respectively fixed at the top ends of the two sliding rods 142. Two second springs 145 are respectively fixed on the top surfaces of the two square plates 144. The ends of the two second springs 145 far from the two square plates 144 are fixedly connected to the bottom surface of the horizontally long plate 131. The top surface of the spectrometer 1 is on the movement track of the bottom surfaces of the two rubber pads 143. Under the elastic force of the second spring 145, the rubber pad 143 limits the square cover 9, so that the square cover 9 will not knock against the bottom box 2 when moving downward, avoiding the easy vibration and damage of the infrared laser head 3 on the bottom box 2 caused by the square cover 9 knocking against the bottom box 2 during the detection of the hidden glue content detection device.

[0039] Two groups of short columns 146 are respectively fixed on the top surfaces of the two return-shaped frames 141. Two magnetic plates 147 are respectively fixed on the top surfaces of the four short columns 146. The two magnetic plates 147 are respectively located above the two return-shaped frames 141. Two T-shaped plates 148 are respectively in contact with the top surfaces of the two magnetic plates 147. The top surfaces of the two T-shaped plates 148 are fixedly connected to the inner top end of the horizontal concave plate 6. The magnetic plate 147 is tightly adsorbed on the T-shaped plate 148 by magnetic force, so that the square cover 9 stays stably above the bottom box 2, avoiding the inconvenience for the operator to place the sample hidden glue caused by the unstable stay of the square cover 9 during the detection of the hidden glue content detection device.

[0040] While the cross-shaped frame 8 drives the square cover 9 to move downward, the cross-shaped frame 8 drives the horizontally long plate 131 to move downward, the horizontally long plate 131 drives the hole block 132 to move downward, the hole block 132 drives the round shaft 133 to move downward, and the round shaft 133 drives the rubber roller 134 to move downward. During the downward movement of the rubber roller 134, the rubber roller 134 rolls on the surface of the support frame 5, and the round shaft 133 rotates in the hole block 132. Under the action of friction, the jitter when the cross-shaped frame 8 moves downward is reduced, preventing the cross-shaped frame 8 from vibrating violently during the use of the device. Thus, when the glue content detection device is performing detection, the cross-shaped frame 8 does not vibrate violently, preventing the glue hidden in the sample clamped by the L-shaped slide plate 11 from falling into the bottom box 2. At the same time, the horizontally long plate 131 drives the plug-in frame 135 to move downward, the plug-in frame 135 drives the rubber roller 136 to move downward, and the rubber roller 136 rolls on the surface of the bottom box 2. The rubber roller 136 abuts against the surface of the bottom box 2, so that when the square cover 9 covers the bottom box 2, the square cover 9 will not shift, preventing the square cover 9 from shifting when covering the bottom box 2. Thus, when the glue content detection device is performing detection, the square cover 9 does not shift when covering the bottom box 2, preventing light leakage above the bottom box 2.

[0041] While the horizontally long plate 131 drives the plug-in frame 135 to move downward, the round hole of the plug-in frame 135 drives the L-shaped rod 137 to move downward, the L-shaped rod 137 drives the concave shell 138 to move downward, and the concave shell 138 drives the sponge block 139 to move downward. During the downward movement of the sponge block 139, the sponge block 139 wipes the chute of the support frame 5, so that there is no foreign object blocking in the chute of the support frame 5, preventing foreign objects from blocking in the chute of the support frame 5 during the use of the device. Thus, when the glue content detection device is performing detection, foreign objects blocking in the chute of the support frame 5 do not cause the device to run smoothly.

[0042] While the L-shaped rod 137 moves downward, the L-shaped rod 137 drives the U-shaped frame 141 to move downward, the U-shaped frame 141 drives the slide rod 142 to move downward, and the slide rod 142 drives the rubber pad 143 to move downward. During the downward movement of the rubber pad 143, the rubber pad 143 contacts the spectrometer 1. Under the action of the extrusion force, the slide rod 142 moves upward in the U-shaped frame 141, the slide rod 142 drives the square plate 144 to move upward, the square plate 144 drives the second spring 145 to move upward, and the second spring 145 begins to contract. Under the elastic force of the second spring 145, the rubber pad 143 limits the position of the square cover 9, so that the square cover 9 does not knock against the bottom box 2 when moving downward, preventing the square cover 9 from knocking against the bottom box 2 during the use of the device. Thus, when the glue content detection device is performing detection, the square cover 9 knocking against the bottom box 2 does not cause the infrared laser head 3 on the bottom box 2 to be easily damaged by vibration.

[0043] While the L-shaped rod 137 drives the clip-shaped frame 141 to move downward, the power supply to the magnetic plate 147 is stopped, and the magnetic plate 147 loses its magnetic force. The clip-shaped frame 141 drives the short column 146 to move downward, and the short column 146 drives the magnetic plate 147 to move downward. The magnetic plate 147 leaves the T-shaped plate 148. When the detection is completed, the telescopic end of the servo electric cylinder 7 resets. The clip-shaped frame 141 drives the short column 146 to move upward, and the short column 146 drives the magnetic plate 147 to move upward. The magnetic plate 147 contacts the T-shaped plate 148. The operator energizes the magnetic plate 147 through the touch display screen on the spectrometer 1. The magnetic plate 147 generates magnetism and tightly adheres to the T-shaped plate 148 through magnetic force, keeping the square cover 9 stable above the bottom box 2, preventing the square cover 9 from being unstable during the use of the equipment, and thus avoiding the problem that it is inconvenient for the operator to place the sample glue when the square cover 9 is unstable during the detection of the glue content detection device.

[0044] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, makes equivalent substitutions or changes, and should be covered within the protection scope of the present invention.

Claims

1. A Tibetan rubber content detection device for Tibetan rubber production, comprising a spectrometer (1), a bottom box (2) being fixedly mounted on the top surface of the spectrometer (1), characterized in that: An infrared laser head (3) is embedded in the middle of the front of the bottom box (2), and a photosensitive plate (4) is embedded in the back of the bottom box (2). The back of the infrared laser head (3) and the front of the photosensitive plate (4) are aligned. Brackets (5) are fixed on both sides of the top surface of the spectrometer (1). A slide groove is provided in the middle of the two sides of the brackets (5) close to each other. A transverse concave plate (6) is fixedly installed on the top surface of the two brackets (5). A servo electric cylinder (7) is passed through and fixedly installed in the middle of the top surface of the transverse concave plate (6). A cross frame is fixed on the bottom surface of the telescopic end of the servo electric cylinder (7). A frame (8) is provided, a groove is formed on the bottom surface of the cross frame (8), a square cover (9) is fixed on the bottom surface of the cross frame (8), the square cover (9) is located above the bottom box (2), a U-shaped frame (10) is fixed on the bottom surface of the square cover (9), L-shaped slide plates (11) are penetrated and slidably installed on the left and right sides of the inner wall of the U-shaped frame (10), springs (12) are respectively fixed on the sides of the two L-shaped slide plates (11) away from each other, and the ends of the two springs (12) away from the two L-shaped slide plates (11) are fixedly connected to the inner wall of the U-shaped frame (10).

2. The Tibetan rubber content detection device for Tibetan rubber production according to claim 1, characterized in that: A vacuum pump (15) is fixedly mounted on the left side of the spectrometer (1), an L-shaped tube (16) is fixedly mounted on the top surface of the vacuum pump (15), and one end of the L-shaped tube (16) away from the vacuum pump (15) passes through and is fixedly mounted on the left side of the bottom box (2).

3. A Tibetan rubber content detection device for Tibetan rubber production according to claim 2, characterized in that: The spectrometer (1) is provided with a touch display screen on the front side, the data line on the front side of the infrared laser head (3) is fixedly connected to the top side of the spectrometer (1), the wiring on the back side of the photosensitive plate (4) is fixedly connected to the top side of the spectrometer (1), and a circular groove is provided at the bottom end of the U-shaped frame (10).

4. The Tibetan rubber content detection device for Tibetan rubber production according to claim 3, characterized in that: The two support frames (5) are located on the left and right sides of the bottom box (2), the U-shaped frame (10) is located in the middle of the bottom surface of the square cover (9), and the bottom end of the bottom box (2) is located on the movement track of the bottom surface of the U-shaped frame (10).

5. The Tibetan rubber content detection device for Tibetan rubber production according to claim 4, characterized in that: The inner wall of the groove of the cross frame (8) is provided with an anti-shake device (13), and the anti-shake device (13) is used to reduce the shaking when the Tibetan glue moves. The outer wall of the anti-shake device (13) is provided with a limiting device (14), and the limiting device (14) is used to reduce the collision between the square cover (9) and the top of the bottom box (2).

6. The Tibetan rubber content detection device for Tibetan rubber production according to claim 5, characterized in that: A transverse long plate (131) is fixed to the inner wall of the groove of the cross frame (8), and the outer wall of the transverse long plate (131) is in sliding contact with the inner walls of the two support frames (5). Hole blocks (132) are fixed to both ends of the transverse long plate (131), and two circular shafts (133) are rotatably mounted on the inner walls of the two hole blocks (132). Four rubber rollers (134) are fixed to the two ends of the two circular shafts (133), and the outer walls of the four rubber rollers (134) are in rolling contact with the sides of the two support frames (5) that are away from each other.

7. A Tibetan rubber content detection device for Tibetan rubber production according to claim 6, characterized in that: Insertion racks (135) are passed through and fixedly mounted on both sides of the top surface of the horizontal long plate (131), and circular holes are respectively opened on the tops of the sides of the two inserting racks (135) close to each other, and two rubber rollers (136) are rotatably mounted on the bottoms of the sides of the two inserting racks (135) close to each other, and the left and right sides of the bottom box (2) are located on the movement tracks of the outer walls of the two rubber rollers (136).

8. The Tibetan rubber content detection device for Tibetan rubber production according to claim 7, characterized in that: Two L-shaped rods (137) are fixed to the inner walls of the circular holes of the two inserting racks (135), the bottom surfaces of the two L-shaped rods (137) are fixedly connected to the top surface of the horizontal long plate (131), and four concave shells (138) are fixed to one end of the two L-shaped rods (137) away from the horizontal long plate (131), and four sponge blocks (139) are fixed to the inner walls of the four concave shells (138), and the outer walls of the four sponge blocks (139) are in sliding contact with the inner walls of the slide grooves of the two support racks (5).

9. The Tibetan rubber content detection device for Tibetan rubber production according to claim 8, characterized in that: Two circular frames (141) are fixed to the outer walls of the two L-shaped rods (137), two sliding rods (142) are respectively passed through and slidably installed in the middle of the bottom surfaces of the two circular frames (141), rubber pads (143) are respectively fixed to the bottom ends of the two sliding rods (142), square plates (144) are respectively fixed to the top ends of the two sliding rods (142), two springs (145) are respectively fixed to the top surfaces of the two square plates (144), and one end of the two springs (145) away from the two square plates (144) is fixedly connected to the bottom surface of the horizontal long plate (131), and the top surface of the spectrometer (1) is on the movement trajectory of the bottom surfaces of the two rubber pads (143).

10. The Tibetan rubber content detection device for Tibetan rubber production according to claim 9, characterized in that: The top surfaces of the two circular frames (141) are respectively fixed with short columns (146) in groups of two, and the top surfaces of the four short columns (146) are respectively fixed with two magnetic plates (147). The two magnetic plates (147) are respectively located above the two circular frames (141), and the top surfaces of the two magnetic plates (147) are respectively in contact with two T-shaped plates (148). The top surfaces of the two T-shaped plates (148) are fixedly connected to the top end of the inner part of the transverse concave plate (6).

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