WO2023040177A1 - Segmented extraction device for nutrient solution used in giant salamander protein production - Google Patents

Abstract

A segmented extraction device for a nutrient solution used in giant salamander protein production, which belongs to the technical field of biological extraction, and comprises a casing assembly (1), and further comprises a liquid supply tube group (2) for outputting protein extracts of different components to the casing assembly (1); a liquid storage mechanism (3) that is rotatably sleeved on the liquid supply tube group (2), which is used to contain the protein extracts; a sliding casing mechanism (4), which is slidingly sleeved on a fixed rotation casing (301) and which is used to slidingly control the opening and closing of liquid discharge nozzles (305); and a liquid discharge member (5), which is used to control the discharge of protein extracts of different components from corresponding liquid discharge nozzles (305). By turning the liquid discharge member (5) that is placed on the liquid supply tube group (2), the protein extracts of different components may be sequentially inputted into the liquid storage mechanism (3), and in cooperation with the sliding casing mechanism (4), giant salamander raw materials are mixed, stirred and centrifuged. By using the liquid discharge member (5), the protein extracts of different components are discharged by passing through different channels, so as to achieve the segmented extraction of the giant salamander protein nutrient solution. Moreover, the extraction steps are all carried out in the same container, and thus not only is operation convenient and fast but efficiency is also improved.

Description

A nutrient solution segmental extraction device for giant salamander protein production technical field

The invention belongs to the technical field of biological extraction, and in particular relates to a segmental extraction device for nutrient solution used for production of giant salamander protein.

Background technique

Giant salamander is a kind of amphibian. The skin of giant salamander is thick and viscous, and the content of colloidal components is high. It is rich in high-quality protein, amino acid, natural active substances and abundant collagen, which can improve cell microcirculation, promote protein synthesis, collagen Protein is rich in glycine, proline and hydroxyproline, and its hydrolyzate is also rich in physiologically active peptides. It is one of the most popular beauty and health care products in recent years. Therefore, giant salamander is used as raw material to process water-soluble protein And its series of products have very good prospects and value.

According to different extraction media, collagen extraction methods can be divided into acid method, alkali method, enzymatic method, salt method and hot water extraction method, etc. The basic principle is to change the external environment of the protein according to the characteristics of collagen. To separate collagen from other proteins, in actual extraction, different methods are often combined with each other. The existing extraction technology requires multiple mixing, filtration, washing and centrifugation, which not only has complicated steps but also makes the extraction efficiency of multi-stage nutrient solution lower.

Contents of the invention

In view of the deficiencies in the prior art, the purpose of the embodiments of the present invention is to provide a segmented extraction device for nutrient solution for the production of giant salamander protein, so as to solve the above-mentioned problems in the background technology.

To achieve the above object, the present invention provides the following technical solutions:

A segmental extraction device for nutrient solution for giant salamander protein production, comprising a housing assembly, the housing assembly includes a main housing, a sump and an opening and closing groove, and the sump is circumferentially arranged on the inner wall of the main housing On the top, it is used to extract the giant salamander protein nutrient solution in sections, and the opening and closing groove is arranged on one side of the main shell, and is used to input the raw material of the giant salamander protein to be extracted into the main shell;

Liquid supply tube set, the liquid supply tube set includes a fixed shaft frame and a catheter, the fixed shaft frame is fixedly arranged on one side of the main casing, one end of the catheter tube is fixedly assembled in the fixed shaft frame, and the other end is arranged on the main casing Inside the body, the catheter tube is connected to a number of liquid inlet pipes on the side close to the outside of the main casing, and the side of the catheter pipe near the interior of the main casing is provided with a number of liquid outlets, and the liquid inlet pipe and the liquid outlet connected in sequence, for outputting protein extracts of different components into the main shell;

A liquid storage mechanism, the liquid storage mechanism includes a fixed-rotation housing and an abutting piece, one end of the fixed-rotation housing is rotatably sleeved on the fixed shaft frame, and the other end of the fixed-rotation housing is covered outside the catheter for use The protein extraction liquid output in the catheter is contained, and a number of drain nozzles are arranged on the fixed-rotor housing, and the drain nozzles are matched with the liquid collection tank to discharge the protein extract in the fixed-rotor housing. The extraction liquid is output to the side of the liquid collection tank, and the side of the fixed-rotation housing is also equipped with abutting parts, which are connected to the catheter in rotation, and a filter membrane is arranged on it to separate the giant salamander raw material and protein extract;

Sliding shell mechanism, the sliding sleeve is set on the fixed-rotation shell, and one end is in sliding contact with the abutment piece, which is used to cooperate with the abutment piece to filter the mixture of giant salamander raw material and protein extract, and there are several communication channels on it. The nozzle, the connecting nozzle is arranged between the liquid collection tank and the liquid discharge nozzle, and the connecting nozzle is matched with the liquid collection tank and the liquid discharge nozzle, and is used to slide and control the protein extract on one side of the discharge nozzle. The output opening and closing, and output the protein extract of different components in the discharge pipe to the corresponding collection tank;

The liquid discharge member is fixedly assembled in the fixed-rotation housing, and the liquid discharge member includes several covering shells. The protein extract in the drain port is output to the fixed-rotor housing, and the other end of the coating shell is movably inserted into the drain nozzle, and is set in linkage with the drain port to control the protein extract of different components from the corresponding Discharge from the drain pipe;

A plugging component arranged in the outlet of the discharge pipe, used for actively blocking the discharge pipe outlet, and set in linkage with the discharge member, used to control the opening and closing of the discharge pipe outlet; and

The driving member is assembled on one side of the sliding shell mechanism, and one end is connected with a driver, which is used to drive the rotation of the sliding shell mechanism, so that the sliding shell mechanism drives the liquid storage mechanism to rotate, thereby centrifuging the mixture of giant salamander raw material and protein extract, and During the rotation, the sliding shell mechanism is driven to slide on the liquid storage mechanism, so that the liquid collection tank, the discharge nozzle and the communication nozzle are connected, so that the protein extracts of different components are discharged into different liquid collection tanks.

In summary, the present invention has the following beneficial effects:

In the present invention, by rotating the liquid discharge member arranged on the liquid supply pipe group, protein extracts of different components can be sequentially input into the liquid storage mechanism, and the giant salamander raw material can be mixed, stirred and centrifuged in conjunction with the rotation of the sliding shell mechanism. operation, and the passage between the liquid storage mechanism and the sliding shell mechanism can be connected through the liquid discharge member, so that the protein extracts of different components are discharged correspondingly through different passages, and the segmental extraction of the giant salamander protein nutrient solution is realized, and the extraction steps All are implemented in the same container, which not only facilitates operation but also improves efficiency.

Description of drawings

Fig. 1 is a structural schematic diagram of a segmented extraction device for nutrient solution for production of giant salamander protein provided in an embodiment of the present invention.

Fig. 2 is a schematic diagram of the structure marked A in the staged extraction device for nutrient solution for production of giant salamander protein provided in an embodiment of the present invention.

Fig. 3 is a schematic side view of the liquid drainage member in the staged extraction device for nutrient solution for production of giant salamander protein provided in an embodiment of the present invention.

Fig. 4 is a schematic diagram of the structure marked B in the staged extraction device for nutrient solution for production of giant salamander protein provided in an embodiment of the present invention.

Fig. 5 is a three-dimensional cutaway view of the liquid storage mechanism in the staged extraction device for the nutrient solution used in the production of giant salamander protein provided in an embodiment of the present invention.

Fig. 6 is a perspective cross-sectional view of the back of the liquid storage mechanism in the staged extraction device for nutrient solution for production of giant salamander protein provided in an embodiment of the present invention.

Reference signs: 1-housing assembly, 101-main housing, 102-sump, 103-opening and closing tank, 104-discharging nozzle, 105-slag discharge port, 106-isolation cavity, 107-baffle Parts, 2-liquid supply tube group, 201-fixed shaft frame, 202-catheter tube, 203-liquid inlet tube, 204-booster pump, 205-liquid outlet, 3-liquid storage mechanism, 301-fixed rotary shell Body, 302-Cylinder shell, 303-Abutting piece, 304-Membrane, 305-Drain nozzle, 4-Sliding shell mechanism, 401-Sliding shell, 402-Pressure piece, 403-Active valve port , 404-sliding cylinder, 405-communicating nozzle, 5-discharge member, 501-coating shell, 502-reservoir, 503-narrow end, 504-sliding plug, 505-trigger, 506- Elastic block, 507-card slot, 508-one-way valve, 6-blocking assembly, 601-blocking port, 602-base, 603-movable plug head, 7-driving member, 701-connecting shaft, 702-section One connecting seat, 703-second connecting seat, 704-connecting arm, 705-magnetic block, 706-electrically controlled magnetic pole, 8-driver, 9-raw material cavity, 10-sliding groove group.

Detailed ways

The specific implementation of the present invention will be described in detail below in conjunction with specific embodiments.

Please refer to Fig. 1-Fig. 6, the segmental extraction device for the nutrient solution used in the production of giant salamander protein in one embodiment of the present invention, comprises housing assembly 1, and housing assembly 1 comprises main housing 101, liquid sump 102 and start The closed tank 103 and the liquid collecting tank 102 are arranged circumferentially on the inner wall of the main housing 101 for segmentally extracting the nutrient solution of giant salamander protein. The opening and closing tank 103 is arranged on one side of the main housing 101 for feeding Input the raw material of giant salamander protein to be extracted; the liquid supply tube group 2, the liquid supply tube group 2 includes a fixed shaft frame 201 and a catheter 202, the fixed shaft frame 201 is fixedly arranged on one side of the main housing 101, and one end of the catheter tube 202 It is fixedly assembled in the fixed shaft frame 201, and the other end is arranged inside the main housing 101. The catheter tube 202 is connected with a number of liquid inlet tubes 203 on the side close to the outside of the main housing 101. The catheter tube 202 is close to the inside of the main housing 101. One side is provided with a plurality of liquid outlets 205, and the liquid inlet pipe 203 communicates with the liquid outlets 205 in sequence, and is used to output protein extracts of different components into the main housing 101; the liquid storage mechanism 3, the liquid storage mechanism 3 includes The fixed-rotation housing 301 and the abutting piece 303, one end of the fixed-rotation housing 301 is rotatably sleeved on the fixed shaft frame 201, and the other end of the fixed-rotation housing 301 is covered outside the catheter 202 for containing the catheter 202 The protein extract output in the fixed-rotor housing 301 is provided with a number of drain nozzles 305, the drain nozzle 305 is matched with the liquid collection tank 102, and is used to remove the protein extract in the fixed-rotor housing 301. It is output to the side of the liquid collection tank 102, and the side of the fixed-rotation housing 301 is also provided with an abutment 303, which is connected to the catheter 202 in rotation, and a filter membrane 304 is arranged on it to separate giant salamanders. Raw materials and protein extract; sliding shell mechanism 4, the sliding sleeve is set on the fixed-rotor housing 301, and one end is in sliding contact with the abutment piece 303, which is used to cooperate with the abutment piece 303 to carry out the mixed solution of the giant salamander raw material and the protein extract solution. filter, and it is provided with a number of connecting nozzles 405, the connecting nozzles 405 are arranged between the sump 102 and the drain nozzle 305, and the connecting nozzles 405 match the sump 102 and the drain nozzle 305 It is used to slide and control the output opening and closing of the protein extract on one side of the drain nozzle 305, and output the protein extract of different components in the drain nozzle 305 to the corresponding liquid collection tank 102; the drain member 5. It is fixedly assembled in the fixed-rotation housing 301. The liquid discharge member 5 includes a number of coating housings 501. The coating housing 501 is rotatably sleeved on the catheter 202 and communicated with the discharge port 205. After the protein extract in the discharge port 205 is output to the fixed-rotation housing 301, the other end of the coating housing 501 is movably inserted into the discharge nozzle 305, and is set in linkage with the discharge port 205 for controlling The protein extracts of different components are discharged from the corresponding discharge nozzles 305; the blocking component 6 is arranged in the discharge nozzles 305, and is used to actively block the discharge nozzles 305, and is linked with the discharge member 5 Set, for controlling the opening and closing of the drain nozzle 305; and the driving member 7, assembled on the slide One side and one end of the shell mechanism 4 are connected with a driver 8, which is used to drive the rotation of the sliding shell mechanism 4, so that the sliding shell mechanism 4 drives the liquid storage mechanism 3 to rotate, thereby centrifuging the mixture of the giant salamander raw material and the protein extract solution, and rotating During the process, the sliding shell mechanism 4 is driven to slide on the liquid storage mechanism 3, so that the liquid collection tank 102, the discharge nozzle 305 and the communication nozzle 405 are connected, so that the protein extracts of different components are discharged to different liquid collection tanks 102 in.

In the actual application of this embodiment, after the giant salamander raw material is transported to the liquid storage mechanism 3 and the sliding shell mechanism 4 through the opening and closing tank 103, it is first output through the liquid inlet pipe 203 to the liquid discharge port 205 on the side of the liquid guide pipe 202. Pure water, when the pure water output from the liquid discharge port 205 side is output to the fixed-rotation housing 301 through the coating housing 501, the pure water passes through the filter membrane 304 on the abutting member 303 and contacts with the giant salamander raw material, and cooperates with the drive The driving effect of the component 7 and the driver 8 drives the liquid storage mechanism 3 and the sliding shell mechanism 4 to rotate at a low speed, so that the pure water and the giant salamander raw material are mixed and stirred to obtain the mixed slurry and slurry, and the driver 8 is driven to rotate at a high speed after mixing to drive The slider mechanism 4 and the liquid storage mechanism 3 rotate at the same speed, and at this time, the driving member 7 can drive the slider mechanism 4 to slide directionally on the surface of the liquid storage mechanism 3 under the condition of high speed, so that the abutment 303 and the slider mechanism 4 The distance between them is reduced, and the pressurized slurry enters the fixed-rotation housing 301 after passing through the filter membrane 304. At this time, the discharge nozzle 305 on the fixed-rotation housing 301 and the communication nozzle 405 on the sliding shell mechanism 4 are both It is connected with the liquid collection tank 102 after matching and docking, and because the liquid discharge port 205 through which pure water flows is driven by the liquid discharge member 5 on this side to move the blocking assembly 6 on this side before entering the fixed-rotation housing 301, so that it is connected with the pure water The corresponding discharge nozzle 305 is connected, and the slurry can be discharged from the discharge nozzle 305 on this side through the communication nozzle 405 to the sump 102 when the set high-speed rotation condition is reached, and the slurry can be discharged through the collection tank 102. The liquid tank 102 is discharged to the outside of the device to achieve the extraction of the giant salamander raw material slurry in the first stage, and leave the slurry to be treated for the second time.

After the slurry is emptied, the slide housing mechanism 4 is reset on the side of the liquid storage mechanism 3 through the deceleration driver 8, and at the same time, the passage between the communication nozzle 405 and the liquid collection tank 102 and the liquid discharge nozzle 305 is blocked. At the same time, the acid solution extraction liquid is output to the guide pipe 202 side through the liquid inlet pipe 203, and the acid solution is contacted with the giant salamander raw material after passing through the filter membrane 304. After stirring and mixing at a low speed, by increasing the rotating speed of the driver 8, the The raw material and the acid solution extract are centrifuged to obtain acid-soluble collagen and filter residue. After the centrifugation is completed, when the rotational speed of the driver 8 reaches the set value, the sliding shell mechanism 4 can be driven to slide toward the side of the liquid storage mechanism 3 again. And control the opening of the discharge nozzle 305 corresponding to the acid solution extraction liquid, so that the acid-soluble collagen liquid is discharged from the discharge nozzle 305 on this side through the communication nozzle 405 to the corresponding liquid collection tank 102, and the process is completed. For the extraction of acid-soluble collagen, and repeating the above steps, the alkali solution extract, the salt solution extract and the enzyme solution extract are sequentially output to the fixed-rotation housing 301 through the liquid inlet pipe 203, and the alkali-soluble collagen, The salt-soluble collagen and the enzyme-promoted soluble collagen are discharged from the corresponding drain nozzle 305 into the corresponding sump 102 to achieve segmental extraction of the giant salamander protein nutrient solution.

In one case in this embodiment, the liquid inlet pipe 203 includes a pure water pipeline, an acid solution extraction solution pipeline, an alkali solution extraction solution pipeline, a salt solution extraction solution pipeline and an enzyme solution extraction solution pipeline. All the solutions are pressurized into the catheter 202 by the booster pump 204 to ensure sufficient pressure when discharged at the side of the discharge port 205.

In one case in this embodiment, after acid solution extraction and alkali solution extraction, it needs to be washed with pure water several times to make the pH value tend to be neutral, and the pure water is water after removing impurities in the form of ions.

In one case in this embodiment, the giant salamander raw material to be processed is chopped and sterilized before collagen extraction, which will not be described in detail here.

Please refer to Fig. 1, in a preferred embodiment of the invention, the housing assembly 1 also includes: a liquid discharge nozzle 104, which communicates with the sump 102, and is used to extract the protein of different components in the sump 102 The liquid is discharged in stages; the slag discharge port 105 is arranged on the bottom side of the main housing 101 for recycling the cleaned waste residue; and the isolation chamber 106 is arranged on the side of the slide mechanism 4 and between the slide mechanism 4 It is sealed and isolated by the partition member 107 .

In the actual application of this embodiment, the liquid collecting tank 102 is surrounded and arranged outside the communicating nozzle 405, and is connected with the sliding shell mechanism 4 in a sliding seal, so that the sliding shell mechanism 4 rotates inside the main casing 101, The protein extraction solution discharged through the connecting nozzle 405 is discharged into the sump 102 under the action of rotation and centrifugation, and flows to the drain nozzle 104 in the sump 102 to be discharged by gravity.

In one case in this embodiment, the liquid collection tank 102 is in clearance fit with the sliding shell mechanism 4, and the influence of the clearance distance on the leakage of the solution is negligible.

Referring to Fig. 5 and 6, in a preferred embodiment of the invention, a slide groove group 10 is arranged between the liquid storage mechanism 3 and the sliding shell mechanism 4, and the sliding groove set 10 is used to limit the position of the sliding shell mechanism 4 in the liquid storage mechanism. 3 on the slide direction.

In practical application of this embodiment, the sliding case mechanism 4 is slidably assembled on the liquid storage mechanism 3 through the sliding groove group 10, the sliding direction of the sliding case mechanism 4 can be limited, and the rotation of the liquid storage mechanism 3 can be driven by the sliding case mechanism 4 , so that the liquid storage mechanism 3 and the slider mechanism 4 move synchronously.

In one case in this embodiment, the sliding groove group 10 is in sealing contact with the liquid storage mechanism 3 and the sliding shell mechanism 4, so as to prevent the leakage of the protein extract.

Please refer to FIG. 1 , in a preferred embodiment of this embodiment, the sliding case mechanism 4 further includes: a sliding housing 401 , which is slidably sleeved on the fixed rotating housing 301 so that the fixed rotating housing 301 and the fixed rotating housing 301 The sliding housing 401 rotates synchronously on the side of the fixed shaft frame 201; the pressing member 402 is arranged towards the side of the abutting member 303, and a raw material chamber 9 is arranged between the pressing member 402 and the abutting member 303, and the raw material chamber 9 is used and the movable valve port 403, which is movably assembled on one side of the sliding housing 401 and matched with the opening and closing groove 103, is used for inputting the raw material of giant salamander to be processed into the raw material chamber 9.

In the actual application of this embodiment, the sliding housing 401 is connected with a sliding cylinder 404, and the sliding cylinder 404 is slidably arranged on the fixed rotating housing 301 through the sliding groove group 10, and when the pressing member 402 and the contacting member 303 When abutting, the giant salamander raw material and protein extract located in the raw material chamber 9 can quickly output the protein extract through the filter membrane 304 to the fixed-rotor housing 301 in the squeezed state, and cooperate with the rotation of the liquid storage mechanism 3 to transfer the protein extract The extraction liquid is discharged into the corresponding sump 102 through the corresponding drain nozzle 305 .

In one case in this embodiment, the movable valve port 403 is movably assembled on the sliding housing 401, and is set to match the position of the opening and closing groove 103. After opening the opening and closing groove 103, the movable valve port 403 can move toward the The giant salamander raw material is placed in the raw material chamber 9. During the cleaning process of the device, the movable valve port 403 can be opened and the opening and closing groove 103 can be closed. , clean the waste slag contained in the raw material chamber 9 during the rotation process, and discharge it from the movable valve port 403 and finally discharge it from the slag discharge port 105 to the outside of the device.

Please refer to Figures 2, 3 and 4, in a preferred embodiment of the invention, the liquid drainage member 5 further includes: a liquid storage chamber 502, arranged between the covering shell 501 and the catheter 202, for containing the drainage The protein extraction solution output in the liquid port 205; the narrow mouth end 503 is arranged on one side of the coating shell 501, and a sliding plug 504 is elastically mounted on one side thereof, and the sliding plug 504 is matched with the liquid discharge port 205 to make the liquid discharge The liquid pressure generated in the port 205 pushes the sliding plug 504 to move; one end of the trigger 505 is assembled with the sliding plug 504, and the other end is slidably arranged on the side of the discharge pipe port 305, and is matched with the discharge pipe port 305 to trigger One side of the piece 505 is provided with a card slot 507; the elastic card block 506 is elastically assembled on one side of the card slot 507, and is used for sliding the elastic limit trigger member 505 through the card slot 507, and through the card slot 507 and the elastic card block 506. The sliding buckle drives the rest of the sliding plugs 504 to reset, so that only one group of sliding plugs 504 is in the buckling state among the plurality of sliding plugs 504; The protein extraction liquid in the chamber 502 is unidirectionally output into the fixed-rotor casing 301 .

In the actual application of this embodiment, when the solution is output from the side of the discharge port 205, the solution first fills the liquid storage chamber 502, and after the narrow end 503 rotates to the side of the liquid discharge port 205, the liquid in the narrow end 503 The instantaneous pressure increases, and pushes the sliding plug 504 to overcome the elastic force to slide on the side of the casing 501, and when the slot 507 on the side of the trigger 505 slides against the elastic block 506, the elastic block can be pushed 506 overcomes the elastic action force and moves. At this time, when the elastic clamping block 506 moves to the limit position, the rest of the clamping grooves 507 fastened to the elastic clamping block 506 are loosened and then reset, and the clamping groove 507 on this side is fastened to the elastic clamping After the block 506 is installed, the trigger 505 can abut against one side of the blocking assembly 6, so that the drain nozzle 305 on this side is connected, and the protein extraction liquid can be discharged through the drain nozzle 305 on this side.

In one case in this embodiment, the one-way valve 508 restricts the one-way flow of the protein extract in the liquid storage chamber 502 to the fixed-rotor housing 301 to prevent the extracts of different components from reacting with each other, and on this side The liquid discharge port 205 is in a non-liquid supply state, which can prevent the liquid from flowing backward and causing contamination of the extraction liquid.

Please refer to Fig. 2, in a preferred embodiment of the invention, the blocking assembly 6 further includes: a blocking port 601, which is fixedly arranged in the discharge pipe port 305, and is set close to the inner wall of the fixed-rotation housing 301; the base 602, assembled in the discharge pipe port 305, and arranged on the side of the plugging port 601; and the movable plug head 603, elastically assembled on the side of the base 602, and movably abutting against the plugging port 601, for elastic plugging Drain pipe port 305 .

In practical application of this embodiment, when the trigger member 505 abuts against the movable plug head 603, the movable plug head 603 can be pressed to slide on the base 602 along the discharge nozzle 305, and the extraction liquid can pass through the seal at this time. After the gap between the blocking port 601 and the movable plug 603 , it flows to the side of the connecting nozzle 405 through the base 602 , and enters the liquid collection tank 102 through the connecting nozzle 405 after the connecting nozzle 405 is connected to the drain nozzle 305 .

Please refer to Fig. 1, in a preferred embodiment of the invention, the driving member 7 also includes: a connecting shaft 701, which is slidably inserted in the partition member 107 and one end is fixedly connected with the sliding housing 401; the first connecting seat 702, assembled on the other side of the connecting shaft 701, one end of which is movably inserted with the second connecting seat 703, and the first connecting seat 702 and the second connecting seat 703 are elastically connected; the connecting arm 704 is movably connected to the first connecting seat between the seat 702 and the second connecting seat 703 and are respectively connected to the first connecting seat 702 and the second connecting seat 703 in rotation; the magnetic block 705 is assembled at the joint of the connecting arm 704; and the electrically controlled magnetic pole 706 is arranged on the magnetic block 705 and is electrically connected to the driver 8 .

In the actual application of this embodiment, when the driver 8 drives the second connecting seat 703 to rotate, the second connecting seat 703 and the first connecting seat 702 are in a retracted state under the elastic force, and at this time, they are located on the side of the magnetic block 705. The electronically controlled magnetic pole 706 on the side generates a magnetic field under the action of current, and repels the magnetic pole of the magnetic block 705, driving the magnetic block 705 to pull the connecting arm 704 to move, so that the first connecting seat 702 is close to the second connecting seat 703, when the driver 8 After the rotating speed of driving the second connecting seat 703 reaches the set speed, under the action of centrifugal force, the magnetic block 705 drives the connecting arm 704 to overcome the elastic force and the magnetic force of the electronically controlled magnetic pole 706, and push the connecting shaft 701 toward the slider mechanism 4- side movement, thereby driving the sliding shell mechanism 4 to slide on the liquid storage mechanism 3.

In one case in this embodiment, the driving member 7 can also be replaced with a telescopic structure to drive the expansion and contraction of the driver 8, thereby controlling the sliding of the sliding housing mechanism 4, which is not specifically limited here.

The above descriptions are only preferred embodiments of the present invention, and are not intended to limit the present invention. Any modifications, equivalent replacements and improvements made within the spirit and principles of the present invention should be included in the protection of the present invention. within range.

Claims (7)

1. A nutrient solution segmental extraction device for giant salamander protein production, characterized in that the nutrient solution segmental extraction device includes:

   The casing assembly, the casing assembly includes a main casing, a sump and an opening and closing groove, the sump is arranged circumferentially on the inner wall of the main casing, and is used to extract the nutrient solution of giant salamander protein in sections, the The opening and closing groove is arranged on one side of the main shell, and is used to input the raw material of giant salamander protein to be extracted into the main shell;

   Liquid supply tube set, the liquid supply tube set includes a fixed shaft frame and a catheter, the fixed shaft frame is fixedly arranged on one side of the main casing, one end of the catheter tube is fixedly assembled in the fixed shaft frame, and the other end is arranged on the main casing Inside the body, the catheter tube is connected to a number of liquid inlet pipes on the side close to the outside of the main casing, and the side of the catheter pipe near the interior of the main casing is provided with a number of liquid outlets, and the liquid inlet pipe and the liquid outlet connected in sequence, for outputting protein extracts of different components into the main shell;

   A liquid storage mechanism, the liquid storage mechanism includes a fixed-rotation housing and an abutting piece, one end of the fixed-rotation housing is rotatably sleeved on the fixed shaft frame, and the other end of the fixed-rotation housing is covered outside the catheter for use The protein extraction liquid output in the catheter is contained, and a number of drain nozzles are arranged on the fixed-rotor housing, and the drain nozzles are matched with the liquid collection tank to discharge the protein extract in the fixed-rotor housing. The extraction liquid is output to the side of the liquid collection tank, and the side of the fixed-rotation housing is also equipped with abutting parts, which are connected to the catheter in rotation, and a filter membrane is arranged on it to separate the giant salamander raw material and protein extract;

   Sliding shell mechanism, the sliding sleeve is set on the fixed-rotation shell, and one end is in sliding contact with the abutment piece, which is used to cooperate with the abutment piece to filter the mixture of giant salamander raw material and protein extract, and there are several communication channels on it. The nozzle, the connecting nozzle is arranged between the liquid collection tank and the liquid discharge nozzle, and the connecting nozzle is matched with the liquid collection tank and the liquid discharge nozzle, and is used to slide and control the protein extract on one side of the discharge nozzle. The output opening and closing, and output the protein extract of different components in the discharge pipe to the corresponding collection tank;

   The liquid discharge member is fixedly assembled in the fixed-rotation housing, and the liquid discharge member includes several covering shells. The protein extract in the drain port is output to the fixed-rotor housing, and the other end of the coating shell is movably inserted into the drain nozzle, and is set in linkage with the drain port to control the protein extract of different components from the corresponding Discharge from the drain pipe;

   The plugging component is arranged in the outlet of the discharge pipe, and is used to actively block the outlet of the discharge pipe, and is set in linkage with the discharge member, and is used to control the opening and closing of the discharge pipe; and

   The driving member is assembled on one side of the sliding shell mechanism, and one end is connected with a driver, which is used to drive the rotation of the sliding shell mechanism, so that the sliding shell mechanism drives the liquid storage mechanism to rotate, thereby centrifuging the mixture of giant salamander raw material and protein extract, and During the rotation, the sliding shell mechanism is driven to slide on the liquid storage mechanism, so that the liquid collection tank, the discharge nozzle and the communication nozzle are connected, so that the protein extracts of different components are discharged into different liquid collection tanks.
2. A kind of nutrient solution segmental extraction device for giant salamander protein production according to claim 1, characterized in that, the housing assembly also includes:

   The liquid discharge nozzle is connected with the liquid collection tank, and is used to discharge the protein extracts of different components in the liquid collection tank in sections;

   The slag discharge port is arranged on the bottom side of the main shell, and is used to recover the cleaned waste slag; and

   The isolation chamber is arranged on one side of the sliding case mechanism, and is sealed and isolated from the sliding case mechanism through a partition.
3. The segmental extracting device for nutrient solution used in the production of giant salamander protein according to claim 1, wherein a sliding groove group is arranged between the liquid storage mechanism and the sliding shell mechanism, and the sliding groove group is used to limit the sliding The sliding direction of the shell mechanism on the liquid storage mechanism.
4. The segmental extraction device for nutrient solution used in the production of giant salamander protein according to claim 1, wherein the sliding shell mechanism also includes:

   The sliding housing, the sliding sleeve is set on the fixed rotating housing, so that the fixed rotating housing and the sliding housing rotate synchronously on one side of the fixed shaft frame;

   The pressing piece is arranged towards the side of the abutting piece, and a raw material cavity is arranged between the pressing piece and the abutting piece, and the raw material cavity is used to hold giant salamander raw materials; and

   The movable valve port is movably assembled on one side of the sliding housing, and is matched with the opening and closing groove, and is used to input the raw material of giant salamander to be processed into the raw material chamber.
5. The segmental extraction device for nutrient solution for production of giant salamander protein according to claim 1, wherein the draining member further comprises:

   The liquid storage chamber is arranged between the covering shell and the catheter, and is used to contain the protein extract output from the liquid discharge port;

   The narrow mouth end is arranged on one side of the covering shell, and a sliding plug is elastically assembled on one side thereof, and the sliding plug is matched with the liquid discharge port so that the liquid pressure generated in the liquid discharge port pushes the sliding plug to move;

   A trigger, one end of which is assembled with the sliding plug, and the other end is slidably arranged on one side of the discharge nozzle and matched with the discharge nozzle, and a card slot is arranged on one side of the trigger;

   The elastic clamping block is elastically assembled on one side of the card slot, and is used to slide through the elastic limit trigger of the card slot, and drives the rest of the sliding plugs to reset through the sliding engagement of the card slot and the elastic clamping block, so that several sliding plugs only one set of sliding plugs is engaged; and

   The one-way valve is arranged at one end of the covering shell, and is used for one-way output of the protein extraction liquid in the liquid storage chamber to the fixed-rotation shell.
6. The segmental extraction device for nutrient solution used in the production of giant salamander protein according to claim 1, wherein the plugging assembly further comprises:

   The plugging port is fixedly arranged in the discharge pipe port and is set close to the inner wall of the fixed-rotor housing;

   The base is assembled in the discharge pipe opening and arranged on the side of the blocking opening; and

   The movable plug is elastically assembled on one side of the base, and is movably abutted against the sealing port, and is used for elastically blocking the discharge pipe port.
7. The segmental extraction device for nutrient solution for production of giant salamander protein according to claim 4, wherein the driving member further comprises:

   The connecting shaft is slidably inserted in the partition member and one end is fixedly connected with the sliding housing;

   The first connecting seat is assembled on the other side of the connecting shaft, one end of which is movably inserted with the second connecting seat, and the first connecting seat is elastically connected to the second connecting seat;

   The connecting arm is movably connected between the first connecting seat and the second connecting seat and is respectively connected to the first connecting seat and the second connecting seat in rotation;

   a magnetic block fitted at the joint of the connecting arm; and

   The electrically controlled magnetic poles are arranged on one side of the magnetic block and electrically connected with the driver.

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