Rapid tissue dehydration device and method based on ultrasonic helical wave recovery enhancement

Abstract

The invention discloses a rapid tissue dehydration device and method based on ultrasonic spiral wave recovery enhancement, and relates to the field of pathological tissue dehydration, the rapid tissue dehydration device comprises a mounting table, the mounting table is fixedly connected with a dehydration box, the dehydration box is rotatably connected with two mounting pipes, a mounting ring is fixedly connected between the two mounting pipes, and the mounting ring is rotatably connected with the dehydration box. According to the rapid tissue dehydration device and method based on ultrasonic spiral wave recovery enhancement, the ultrasonic spiral wave recovery enhancement technology is adopted, the resonance effect of ultrasonic waves in pathological tissue is utilized, and the rapid tissue dehydration effect is improved. The movement speed of water molecules in pathological tissues is obviously increased, and rapid dehydration is realized. And meanwhile, by matching with multi-angle overturning of the dehydration medium mixing and stirring mechanism, comprehensive ultrasonic treatment of the pathological tissue is ensured, and the dehydration effect and efficiency are further improved.

Description

Technical Field

[0001] The present invention relates to a pathological tissue dehydration technology, and in particular to a rapid tissue dehydration device and method based on ultrasonic spiral wave recovery enhancement. Background Art

[0002] In the field of medical pathology research, dehydration of pathological tissue is one of the key steps in preparing pathological sections. The quality of dehydration directly affects the quality of pathological sections, and thus the accuracy of pathological diagnosis.

[0003] Traditional tissue dehydration methods rely primarily on the natural osmotic effect of chemical dehydrating agents, gradually replacing the water in the tissue with the dehydrating agents. However, this method has numerous drawbacks. On the one hand, the dehydration process is relatively slow and takes a long time to complete, which significantly prolongs the pathological diagnosis cycle and reduces work efficiency. This can delay treatment, especially for cases where a diagnosis is urgently needed. On the other hand, the uneven penetration of the dehydrating agent into the tissue during the dehydration process can easily lead to inconsistent tissue dehydration, with some areas being over-dehydrated and others under-dehydrated. This can affect the quality of pathological sections, resulting in poor microscopic observation of pathological tissue and increased difficulty and error in pathological diagnosis.

[0004] To address the challenges of traditional dehydration methods, researchers have begun exploring the use of physical methods to supplement or replace traditional chemical dehydration methods. Ultrasound technology, due to its unique physical properties, such as its ability to generate mechanical vibrations and thermal effects, has shown promising application in tissue dehydration. When applied to tissue, ultrasound increases the velocity of water molecules within the tissue, promoting the exchange of water between the dehydrating agent and the tissue, potentially improving dehydration efficiency and quality.

[0005] However, existing devices and methods for tissue dehydration using ultrasonic spiral wave generators still have some shortcomings. For example, the intensity and distribution of the ultrasonic waves generated by some devices are not uniform, making it impossible to achieve comprehensive and efficient dehydration of pathological tissues. Furthermore, during the dehydration process, the ultrasonic parameters cannot be adjusted in real time according to the actual conditions of the pathological tissue, resulting in less than ideal dehydration results. Summary of the Invention

[0006] The purpose of the present invention is to provide a rapid tissue dehydration device and method based on ultrasonic spiral wave recovery enhancement to address the above-mentioned deficiencies in the prior art.

[0007] In order to achieve the above-mentioned object, the present invention provides the following technical solution: a rapid tissue dehydration device based on ultrasonic spiral wave recovery enhancement, comprising:

[0008] An operating table, wherein a dehydration box is fixedly connected to the operating table, two mounting tubes are rotatably connected to the dehydration box, a mounting ring is fixedly connected between the two mounting tubes, two ultrasonic spiral wave generators are fixedly connected in the dehydration box, and an ultrasonic receiver is fixedly connected in the dehydration box;

[0009] A dehydration medium mixing and stirring mechanism is provided in the installation ring, and the dehydration medium mixing and stirring mechanism is used to drive the dehydration medium to be fully mixed and stirred;

[0010] The outer surface of the installation pipe is transmission-connected with a transmission mechanism connected to the dehydration box, and the transmission mechanism is used to drive the installation pipe to rotate;

[0011] One side of the installation pipe is rotatably connected to a water supply and pumping mechanism connected to the installation platform. The water supply and pumping mechanism is used to supply dehydrating agent into the dehydration box and to pump out the dehydrating agent.

[0012] Furthermore, the dehydration medium mixing and stirring mechanism includes a first transmission ring rotatably connected to the mounting ring, a first functional cavity is opened on the mounting ring, the outer surface of the first transmission ring is fixedly connected to the second transmission ring through a connecting column, two transmission tubes are rotatably connected in the second transmission ring, opposite sides of the two transmission tubes are fixedly connected to a transmission box, a connecting ring tube is fixedly connected between the two transmission boxes, a plurality of fixed tubes are fixedly connected to the transmission box and the connecting ring tube, a fixed airbag is fixedly connected to the fixed tube, a second functional cavity is opened on the second transmission ring, one end of one of the transmission tubes is fixedly connected to a transmission motor fixedly connected to the second functional cavity through a coupling, and one end of the other transmission tube is transmission-connected to an air supply mechanism connected to the second functional cavity, and the air supply mechanism is used to supply air to the fixed airbag;

[0013] The outer surface of the first transmission ring is transmission-connected to a driving mechanism connected to the first functional cavity, and the driving mechanism is used to drive the first transmission ring to rotate.

[0014] Furthermore, the air supply mechanism includes two air supply boxes fixedly connected to the second functional chamber, a first electric telescopic rod fixedly connected to the air supply box, one end of the first electric telescopic rod fixedly connected to an extrusion plate slidingly connected to the air supply box, one end of the transmission tube rotatably connected to a first connecting tube fixedly connected to the second functional chamber, and one side of the air supply box fixedly connected to a second connecting tube fixedly connected to the first connecting tube.

[0015] Furthermore, the driving mechanism includes a driving motor fixedly connected to the first functional cavity, the output end of the driving motor is fixedly connected to the driving shaft through a coupling, the outer surface of the driving shaft is fixedly sleeved with a driving gear, and the outer surface of the driving gear is meshedly connected with a transmission gear ring fixedly sleeved with the first transmission ring.

[0016] Furthermore, the transmission mechanism includes a second electric telescopic rod fixedly connected to the dehydration box, one end of the second electric telescopic rod is fixedly connected to a transmission rack through a connecting block, and one side of the transmission rack is meshed with a transmission gear fixedly sleeved on the mounting tube.

[0017] Furthermore, the water supply and pumping mechanism includes a third connecting pipe rotatably connected to the mounting pipe, one end of the third connecting pipe is fixedly connected to a water pump fixedly connected to the mounting platform, the input end of the water pump is fixedly connected to a water inlet main pipe, two water inlet branches are fixedly connected to the water inlet main pipe, an electromagnetic valve is fixedly connected to the water inlet branch, and a water pipe is fixedly connected to the mounting pipe.

[0018] Furthermore, a cover is threadedly connected to the top of the dehydration box.

[0019] The rapid tissue dehydration method based on ultrasonic spiral wave recovery enhancement includes the following steps:

[0020] Step 1: placing the pathological tissue into the pathological tissue fixing mechanism in the dehydration box, and then flexibly clamping and fixing the pathological tissue through the pathological tissue fixing mechanism;

[0021] Step 2: Dehydration liquid is supplied into the dehydration box through the water supply and pumping mechanism, and then the dehydration medium mixing and stirring mechanism in the dehydration box drives the dehydration medium to be fully mixed, and at the same time, the ultrasonic spiral wave generator and ultrasonic receiver in the dehydration box are started to perform rapid ultrasonic dehydration on the pathological tissue;

[0022] Step 3: After dehydration is completed, the dehydration liquid in the dehydration box is pumped out through the water supply and pumping mechanism, and then the dehydrated pathological tissue is taken out to obtain the dehydrated pathological tissue.

[0023] Compared with the prior art, the rapid tissue dehydration device and method based on ultrasonic spiral wave recovery enhancement provided by the present invention has the following beneficial effects:

[0024] (1) Through the ultrasonic spiral wave recovery enhancement technology, the resonance effect of ultrasound in pathological tissue is utilized to significantly increase the movement speed of water molecules in pathological tissue, thereby achieving rapid dehydration. At the same time, the dehydration medium mixing and stirring mechanism is used to drive the dehydration medium to be fully mixed and exchanged, ensuring that the pathological tissue is fully ultrasonicated, further improving the dehydration effect and efficiency.

[0025] (2) The dehydration medium mixing and stirring mechanism uses a fixed airbag to flexibly clamp and fix the pathological tissue, effectively preventing the pathological tissue from being squeezed and damaged during the fixation process, ensuring the integrity of the pathological tissue. At the same time, combined with the 360° all-round rotation design, it ensures that every part of the pathological tissue can be fully irradiated by ultrasound, thereby improving the dehydration effect.

[0026] (3) The water supply and pumping mechanism realizes the automatic supply and discharge of dehydration liquid and cleaning liquid through the cooperation of water pump, water inlet main pipe, water inlet branch and electromagnetic valve, which improves the automation level of the dehydration device, reduces manual operation and is convenient for users. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments. Obviously, the drawings described below are only some embodiments described in the present invention. For ordinary technicians in this field, other drawings can also be obtained based on these drawings.

[0028] Figure 1 This is a first stereoscopic diagram of the external structure of the present invention;

[0029] Figure 2 This is a second stereoscopic view of the external structure of the present invention;

[0030] Figure 3 A three-dimensional diagram of the internal structure of the present invention;

[0031] Figure 4 This is a three-dimensional diagram of the external structure of the dehydration medium mixing and stirring mechanism of the present invention;

[0032] Figure 5 This is a front view of the internal structure of the dehydration medium mixing and stirring mechanism of the present invention;

[0033] Figure 6 For the present invention Figure 1 A magnified view of middle A;

[0034] Figure 7 For the present invention Figure 4 Enlarged view of middle B;

[0035] Figure 8 For the present invention Figure 5 Enlarged view of C in the middle.

[0036] Description of reference numerals:

[0037] 1. Mounting table; 2. Dehydration box; 3. Mounting pipe; 4. Mounting ring; 5. Ultrasonic spiral wave generator; 11. First transmission ring; 12. First functional chamber; 13. Second transmission ring; 14. Transmission pipe; 15. Transmission box; 16. Connecting ring pipe; 17. Fixed pipe; 18. Fixed airbag; 19. Second functional chamber; 190. Transmission motor; 21. Air supply box; 22. First electric telescopic rod; 23. Extrusion plate; 24. First connecting pipe; 25. Second connecting pipe; 31. Drive motor; 32. Drive shaft; 33. Drive gear; 34. Transmission ring gear; 41. Second electric telescopic rod; 42. Transmission rack; 43. Transmission gear; 51. Third connecting pipe; 52. Water pump; 53. Water inlet main pipe; 54. Water inlet branch pipe; 55. Water pipe. DETAILED DESCRIPTION

[0038] In order to enable those skilled in the art to better understand the technical solution of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings.

[0039] Example 1:

[0040] See also Figures 1 to 8 As shown, the rapid tissue dehydration device based on ultrasonic spiral wave recovery enhancement includes a mounting platform 1, a dehydration box 2 is fixedly connected to the mounting platform 1, two mounting tubes 3 are rotatably connected to the dehydration box 2, a mounting ring 4 is fixedly connected between the two mounting tubes 3, two ultrasonic spiral wave generators 5 are fixedly connected to the dehydration box 2, and an ultrasonic receiver is fixedly connected to the dehydration box 2;

[0041] A dehydration medium mixing and stirring mechanism is provided in the mounting ring 4, and the dehydration medium mixing and stirring mechanism is used to drive the dehydration medium to mix and stir;

[0042] The outer surface of the installation pipe 3 is connected to a transmission mechanism connected to the dehydration box 2, and the transmission mechanism is used to drive the installation pipe 3 to rotate;

[0043] One side of the mounting tube 3 is rotatably connected to a water supply and pumping mechanism connected to the mounting platform 1 , the water supply and pumping mechanism is used to supply dehydrating agent into the dehydration box 2 and to extract the dehydrating agent, and a cover is threadedly connected to the top of the dehydration box 2 .

[0044] The pathological tissue is placed in a dehydration box for fixation, and then dehydration liquid is added to the dehydration box 2 through a water supply and pumping mechanism. Then, a spiral ultrasonic wave is emitted to the water entering the pathological tissue by an ultrasonic spiral wave generator 5, thereby increasing the movement of water molecules in the pathological tissue. At the same time, the ultrasonic receiver on the opposite side receives and analyzes the ultrasonic wave after the pathological tissue is ultrasonicated. Then, according to the intensity of the ultrasonic wave, the ultrasonic wave intensity of another ultrasonic spiral generator on the opposite side is enhanced, thereby generating an enhanced echo, thereby forming a superimposed resonance effect, further increasing the movement speed of water molecules in the pathological tissue, and improving the dehydration effect on the pathological tissue. At the same time, during the dehydration process, the dehydration medium is mixed and stirred by the dehydration medium mixing and stirring mechanism, so that the pathological tissue can be fully ultrasonicated, further improving the dehydration effect and dehydration efficiency of the pathological tissue.

[0045] The water supply and pumping mechanism includes a third connecting pipe 51 rotatably connected to the mounting pipe 3, one end of the third connecting pipe 51 is fixedly connected to a water pump 52 fixedly connected to the mounting platform 1, the input end of the water pump 52 is fixedly connected to a water inlet main pipe 53, two water inlet branches 54 are fixedly connected to the water inlet main pipe 53, an electromagnetic valve is fixedly connected to the water inlet branch 54, and a water pipe 55 is fixedly connected to the mounting pipe 3. The two water inlet branches 54 on one side of the water inlet main pipe 53 are respectively connected to the dehydration liquid supply pipe and the cleaning liquid supply pipe, and the two water inlet branches 54 on the other side of the water inlet main pipe 53 are respectively connected to the dehydration liquid outlet pipe and the cleaning liquid outlet pipe. When dehydrating pathological tissue, the water inlet pipe 55 is fixedly connected to the dehydration liquid outlet pipe. By opening the electromagnetic valve on the pipe connected to the dehydration liquid supply pipe, the water pump 52 starts working and supplies dehydration liquid to the third connecting pipe 51. The third connecting pipe 51 supplies dehydration liquid to the installation pipe 3, and then the dehydration liquid enters the dehydration box 2. When dehydration is completed, the water pump 52 on the other side is started, and at the same time, the electromagnetic valve of the dehydration liquid outlet pipe on the other side connected to the water inlet branch 54 is opened to discharge the dehydration liquid. When the dehydration box 2 needs to be cleaned, the same method as above can be used to realize automatic liquid supply to the dehydration box 2 and automatic discharge of the used liquid, thereby improving the automation level of the dehydration device and facilitating use by users.

[0046] Example 2

[0047] Based on Example 1, please refer to Figures 3 to 8As shown, the dehydration medium mixing and stirring mechanism includes a first transmission ring 11 rotatably connected to the mounting ring 4, a first functional cavity 12 is provided on the mounting ring 4, the outer surface of the first transmission ring 11 is fixedly connected to the second transmission ring 13 through a connecting column, two transmission tubes 14 are rotatably connected in the second transmission ring 13, the two transmission tubes 14 are fixedly connected to a transmission box 15 on opposite sides, a connecting ring tube 16 is fixedly connected between the two transmission boxes 15, a plurality of fixed tubes 17 are fixedly connected to the transmission box 15 and the connecting ring tube 16, a fixed airbag 18 is fixedly connected to the fixed tube 17, a second functional cavity 19 is provided on the second transmission ring 13, one end of one transmission tube 14 is fixedly connected to a transmission motor 190 fixedly connected to the second functional cavity 19 through a coupling, and one end of the other transmission tube 14 is transmission-connected to an air supply mechanism connected to the second functional cavity 19, the air supply mechanism is used to supply air to the fixed airbag 18;

[0048] The outer surface of the first transmission ring 11 is transmission-connected to a driving mechanism connected to the first functional cavity 12 , and the driving mechanism is used to drive the first transmission ring 11 to rotate.

[0049] The air supply mechanism includes two air supply boxes 21 fixedly connected to the second functional chamber 19, a first electric telescopic rod 22 fixedly connected to the air supply box 21, one end of the first electric telescopic rod 22 fixedly connected to the extrusion plate 23 slidingly connected to the air supply box 21, one end of the transmission tube 14 is rotatably connected to the first connecting tube 24 fixedly connected to the second functional chamber 19, and one side of the air supply box 21 is fixedly connected to the second connecting tube 25 fixedly connected to the first connecting tube 24. The extrusion plate 23 is driven by the first electric telescopic rod 22 to move in the air supply box 21, driving the gas in the air supply box 21 to enter the transmission tube 14 through the second connecting tube 25 and the first connecting tube 24, thereby supplying air to the transmission tube 14.

[0050] The driving mechanism includes a driving motor 31 fixedly connected to the first functional chamber 12. The driving motor 31 is controlled by a PLC programming program, and can control the driving motor 31 to rotate forward and reverse and rotate at an angle. The output end of the driving motor 31 is fixedly connected to a driving shaft 32 through a coupling. The outer surface of the driving shaft 32 is fixedly sleeved with a driving gear 33. The outer surface of the driving gear 33 is meshedly connected with a transmission ring gear 34 fixedly sleeved with the first transmission ring 11. The driving motor 31 drives the driving shaft 32 to rotate, and the driving shaft 32 drives the transmission ring gear 34 to rotate through the driving gear 33.

[0051] The transmission mechanism includes a second electric telescopic rod 41 fixedly connected to the dehydration box 2, one end of the second electric telescopic rod 41 is fixedly connected to a transmission rack 42 through a connecting block, and one side of the transmission rack 42 is meshed with a transmission gear 43 fixedly sleeved on the mounting tube 3. The transmission rack 42 is driven to move by the second electric telescopic rod 41, and the transmission rack 42 drives the transmission gear 43 and the mounting tube 3 to rotate.

[0052] The pathological tissue is placed between multiple fixed airbags 18, and then the air supply mechanism is used to supply air to the transmission tube 14, the transmission tube 14 supplies air to the transmission box 15, the transmission box 15 supplies air to the connecting ring tube 16, so that the transmission box 15 and the connecting ring tube 16 supply air to the fixed tube 17, the fixed tube 17 supplies air to the fixed airbags 18, the fixed airbags 18 swell, and each fixed airbag 18 performs point support and fixation on the pathological tissue, thereby achieving flexible clamping and fixation of the pathological tissue by the fixed airbags 18, effectively preventing the pathological tissue from being squeezed and damaged during fixation, and further improving the dehydration effect of the pathological tissue. When the fixation is completed, the transmission mechanism is then used to release the fixed airbags 18. The mechanism drives the mounting tube 3 to rotate, and the mounting tube 3 drives the mounting ring 4 to rotate. At the same time, the driving mechanism in the mounting ring 4 drives the first transmission ring 11 to rotate, and the first transmission ring 11 drives the second transmission ring 13 to rotate. The transmission motor 190 in the second transmission ring 13 drives the transmission tube 14 to rotate, and the transmission tube 14 drives the transmission box 15 to rotate. The transmission box 15 drives the fixed tube 17 and the fixed airbag 18 to rotate, thereby achieving a 360-degree all-round rotation of the fixed pathological tissue, so that every part of the pathological tissue can be fully irradiated by ultrasound, thereby achieving comprehensive dehydration of the pathological tissue and improving the dehydration effect and dehydration efficiency of the pathological tissue.

[0053] Example 3

[0054] Based on Example 1, please refer to Figures 1 to 8 As shown, the rapid tissue dehydration method based on ultrasonic spiral wave recovery enhancement includes the following steps:

[0055] Step 1: Place the pathological tissue into the pathological tissue basket in the dehydration box 2, and then flexibly clamp and fix the pathological tissue through the pathological tissue fixing mechanism;

[0056] Step 2: Dehydration liquid is supplied into the dehydration box 2 through the water supply and pumping mechanism, and then the dehydration medium mixing and stirring mechanism on the dehydration box mixes and stirs the dehydration medium, and at the same time, the ultrasonic spiral wave generator 5 and the ultrasonic receiver in the dehydration box 2 are started to perform rapid ultrasonic dehydration on the pathological tissue;

[0057] Step 3: After dehydration is completed, the dehydration liquid in the dehydration box 2 is pumped out through the water supply and pumping mechanism, and then the dehydrated pathological tissue is taken out to obtain the dehydrated pathological tissue.

[0058] Working principle: When in use, the pathological tissue is placed in the dehydration box for fixation, and then dehydration liquid is added to the dehydration box 2 through the water supply and pumping mechanism. Then, the ultrasonic spiral wave generator 5 emits spiral ultrasonic waves to the water entering the pathological tissue to increase the movement of water molecules in the pathological tissue. At the same time, the ultrasonic receiver on the opposite side receives and analyzes the ultrasonic waves after the pathological tissue is ultrasonicated. Then, according to the intensity of the ultrasonic waves, the ultrasonic intensity of the other ultrasonic spiral generator on the opposite side is enhanced to generate enhanced echoes, thereby forming a superimposed resonance effect, further increasing the movement speed of water molecules in the pathological tissue and improving the dehydration effect on the pathological tissue. At the same time, during the dehydration process, the dehydration medium is driven to mix and stir through the dehydration medium mixing and stirring mechanism, so that the water molecules in the pathological tissue can be fully exchanged with the dehydration medium, further improving the dehydration effect and dehydration efficiency of the pathological tissue.

[0059] The above description is merely illustrative of certain exemplary embodiments of the present invention. It goes without saying that those skilled in the art will be able to modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the above drawings and description are illustrative in nature and should not be construed as limiting the scope of protection of the claims.

Claims

1. A rapid tissue dehydration device based on ultrasonic spiral wave recovery enhancement, characterized in that: include: A mounting platform (1), a dehydration box (2) is fixedly connected to the mounting platform (1), two mounting tubes (3) are rotatably connected to the dehydration box (2), a mounting ring (4) is fixedly connected between the two mounting tubes (3), two ultrasonic spiral wave generators (5) are fixedly connected in the dehydration box (2), and an ultrasonic receiver is fixedly connected in the dehydration box (2); A dehydration medium mixing and stirring mechanism is provided in the installation ring (4), and the dehydration medium mixing and stirring mechanism is used to drive the pathological tissue to be fixed and turned over; The outer surface of the installation tube (3) is connected to a transmission mechanism connected to the dehydration box (2), and the transmission mechanism is used to drive the installation tube (3) to rotate; One side of the installation pipe (3) is rotatably connected to a water supply and pumping mechanism connected to the installation platform (1), and the water supply and pumping mechanism is used to supply dehydrating agent into the dehydration box (2) and to pump out the dehydrating agent.

2. The rapid tissue dehydration device based on ultrasonic spiral wave recovery enhancement according to claim 1, characterized in that: The dehydration medium mixing and stirring mechanism comprises a first transmission ring (11) rotatably connected to the mounting ring (4), a first functional cavity (12) is provided on the mounting ring (4), the outer surface of the first transmission ring (11) is fixedly connected to the second transmission ring (13) via a connecting column, two transmission tubes (14) are rotatably connected inside the second transmission ring (13), the two transmission tubes (14) are fixedly connected to a transmission box (15) on opposite sides, a connecting ring tube (16) is fixedly connected between the two transmission boxes (15), and the transmission box (15) A plurality of fixed tubes (17) are fixedly connected to the connecting ring tube (16), and a fixed airbag (18) is fixedly connected to the fixed tube (17). A second functional cavity (19) is provided on the second transmission ring (13), and one end of one of the transmission tubes (14) is fixedly connected to a transmission motor (190) fixedly connected to the second functional cavity (19) through a coupling, and one end of another transmission tube (14) is transmission-connected to an air supply mechanism connected to the second functional cavity (19), and the air supply mechanism is used to supply air to the fixed airbag (18); The outer surface of the first transmission ring (11) is transmission-connected to a driving mechanism connected to the first functional cavity (12), and the driving mechanism is used to drive the first transmission ring (11) to rotate.

3. The rapid tissue dehydration device based on ultrasonic spiral wave recovery enhancement according to claim 2, characterized in that: The air supply mechanism comprises two air supply boxes (21) fixedly connected to the second functional chamber (19), a first electric telescopic rod (22) fixedly connected inside the air supply box (21), one end of the first electric telescopic rod (22) fixedly connected to an extrusion plate (23) slidably connected to the air supply box (21), one end of the transmission tube (14) rotatably connected to a first connecting tube (24) fixedly connected to the second functional chamber (19), and a second connecting tube (25) fixedly connected to the first connecting tube (24) fixedly connected to one side of the air supply box (21).

4. The rapid tissue dehydration device based on ultrasonic spiral wave recovery enhancement according to claim 2, characterized in that: The driving mechanism comprises a driving motor (31) fixedly connected to the first functional chamber (12); an output end of the driving motor (31) is fixedly connected to a driving shaft (32) via a coupling; a driving gear (33) is fixedly sleeved on the outer surface of the driving shaft (32); and a driving gear (33) is meshedly connected on the outer surface of the driving gear (33) with a transmission ring gear (34) fixedly sleeved on the first transmission ring (11).

5. The rapid tissue dehydration device based on ultrasonic spiral wave recovery enhancement according to claim 1, characterized in that: The transmission mechanism comprises a second electric telescopic rod (41) fixedly connected to the dehydration box (2); one end of the second electric telescopic rod (41) is fixedly connected to a transmission rack (42) via a connecting block; one side of the transmission rack (42) is meshedly connected to a transmission gear (43) fixedly sleeved with the mounting pipe (3).

6. The rapid tissue dehydration device based on ultrasonic spiral wave recovery enhancement according to claim 1, characterized in that: The water supply and pumping mechanism comprises a third connecting pipe (51) rotatably connected to the mounting pipe (3); one end of the third connecting pipe (51) is fixedly connected to a water pump (52) fixedly connected to the mounting platform (1); the input end of the water pump (52) is fixedly connected to a water inlet main pipe (53); two water inlet manifolds (54) are fixedly connected to the water inlet manifold (53); an electromagnetic valve is fixedly connected to the water inlet manifold (54); and a water pipe (55) is fixedly connected to the mounting pipe (3).

7. The rapid tissue dehydration device based on ultrasonic spiral wave recovery enhancement according to claim 1, characterized in that: The top of the dehydration box (2) is threadedly connected with a cover.

8. The rapid tissue dehydration method based on ultrasonic spiral wave recovery enhancement according to any one of claims 1 to 7, characterized in that: The following steps are involved: Step 1: placing the pathological tissue into the dehydration medium mixing and stirring mechanism in the dehydration box (2), and then flexibly clamping and fixing the pathological tissue by the dehydration medium mixing and stirring mechanism; Step 2: Dehydration liquid is supplied into the dehydration box (2) through the water supply and pumping mechanism, and then the dehydration medium mixing and stirring mechanism on the dehydration box performs multi-angle flipping on the pathological tissue, and at the same time, the ultrasonic spiral wave generator (5) and the ultrasonic receiver in the dehydration box (2) are started to perform rapid ultrasonic dehydration on the pathological tissue; Step 3: After dehydration is completed, the dehydration liquid in the dehydration box (2) is extracted through the water supply and pumping mechanism, and then the dehydrated pathological tissue is taken out to obtain the dehydrated pathological tissue.

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