TWI380887B - Continuous Slicer - Google Patents

Description

Serial slicer

The invention relates to a seed slicing mechanism for plants, in particular to a serial slicer capable of automatically performing a fine slicing action.

According to this, resveratrol (trihydroxystilbene) is widely present in plants and is currently found in at least 72 plants. It is often found in grape skin, peanuts and Chinese medicine tiger clam. Its chemical properties are hardly soluble in water and soluble in ethanol, ethyl acetate and acetone. Resveratrol has many biological activities, including: anti-oxidation, anti-bacterial, anti-inflammatory, prevention of atherosclerosis, prevention of cardiovascular disease, regulation of vascular smooth muscle cell adhesion and proliferation, and blood vessels Diastolic, in the prevention of cardiovascular disease, resveratrol can more effectively scavenge free radicals, reduce oxidative stress, protect arterial blood vessels and reduce thrombosis to reduce the risk of cancer, and has the effect of effectively alleviating symptoms such as hypertension.

When the groundnut is cultivated and refining resveratrol, it needs to be cultured at a fixed time and then cultured for a suitable period of time, and then the seed is sliced and dried to extract the active ingredient. When the present embodiment is held by a person slicing knife, slicing operation on the cleaning sheet to groundnut seeds soaked 700g weight, the person often requires 8 ^to 10, in order to complete in 90 minutes, but during slicing operation It is often difficult to control because of too many people's hands. It is also very time-consuming; and the slicing machinery in the workshop can't achieve the fine slice effect, so it often causes internal tissue damage and changes the original physiological and biochemical characteristics, and then affects its subsequent active ingredients. The amount of extraction.

Therefore, how to improve the above problems is the primary problem to be solved by the present invention. Therefore, the inventor of the present invention finally has the present invention after continually thinking and trying.

One of the objects of the present invention is to provide a continuous slicer which has the effect of replacing manual slicing, thereby saving labor costs and effectively reducing work time and greatly improving work efficiency.

The second object of the present invention is to provide a continuous slicer which has the effect of making the slice thickness relatively uniform and flat.

In order to achieve the foregoing objective, the present invention provides a serial slicer comprising: a machine table; an entire row of rotary disks disposed on the machine table, the whole column of the rotary disk being driven by a power source for one point a rotation action of the rotation, and a plurality of equidistantly disposed holes passing through the upper and lower end faces of the entire column of the rotary disk are arranged on the ring of the entire rotary disk, and a clamping member is respectively disposed in each of the set holes, the clamping The top of the piece is provided with a feeding port for accommodating a predetermined material, and the bottom of the clamping member is downwardly contracted to form at least two oppositely disposed clips, and the clips are for the relative clamping. a material feeding side of the clamping member; a pressure feeding mechanism is disposed above the whole column of the rotating disk, and the pressure feeding mechanism can extend downwardly into the feeding port of the at least one clamping member, and is located in the clamping port The material in the holding part is pushed by a pushing force, and the material is gradually sent out from the bottom of the holding part; all the cutter heads are arranged on the machine table, and part of the circumferential surface of the cutting knife disk is cut on the machine Between the table and the column of rotating disks, and corresponding to the pressure feeding mechanism Holder lower position, the cutter disk drive system by another power source to perform a rotating operation to be affected by the pressure feed means for progressively pushing operation performed by the continuous feeding of the sections of the bottom of the holder material.

The above objects and advantages of the present invention will be readily understood from the following detailed description of the embodiments of the invention.

Of course, the present invention may be different in some of the components, or the arrangement of the components, but the selected embodiments are described in detail in the present specification.

Referring to FIG. 1 to FIG. 5, the present invention provides a continuous slicer, which is mainly composed of a machine table 11, an entire row of rotary disks 21, a pressure feeding mechanism 31 and all cutter heads 41. The entire row of the rotary disk 21 is disposed on the machine table 11, and the entire column of the rotary disk 21 is driven by a power source 22 to perform an indexing rotation operation. In this embodiment, the entire column is used to drive the entire column. The power source 22 of the return disk 21 is a driving motor, and the driving motor drives the whole rotating disk 21 to perform indexing rotation by a cam device 23, and a plurality of equidistant settings are arranged on the column of the rotating disk 21. And a plurality of holes 24 are formed in the upper and lower end faces of the entire row of the rotary disks 21, and a clamping member 25 is respectively disposed in each of the plurality of sets of holes 24. The top of the clamping member 25 is provided with a predetermined material w. The inlet 251, and the bottom of the clamping member 25 is formed downwardly and formed with at least two oppositely disposed clips 252. In the embodiment, four clips 252 are formed at the bottom of the clamping member 25. And the clips 252 are disposed opposite to each other, and can be located opposite to the clamping member. 25 material side w side.

The pressure feed mechanism 31 is disposed above the entire rotary disk 21, and the pressure feed mechanism 31 is disposed vertically opposite to the clamp member 25 on the side of the entire rotary disk 21, and the pressure feed mechanism 31 can be subjected to The air pressure is driven to perform a reciprocating pressure feeding operation on the material w in the clamping member 25, and the timing of the operation of the pressure feeding mechanism 31 is also controlled by the cam device 23, which is in the embodiment. A control valve group 26 is provided on the side of the cam device 23 for relatively controlling the operation of the pressure feed mechanism 31, and when the cam device 23 is operated to a predetermined position, the control valve group 26 is relatively triggered and the pressure is sent. The mechanism 31 starts to operate, for example, when the cam device 23 starts to rotate from 0° to 120°, so that the entire rotary disk 21 starts to rotate, and when the cam device 23 rotates to 130°, the pressure feeding mechanism 31 starts to The pressure feeding operation is performed in the direction of the holding member 25, and when the cam device 23 is rotated to 320°, the pressure feeding mechanism 31 is started to be reset, and the above-described flow is continuously repeated to form a continuous automatic slicing operation.

The pressure feeding mechanism 31 has a first pressure feeding rod group 32 and a second pressure feeding rod group 33, wherein the pressure feeding end point of the first pressure feeding rod group 32 is located in the clamping member 25 The opening of the opening 251 (as shown in Fig. 4), and the end of the pressing of the second pressure feeding rod set 33 is located near the outlet of the clip 252 of the clamping member 25 (as shown in Fig. 5). And the material w in the clamping member 25 is first pressed by the first pressure feeding rod group 32, and the effect of flattening and aligning the material w can be achieved, and then the clamping member 25 is followed by the entire rotating plate. 21 is rotated to a position opposite to the lower portion of the second pressure feed bar group 33 so that the material w can continue to be pushed by the second pressure feed bar group 33, and is gradually sent out from the outlet of the clamp piece 252 of the clamp member 25. When the material w is pushed and moved by the second press-fitting rod 33, the clip 252 at the bottom of the holding member 25 continues to exert a clamping action on the circumferential side of the material w.

The cutter head 41 is disposed on the machine table 11. A part of the circumferential surface of the cutter head 41 is cut between the machine table 11 and the entire rotary disk 21, and is located in the same manner as the pressure feed mechanism 31. Corresponding to the position below the holding member 25, the cutter head 41 is driven by another power source 46 to perform a rotating motion, and thereby the pushing member 21 can be pushed by the pressing member 31 to gradually pass the holding member 21. The material w sent from the bottom clip 252 is subjected to a continuous slicing operation; in the embodiment, the peripheral surface of the cutter disc 41 is provided with four sets of blades 42 at intervals, and opposite to the blades 42 of the cutter disc 41. A through hole 43 is defined in the lower position, and a receiving space 44 communicating with the through hole 43 is disposed under the cutting plate 41, and a discharge port communicating with the external space is disposed on the side of the receiving space 44. 45, whereby the material cut by the blades 42 is sliced and concentrated in the accommodating space 44 through the through holes 43, and then discharged outward through the discharge port 45.

Further, a control box 51 is disposed beside the serial slicer, and the control box 51 has a control panel 52 for individually adjusting the rotation speed of the entire rotary disk 21, the cutting speed of the cutter disk 41, and the pressure feeding mechanism 31. The pressure feed rate, and by the cam device 23 to control the operation of the microtome, can achieve the most suitable material slice export volume.

When the continuous slicer of the present invention is actually applied to the groundnut cutting operation, only the water-treated peanut kernels are directly placed in the feeding port 251 of the clamping member 25, after which the peanut kernel is subjected to the The entire row of rotary discs 21 is rotated to rotate to a position opposite to the first pressure feed rod group 32 of the pressure feed mechanism 31. At this time, the peanut kernels are first pressed by the first pressure feed rod group 32 of the pressure feed mechanism 31, and The effect of flattening and correcting can be achieved; then the peanut kernels are rotated with the whole row of rotary discs 21 to the opposite position of the second pressure feed rod group 33, and then the peanut kernels are pushed by the second pressure feed rod group 33. And gradually being sent out from the outlet of the clip 252 of the clamping member 25, and when the peanut kernel is pushed and pushed by the second pressing rod 33, the clip 252 at the bottom of the clamping member 25 is continuously clamped. Holding on the circumferential side of the peanut kernel, when the peanut kernel is sent out from the outlet of the clip 252 of the clamping member 25, the cutting blade 41 is subjected to the slicing action, and the peanut kernel is subjected to the cutter cutter disc 41. During the slicing action, since the top of the peanut kernel is pressed by the second pressure feed rod group 33, the peripheral side of the peanut kernel By the relative clamping of the bottom clip 252 of the clamping member 25, the stability of the peanut kernel during the slicing action can be effectively ensured without being easily shaken, and the flatness of the slice can be effectively improved without causing internal organization. In the end, the material slice after the cutting operation is completed by the cutter head 41 enters the inside of the accommodating space 44 through the through hole 43 located under the blades 42 and is discharged outward from the discharge port 45. . The peanut kernel can be directly sliced without first freezing, and the slice thickness is even and flat, without damaging the tissue, and it is easy to obtain a quick and uniform drying effect, saving time and labor, and meeting the sanitary requirements, and the maximum efficiency can reach 50pc/min. It can effectively reduce labor, reduce work production costs, and enhance product competitiveness.

Furthermore, since the pressure feeding mechanism 31 of the present invention is driven by air pressure, it is more possible to use the same air pressure source to install a plurality of air nozzles (not shown) at predetermined positions on the machine table 11 so as to be able to operate the machine table. 11 The action of jet cleaning is carried out, and since the food slice operation is more hygienic, it is also possible to add oil water and oil mist separator (not shown) to the air pressure source to filter the air to ensure that the gas it outputs is Clean and non-polluting.

As can be seen from the above description, the present invention has the following advantages:

1. The continuous slicer of the present invention can completely replace the manual sectioning, thereby saving labor costs and effectively shortening the working time to greatly improve work efficiency.

2. The present invention can replace the clamping member 25 having different inlet ports 251 according to the requirement of slicing of materials, so as to be applicable to other crops or dried Chinese herbal medicines, and has a wide range of versatility. advantage.

3. In the present invention, four oppositely disposed clips 252 are formed by the bottom portion of the clamp member 25 being downwardly contracted, and the clips 25 can be oppositely clamped to the circumferential side of the material w in the clamp member 25. It can ensure the stability of the material during the slicing action and is not easy to shake, and thus effectively improve the flatness of the slice without causing damage to its internal tissue.

4. The present invention controls the movement of the slicer by separately adjusting the rotation speed of the entire rotary disk 21, the cutting speed of the cutter disk 41, and the pressure feed rate of the pressure feed mechanism 31, and by the cam device 23. , the most suitable material slice export volume can be achieved, so that the slice thickness can be uniform.

5. The material slicing of the present invention after being sliced can be concentrated in the accommodating space 44 through the through holes 43 located under the respective blades 42, and then discharged to the outside through the discharging port 45, thereby collecting materials in a concentrated manner. It is also quite quick and convenient to slice.

The disclosure of the above-described embodiments is intended to be illustrative of the invention, and is not intended to limit the invention.

In summary, the present invention has been described in detail above, and it will be apparent to those skilled in the art that the present invention can achieve the foregoing objects and is in accordance with the provisions of the Patent Law.

11. . . Machine

twenty one. . . Integral rotary disk

twenty two. . . Power source

twenty three. . . Cam device

twenty four. . . Set holes

25. . . Clamping piece

251. . . Inlet

252. . . Clips

26. . . Control valve group

31. . . Pressure feeding mechanism

32. . . First pressure feed rod set

33. . . Second pressure feed rod set

41. . . Cutter

42. . . blade

43. . . Through hole

44. . . Accommodating space

45. . . Outlet

46. . . Another source of power

51. . . control box

52. . . control panel

w. . . materials

Figure 1 is a perspective view of the three-dimensional appearance of the present invention

Figure 2 is a perspective view of a stereoscopic appearance of another perspective of the present invention.

Figure 3 is a partial cross-sectional view of the present invention

Figure 4 is a schematic view showing the state of use of the present invention for displaying the state of the material when it is pressed by the first press-fitting rod set.

Figure 5 is a schematic view showing the state of use of the present invention for displaying the state of the material when it is pushed by the second press-pushing rod group.

11. . . Machine

twenty one. . . Integral rotary disk

twenty four. . . Set holes

25. . . Clamping piece

251. . . Inlet

31. . . Pressure feeding mechanism

32. . . First pressure feed rod set

33. . . Second pressure feed rod set

41. . . Cutter

42. . . blade

45. . . Outlet

51. . . control box

52. . . control panel

Claims (6)

A serial slicer comprising: a machine table; an entire row of rotary disks disposed on the machine table, wherein the entire column of rotary disks is driven by a power source to perform an indexing rotary motion, and the entire rotary disk The upper ring is provided with a plurality of sets of holes arranged equidistantly and extending through the upper and lower end faces of the entire row of rotary disks, and a clamping member is respectively arranged in each of the set holes, and a top part of the clamping member is provided with a predetermined material for receiving a feeding port, and at least two oppositely disposed clips are formed on the bottom of the clamping member, and the clips are for clamping the material side of the material in the clamping member; a pressure feeding mechanism is disposed above the whole row of rotating disks, and the pressure feeding mechanism can extend downwardly into the feeding opening of the at least one clamping member, and pushes a material in the clamping member , the material is gradually sent out from the bottom of the clamping member; all the cutter discs are disposed on the machine table, and a part of the circumferential surface of the cutter cutter disc is cut between the machine table and the entire rotary disc, and Located at a position below the clamping member corresponding to the pressure feeding mechanism, the cutter cutter is borrowed A driving power source to perform a rotation operation, so as to be affected by the pressure feed means for progressively pushing operation performed by the continuous feeding of the sections of the bottom of the holder material. The serial slicer of claim 1, wherein the power source for driving the entire rotary disk is a drive motor, and the drive motor is driven by a cam device to drive the entire rotary disk for indexing. Rotating, and the pressure feeding mechanism is also controlled by the cam device. The cam device is provided with a control valve group that can relatively control the operation of the pressure feeding mechanism, and the cam device is relatively operated when it is operated to a predetermined position. The control valve group is triggered and the pressure feed mechanism is activated. The serial slicer of claim 2, wherein the pressure feed mechanism is driven by air pressure to perform a reciprocating pressure feed operation on the material in the clamp member downward. According to the serial slicer of claim 3, wherein the pressure feeding mechanism has a first pressure feed rod group and a second pressure feed rod group, and the pressure feed end point of the first pressure feed rod group Is located at the opening of the feeding port of the clamping member, and the end point of the pressing of the second pressure feeding rod group is located near the outlet of the clip of the clamping member, and the material in the clamping member is firstly received Pressing the first pressure feed rod group, and then the clamp member rotates with the entire train rotary disc to a position opposite to the second pressure feed rod group, so that the material can continue to be pushed by the second pressure feed rod group Squeezing, and gradually being sent out by the clip outlet of the clamping member, and when the material is pushed and pushed by the second pressing rod group, the clip at the bottom of the clamping member continuously produces a clip on the circumferential side of the material. Hold the role. The continuous slicer according to the first aspect of the invention, wherein the cutter plate is provided with four sets of blades at intervals on the circumferential surface thereof, and a through hole is respectively formed at a position opposite to each of the blades of the cutter plate. A receiving space communicating with the through holes is disposed under the cutter disc, and a discharge opening communicating with the external space is disposed on a side of the receiving space. The serial slicer of claim 1, wherein a control box is further disposed on the side of the serial slicer, the control box has a control panel for individually adjusting the rotation speed of the whole column of the rotary disk, the cutter The cutting speed of the disc and the pressure feed rate of the pressure feeding mechanism are used to control the most suitable material slicing output.