Probiotic electuary and processing method thereof

Abstract

The invention relates to the field of probiotics, in particular to probiotic electuary and a processing method thereof.The processing method comprises the steps that S1, dried probiotic blocks are placed on an arc bottom plate; s2, a grinding block is driven to slide in an arc bottom plate in a reciprocating mode, so that the probiotic blocks are pushed to a blade to be cut into small blocks; s3, the small pieces of probiotics can be ground between a grinding block and an arc bottom plate by the grinding block moving in a reciprocating mode to be ground; and S4, along with the reciprocating motion of the grinding block, the probiotics automatically slide to a screen to be screened, so that the probiotic electuary is obtained. The processing device comprises an arc-shaped bottom plate with a screen arranged in the center, side plates are fixed to the two sides of the arc-shaped bottom plate, a plurality of blades are fixed to the two ends of the arc-shaped bottom plate, a grinding block is arranged on the inner wall of the arc-shaped bottom plate in a reciprocating sliding mode, chamfers are arranged at the two ends of the lower end face of the grinding block, and planes matched with the blades are arranged at the two ends of the grinding block and used for pushing fungus blocks to be cut up by the blades. Through the processing device, probiotic blocks can be cut, crushed and ground, and the processing efficiency is improved.

Description

Technical Field

[0001] The invention relates to the field of probiotics, in particular to a probiotic granule and a processing method thereof. Background Art

[0002] Probiotic granules can improve the internal environment, enhance the baby's own resistance, and comprehensively improve the intelligence IQ and love EQ index. At the same time, it can reduce the incidence of intestinal diseases, reduce secondary bacterial infections, and make intestinal diseases easier to control after they occur. When processing and producing probiotic granules, the concentrated probiotic liquid is generally freeze-dried to obtain probiotic blocks, and then the probiotic blocks are crushed and ground to obtain probiotic powder granules.

[0003] However, most of the existing grinding devices used in the processing of probiotic granules only have a grinding function and cannot break up the probiotic blocks, thus affecting the processing efficiency. Summary of the invention

[0004] The purpose of the present invention is to provide a probiotic granule processing method, which can cut, crush and grind probiotic blocks through a processing device to improve processing efficiency.

[0005] The purpose of the present invention is achieved through the following technical solutions:

[0006] A probiotic granule processing device comprises an arc bottom plate with a screen at the center, side plates are fixed on both sides of the arc bottom plate, multiple blades are fixed on both ends of the arc bottom plate, a grinding block is reciprocatingly slid on the inner wall of the arc bottom plate, both ends of the lower end surface of the grinding block are chamfered, and both ends of the grinding block are provided with planes that cooperate with the blades to push the bacteria blocks to be chopped by the blades.

[0007] A power shaft coaxial with the arc bottom plate rotates between the two side plates, a fork frame is fixed on the power shaft, a gate-shaped seat is limited in the fork frame, and the lower end of the gate-shaped seat is fixedly connected with the grinding block.

[0008] An adjusting screw is rotated in the fork frame, and the adjusting screw is threadedly connected with the gate-shaped seat.

[0009] Two limit columns are fixed on the grinding block, and end plates are slid on the two limit columns. The two end plates are fitted on the two ends of the grinding block, and the lower ends of the two end plates are provided with sweeping brushes, and the inner sides of the two side plates are provided with bosses. Springs I are provided between the grinding block and the end plates to make the upper ends of the end plates press against the edges of the bosses.

[0010] Both ends of the end plate are provided with cylindrical blocks.

[0011] The two ends of the two side plates are provided with mounting frames for limited lifting and sliding at the corresponding blades, and a spring II is provided between the mounting frames and the side plates. The lower ends of the two mounting frames are provided with a plurality of paddles for limited sliding, each paddle is located between the corresponding two blades, and a spring III is provided between each paddle and the mounting frame.

[0012] A transverse axis is arranged at the upper end of the mounting frame, and two supporting arm plates are symmetrically arranged on the fork frame.

[0013] A centralizing frame is fixed at the lower end of the screen corresponding to the arc bottom plate, a pointed block is limitedly slid in the centralizing frame, a crankshaft is rotated at the lower end of the centralizing frame, and a linkage plate is rotated between the crankshaft and the centralizing frame.

[0014] A processing method using the probiotics granule processing device comprises:

[0015] S1. Place the dried probiotic blocks on the arc bottom plate;

[0016] S2, the transmission grinding block slides back and forth in the arc bottom plate, thereby first pushing the probiotic block to the blade and chopping it into small pieces;

[0017] S3, small pieces of probiotics will be ground between the grinding block and the arc bottom plate by the reciprocating grinding block;

[0018] S4. As the grinding block moves back and forth, the probiotics will automatically slide to the screen for screening, thereby obtaining a probiotic powder.

[0019] A probiotic granule is prepared by using the processing method. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a structural schematic diagram of a probiotics granule processing device;

[0021] Figure 2 It is a schematic diagram of the cross-sectional structure of a probiotics granule processing device;

[0022] Figure 3 and Figure 4 It is a structural diagram of the arc bottom plate and the side plate;

[0023] Figure 5 It is a schematic diagram of the structure of the power shaft, the gate seat and the grinding block;

[0024] Figure 6 It is a schematic diagram of the structure of the grinding block, the end plate and the sweeping brush;

[0025] Figure 7 and Figure 8 It is a schematic diagram of the mounting frame and the dial plate structure;

[0026] Fig. 9 It is a schematic diagram of the structure of the pointed block.

[0027] In the figure:

[0028] Arc bottom plate 101; side plate 102; screen 103; central frame 104; boss 105; blade 106;

[0029] Power shaft 201; fork frame 202; adjusting screw 203; gate seat 204; grinding block 205; limiting column 206; support arm plate 207;

[0030] End plate 301; sweep brush 302; spring I 303; cylindrical block 304;

[0031] Mounting frame 401; spring II 402; horizontal axis 403; dial plate 404; spring III 405;

[0032] Pointed block 501; crankshaft 502; linkage plate 503. DETAILED DESCRIPTION

[0033] like Figure 1-9 As shown, the probiotics granule processing device is described in detail:

[0034] A probiotic granule processing device comprises an arc bottom plate 101 with a screen 103 in the center, side plates 102 are fixed on both sides of the arc bottom plate 101, multiple blades 106 are fixed on both ends of the arc bottom plate 101, a grinding block 205 is reciprocatingly slid on the inner wall of the arc bottom plate 101, both ends of the lower end surface of the grinding block 205 are chamfered, and both ends of the grinding block 205 are provided with planes that cooperate with the blades 106 to push the bacteria blocks to be chopped by the blades 106.

[0035] When in use, the probiotic block is placed on the arc bottom plate 101 between the two side plates 102; then the transmission grinding block 205 slides back and forth in the arc bottom plate 101, and the two ends of the reciprocating grinding block 205 will push the probiotic block to move toward the blade 106, and when it contacts the blade 106, it is cut into small pieces. When the grinding block 205 is separated from the blade 106, the chopped small probiotic pieces will automatically slide down to the screen 103 under the influence of the arc surface of the arc bottom plate 101;

[0036] As the grinding block 205 moves back and forth, the volume of the probiotic block is gradually cut into smaller pieces until it can be ground between the grinding block 205 and the arc bottom plate 101 by the grinding block 205. After the ground probiotic powder is separated from the grinding block 205, it will also automatically slide down to the screen 103 under the influence of the arc surface of the arc bottom plate 101, thereby forming the screen 103 to screen the probiotic powder. Qualified probiotic powder will pass through the mesh of the screen 103 and fall down, and be impacted by the probiotic powder. Unqualified probiotic powder will continue to stay in the arc bottom plate 101 and continue to be ground until it is qualified.

[0037] Therefore, when the grinding block 205 moves back and forth in the arc bottom plate 101, the probiotic blocks between the two are ground, and at the same time, the large probiotic blocks are pushed and cut, thereby improving the grinding efficiency.

[0038] Further:

[0039] A power shaft 201 coaxial with the arc bottom plate 101 rotates between the two side plates 102 , a fork frame 202 is fixed on the power shaft 201 , a gate-shaped seat 204 is limited inside the fork frame 202 , and the lower end of the gate-shaped seat 204 is fixedly connected to the grinding block 205 .

[0040] By installing a first motor on one of the side plates 102, the power shaft 201 is reciprocated, so that the power shaft 201 drives the fork frame 202 to swing back and forth, and then drives the grinding block 205 to move back and forth through the gate seat 204, so as to achieve the purpose of grinding;

[0041] Further:

[0042] An adjusting screw 203 is rotated inside the fork frame 202 , and the adjusting screw 203 is threadedly connected to the gate-shaped seat 204 .

[0043] By rotating the adjusting screw 203, the gate seat 204 can be adjusted to slide in the fork frame 202, and then the grinding block 205 can be driven to move along the fork frame 202, so as to adjust the gap between the grinding block 205 and the arc bottom plate 101, and the screen 103 with appropriate mesh size can be replaced to form grinding processing for different particle sizes.

[0044] like Figure 1-9 As shown:

[0045] Two limiting posts 206 are fixed on the grinding block 205, and end plates 301 are slidably arranged on the two limiting posts 206. The two end plates 301 are fitted at both ends of the grinding block 205, and a sweeping brush 302 is arranged at the lower end of the two end plates 301. Bosses 105 are arranged on the inner side surfaces of the two side plates 102. Springs I 303 are arranged between the grinding block 205 and the end plates 301, so that the upper end of the end plate 301 is pressed against the edge of the boss 105.

[0046] Since the edge of the boss 105 is in an inverted trapezoidal shape, as the grinding block 205 moves to the screen 103, the end plate 301 located at the front end of the moving direction of the grinding block 205 will be guided by the edge of the boss 105, overcome the elastic force of the spring I 303 and slide down, so that the sweeping brush 302 at the lower end of the end plate 301 first contacts the inner wall of the arc bottom plate 101, and then when the grinding block 205 moves to the screen 103, the sweeping brush 302 is first used to clean the probiotic blocks on the screen 103, so as to avoid the grinding block 205 from squeezing and grinding the probiotic blocks on the screen 103, causing damage to the screen 103;

[0047] At the same time, after the end plate 301 at the front end of the grinding block 205 slides over the screen 103, the end plate 301 is gradually moved upward by the elastic force of the spring I 303, so that the end surface of the grinding block 205 is exposed, thereby avoiding damage to the sweeping brush 302 when the end surface of the grinding block 205 pushes the probiotic block to contact the blade 106;

[0048] Moreover, by cleaning the upper end surface of the screen 103 with the sweeping brush 302, the upper end of the screen 103 can be kept clean, so that when the probiotic blocks on the other side slide down to the screen 103, the probiotic blocks can be efficiently screened.

[0049] Further:

[0050] By providing cylindrical blocks 304 at both ends of the end plate 301 , the end plate 301 can slide on the edge of the boss 105 through the cylindrical blocks 304 , thereby ensuring the smooth lifting of the end plate 301 .

[0051] like Figure 1-9 As shown:

[0052] At both ends of the two side panels 102 corresponding to the blades 106, there are mounting frames 401 for limiting lifting and sliding, and a spring II 402 is provided between the mounting frames 401 and the side panels 102. The lower ends of the two mounting frames 401 are each provided with a plurality of shifting plates 404 for limiting sliding, each shifting plate 404 is located between the corresponding two blades 106, and a spring III 405 is provided between each shifting plate 404 and the mounting frame 401.

[0053] In order to prevent the small pieces of probiotics from being stuck in the gap between the two blades 106 when the grinding block 205 pushes the probiotic block for cutting, thereby affecting the cutting and grinding of the probiotic block, a mounting frame 401 is provided. The mounting frame 401 overcomes the elastic force of the spring II 402 and moves downward on the side plate 102, which will drive the paddle plate 404 to move downward between the two blades 106 and press against the inner wall of the arc bottom plate 101. At the same time, as the mounting frame 401 continues to move downward, the paddle plate 404 will overcome the elastic force of the spring III 405 and move along the inner wall of the arc bottom plate 101 toward the grinding block 205, so as to slide out from between the two blades 106 near the grinding block 205, thereby pushing out the probiotic block between the two blades 106, so that the probiotic block slides down along the inner wall of the arc bottom plate 101 to the screen 103 for screening;

[0054] When the control mounting frame 401 moves upward, the elastic force of the spring III 405 will push the paddle 404 to slide back between the two blades 106, and the mounting frame 401 is limited by the sliding column on the side plate 102 and slides to the uppermost end for the next downward movement.

[0055] Further:

[0056] A transverse axis 403 is disposed at the upper end of the mounting frame 401 , and two support arm plates 207 are symmetrically disposed on the fork frame 202 .

[0057] The power shaft 201 drives the fork frame 202 to swing back and forth, and then drives the two support arm plates 207 to swing back and forth, so that when the support arm plate 207 descends, the horizontal axis 403 is pushed to drive the mounting frame 401 to move downward. Moreover, when the descending support arm plate 207 pushes the mounting frame 401 to move downward, the grinding block 205 just moves to the other direction, which does not affect the screening of the probiotic block pushed out by the paddle 404.

[0058] Further:

[0059] A centralizing frame 104 is fixed to the lower end of the screen 103 corresponding to the arc bottom plate 101 , a pointed block 501 is limitedly slid in the centralizing frame 104 , a crankshaft 502 is rotated at the lower end of the centralizing frame 104 , and a linkage plate 503 is rotated between the crankshaft 502 and the centralizing frame 104 .

[0060] The crankshaft 502 is driven by a second motor installed on the side of the central frame 104, so that the pointed block 501 is driven to rise and fall reciprocatingly in the central frame 104 through the linkage plate 503. When the pointed block 501 rises, the air between the pointed block 501 and the screen 103 is compressed, so that the air is ejected from the mesh of the screen 103, thereby blowing out the probiotic blocks trapped in the mesh of the screen 103, thereby ensuring the screening effect of the screen 103;

[0061] When the pointed block 501 descends, the pointed block 501 will draw the air above the screen 103 to enter through the mesh holes, thereby improving the perforation efficiency of the qualified probiotic powder.

[0062] like Figure 1-9 As shown:

[0063] A processing method using the probiotics granule processing device comprises:

[0064] S1, placing the dried probiotic blocks on the arc bottom plate 101;

[0065] S2, the transmission grinding block 205 slides back and forth in the arc bottom plate 101, thereby first pushing the probiotic block to the blade 106 and chopping it into small pieces;

[0066] S3, the small pieces of probiotics will be ground between the grinding block 205 and the arc bottom plate 101 by the reciprocating grinding block 205;

[0067] S4. As the grinding block 205 moves back and forth, the probiotics will automatically slide to the screen 103 for screening, thereby obtaining a probiotic granule.

[0068] Further:

[0069] A probiotic granule is prepared by using the processing method.

Claims

1. A probiotic granule processing device, characterized in that: The invention comprises an arc bottom plate (101) with a screen (103) at the center, side plates (102) are fixed on both sides of the arc bottom plate (101), a plurality of blades (106) are fixed on both ends of the arc bottom plate (101), a grinding block (205) is reciprocatingly slid on the inner wall of the arc bottom plate (101), both ends of the lower end surface of the grinding block (205) are chamfered, and both ends of the grinding block (205) are provided with planes that cooperate with the blades (106) and are used to push the mushroom blocks to be chopped by the blades (106).

2. A probiotics granule processing device according to claim 1, characterized in that: A power shaft (201) coaxial with the arc bottom plate (101) rotates between the two side plates (102), a fork frame (202) is fixed on the power shaft (201), a gate-shaped seat (204) is limited in position inside the fork frame (202), and the lower end of the gate-shaped seat (204) is fixedly connected to the grinding block (205).

3. A probiotics granule processing device according to claim 2, characterized in that: An adjusting screw rod (203) is rotatably arranged inside the fork frame (202), and the adjusting screw rod (203) is threadedly connected to the gate-shaped seat (204).

4. A probiotics granule processing device according to claim 2, characterized in that: Two limiting columns (206) are fixed on the grinding block (205), and end plates (301) are slidably mounted on the two limiting columns (206). The two end plates (301) are fitted on the two ends of the grinding block (205), and the lower ends of the two end plates (301) are provided with sweeping brushes (302). The inner sides of the two side plates (102) are provided with bosses (105). Springs I (303) are provided between the grinding block (205) and the end plates (301) so that the upper ends of the end plates (301) are pressed against the edges of the bosses (105).

5. A probiotics granule processing device according to claim 4, characterized in that: Both ends of the end plate (301) are provided with cylindrical blocks (304).

6. A probiotics granule processing device according to claim 2, characterized in that: Mounting frames (401) are provided at both ends of the two side plates (102) corresponding to the blades (106) for limited lifting and sliding, and a spring II (402) is provided between the mounting frame (401) and the side plates (102). A plurality of shifting plates (404) are provided at the lower ends of the two mounting frames (401) for limited sliding, each shifting plate (404) is located between the corresponding two blades (106), and a spring III (405) is provided between each shifting plate (404) and the mounting frame (401).

7. A probiotics granule processing device according to claim 6, characterized in that: A transverse axis (403) is provided at the upper end of the mounting frame (401), and two support arm plates (207) are symmetrically provided on the fork frame (202).

8. The probiotics granule processing device according to claim 1, characterized in that: A centralizing frame (104) is fixed to the lower end of the screen (103) corresponding to the arc bottom plate (101), a pointed block (501) is limitedly slidable in the centralizing frame (104), a crankshaft (502) is rotatable at the lower end of the centralizing frame (104), and a linkage plate (503) is rotatable between the crankshaft (502) and the centralizing frame (104).

9. A processing method using a probiotic granule processing device according to any one of claims 1 to 8, characterized in that: include S1, placing the dried probiotic block on the arc bottom plate (101); S2, the transmission grinding block (205) slides back and forth in the arc bottom plate (101), thereby first pushing the probiotic block to the blade (106) to be chopped into small pieces; S3, the small pieces of probiotics will be ground between the grinding block (205) and the arc bottom plate (101) by the reciprocating grinding block (205); S4. As the grinding block (205) moves back and forth, the probiotics will automatically slide to the screen (103) for screening, thereby obtaining a probiotic granule.

10. A probiotic granule, characterized in that: It is prepared by the processing method according to claim 9.

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