KR101611247B1 - Green juice product equipment and green juice product method with that equipment - Google Patents

Abstract

The present invention relates to an apparatus for manufacturing green vegetable juice having high production efficiency by enabling hygienic production, productivity improvement, and mass production; and to a manufacturing method of green vegetable juice using the same. Therefore, the method for manufacturing green vegetable juice comprises a bubble and vortex washing process (S1); a cutting process (S2); a grinding process (S3); a juicing process (S4); a primary liquid-phase separation process (S5); a secondary liquid-phase separation process (S6); an instant sterilization process (S7); a packing process (S8); a low-temperature sterilization process (S9); and a moisture removal process (S10). The apparatus for manufacturing green vegetable juice comprises a bubble and vortex washing means (10); a cutting means (20); a grinding means (30); a juicing means (40); a vibration separating means (50); a filter separating means (60); a high-temperature sterilizing means (70); and a low-temperature sterilizing means (80).

Description

Technical Field [0001] The present invention relates to a green juice production apparatus and a green juice production method using the same,

The present invention relates to a green juice manufacturing apparatus and a manufacturing method thereof, and more particularly, to an improved green juice manufacturing apparatus and a method of manufacturing green juice using the same.

It is generally well known to obtain juices (juices) from leaf stems in general.

In addition, the green juice production is classified into a household production apparatus (mixer) and a mass production production apparatus, but the present invention relates to a manufacturing apparatus and method for mass production.

However, most of the products for mass production have semi-automatic production system, so hygienic production is very difficult and there is a problem that the price of green juice is increased because mass production and quick production are not possible.

KR 10-2011-0106387 A Nov. 29, 2001 KR 20-2012-0005755 U Aug 17, 2012

In the prior art described in the patent documents of the prior art documents, treatment methods such as washing, juicing, filling, sterilization and packaging are carried out, but most of them are processed very simply. Therefore, the efficiency of green juice treatment is lowered, There is a problem of falling.

Accordingly, it is an object of the present invention to provide a green juice production apparatus and a manufacturing method using the green juice production apparatus with improved efficiency of green juice treatment and high production efficiency, so that green juice can be produced quickly, and hygienic and mass production can be promoted.

The present invention relates to a washing machine comprising bubble vortex washing means for generating air bubbles and vortices by providing a plurality of air nozzles for spraying air in an oblique direction on both sides of a washing chamber in which wash water is introduced, A trimming means formed by a feed passage and a cutter rotated by a motor power in front of the feed passage and slicing the leaf trunk and a hopper provided below the hopper into which the truncated leaf trunk is inserted, A grinding means having a hole plate having a plurality of through holes through which leaf stems pass, and a rotary cutter for cutting the leaf stems passing through the through holes to make them into ground particles;

Wherein the pulverized particles are conveyed by a screw rotated by motor power, and the juice is discharged to a cylindrical perforated net provided in the outer peripheral edge of the tapered screw part, and the sludge is discharged to one side of the cylindrical perforated network; A lower screen provided below the upper screen for secondary filtration to separate the liquid juice and fine sludge from each other and a sludge outlet provided at one side of the upper and lower screens, A vibration filtration filter provided in the center of the standing container to filter the liquid juice into the inner cavity; and a mesh filtration filter disposed in the center of the standing container to filter the liquid juice into the inner cavity, A squeezer provided at one side of the lower portion of the infusion chamber, A sterilizing feed pipe for forcibly feeding the liquid juice through a pump; a cooling feed pipe extending from the sterilization feed pipe; and a sterilizing feed pipe embedded in the sterilization feed pipe, A high temperature sterilizing chamber in which hot water at a high temperature is circulated, a high temperature sterilizing means having a cooling chamber in which the cooling conveyance pipe is embedded so as to be flooded, and a cold water is circulated, and a packed container containing the pouch pack Sterilization means having a hot water room where the downward lift is moved in the vertical direction, a cold room provided at one side of the hot room, and a lifting and lowering lift mounted on the packaging container containing the pouch pack in the cold room and moved up and down Wherein the green juice production apparatus comprises:

The cutter has a sickle shape, and one end of the cutter is connected to the motor shaft and rotated.

The hole plate is fixed to the base and the rotary cutter is fixed to the cutter shaft and rotated by a motor that transmits power to the cutter shaft.

And a plurality of inclined discharge guide members are provided on the inner circumferential surface of the cylindrical perforation network of the pouring means so that the sludge is moved along the inclined discharge guide member in the discharge port direction and discharged.

And a circular cleaning nozzle having a plurality of nozzle holes at the center of an upper portion of the mesh filtration filter of the filter separating means so that the washing water is sprayed onto the mesh filtering filter.

And a conveyor on which the packed packing container containing the pouch pack is mounted.

The present invention relates to a bubble cleaning apparatus for cleaning a bubble vortex washing means by bubbles and vortices generated by air ejected from a plurality of air nozzles on both sides of a washing chamber, A second step of cleaning the bubble vortex of the first process so that the leaf stem is passed through the feeding passage of the separating means and the cutter rotating by motor power in front of the feeding passage, A grinding process of a third process in which the fine particles are cut by a rotary cutter while being passed through a hole plate hole of the grinding means so as to be ground to a size of 1-3 mm; The moving path between the tapered screw portion and the cylindrical perforated network at the outer periphery of the tapered screw portion is narrowed, And the sludge is moved along the inclined discharge guide member provided on the inner peripheral surface of the cylindrical perforated mesh to be discharged in the direction of the discharge port to be discharged and the juice is discharged to the vibration generator of the vibration separating means And then filtered through a lower screen of 250-400 mesh to separate the liquid juice and the fine sludge. In the fifth step of the fifth process, the liquid phase juice is firstly filtered, The liquid juice is introduced into the inlet chamber of the filter separating means and is passed through a mesh filtration filter of 500-1350 mesh so that fine sludge remains in the inlet chamber outside the mesh filtration filter and the liquid juice A second liquid phase separation process of the sixth process in which the liquid juice is passed through a pump of the pasteurization means A sterilization process of the seventh process in which hot water at a temperature of 100 ° C is firstly passed through the process of being forcedly transferred by the uniformly moving transfer pipe and the transfer pipe for sterilization and the transfer pipe for cooling are extended to be cooled by passing through cold water, A second step of packing the liquid juice into a pouch pack; and a step of placing the packaging container packed with the pouch pack in a hot bath of the pasteurization unit so as to be firstly sterilized by hot water, The pasteurization process of the ninth process for allowing the pouch pack to be cooled by being immersed in cold water and the water removal process of the tenth process for removing the water remaining in the outside by spraying the compressed air in the course of being transported by the conveyor The present invention also provides a method of manufacturing green juice comprising the steps of:

The pouch packed in the pasteurization process is sterilized at 75-90 ° C for 25-30 minutes and cooled at 2-5 ° C for 15-20 minutes in cold water.

The present invention provides an apparatus and a method for manufacturing a green juice in which the green juice is automatically produced.

In addition, since the present invention is manufactured automatically, it is not only hygienically manufacturable, but also can be manufactured quickly, so that productivity can be improved.

Therefore, since the present invention can be rapidly mass-produced, it is possible to provide a hygienic product at a lower cost.

FIG. 1 is a process diagram illustrating a green juice manufacturing method according to the present invention.
FIG. 2 is a general view showing a bubble eddy cleaning means and a trimming means according to the present invention;
FIG. 3 is an overall configuration diagram of the bubble eddy cleaning means of the present invention,
4 is a cross-sectional side view illustrating the operation of the bubble eddy cleaning means of the present invention,
Fig. 5 is a sectional view taken along the line X-X 'in Fig. 1 illustrating the cutting action of the trimming means of the present invention,
Fig. 6 (a) is a structural view of the grinding means of the present invention, Fig. 6 (b)
Fig. 7 is an overall configuration diagram of a juicing means of the present invention;
Fig. 8 (a) is a perspective view of a perforated mesh of the present invention, Fig. 8 (b) is a cross-
Fig. 9 is an overall configuration diagram of vibration isolation means according to the present invention;
Fig. 10 is an overall configuration diagram of the filter separating means according to the present invention,
Fig. 11 is an overall configuration diagram of the pasteurization means according to the present invention,
12 is an overall configuration diagram of the pasteurization means according to the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS The present invention will be described in more detail with reference to the accompanying drawings.

Referring to FIG. 1, the bubble vortex cleaning process S1 of the first process is performed. The process is performed by the bubble vortex cleaning device 10 shown in FIG.

2, the bubble eddy cleaning means 10 includes a plurality of air nozzles 12 for spraying air in the oblique direction on both sides of the inside of the cleaning chamber 11 having the cleaning water W into which the stem is inserted Bubbles and vortices are generated.

Reference numeral 12 denotes an air chamber in which the compressed air supplied from the compressor 14 is injected and distributed to the respective air nozzles 12, and reference symbol C denotes a conveying conveyor.

Therefore, as shown in FIG. 3, the air ejected from the plurality of air nozzles 12 is ejected obliquely in the direction opposite to the direction in which the leaf stems are inserted.

As shown in FIG. 4, since the air nozzles 12 on both sides of the air nozzle 12 are inclined downward, air is sprayed, and the air is vigorously hit against the washing water W, .

Therefore, since the leaf stem is swirled by the vortex, it is not only cleaned but also the bubble strikes the leaf stem, so that the foreign matter is washed away.

Therefore, the bubble vortex washing process S1 of the first process is a process in which the leaf stems to be introduced into the washing chamber 11 in which the washing water W of the bubble eddy washing means 10 is present, And is cleaned by bubbles and vortices generated by the air injected from the nozzles 12.

Next, according to the present invention, the trimming process (S2) of the second process is performed, and this process is performed using the trimming device 20 as shown in FIG. 2 and FIG.

The trimming means 20 comprises a feeding passage 21 into which a leaf stem is inserted and a cutter 23 which is rotated by the motor 22 in front of the feeding passage 21 to cut the leaf stem.

The cutter 23 has a sickle shape as shown in FIG. 5, and one end portion 23a is connected to the motor shaft 24 so as to be rotated.

Therefore, when the cutter 23 passes through the feed passage 21 into which the leaf stem is inserted, the cutter 23 is rotated to cut the leaf stem to make the seed grain.

Therefore, the trimming process S2 of the second process is performed in such a manner that the leaf stem is passed through the feed passage 21 of the trimming means 20 and the cutter 23 is rotated in the front of the feed passage 21 by the motor 22 So as to be finely divided into a size of 30 to 50 mm.

Next, the present invention is a grinding process (S3) carried out as a third process, which is carried out by using the grinding means (30) as shown in Fig.

The crushing means 30 includes a hole plate 35 having a plurality of through holes 34 through which fine particles are transferred by a screw 33 rotated by a motor 32, And a rotary cutter 36 for cutting the passing fine particles.

As shown in FIG. 6 (b), a set of the hole plate 35 and the rotary cutter 36 having a plurality of through holes 34 is set as shown in FIG. 6 (a) So that it can be cut by the rotary cutter 36 at a plurality of times.

Therefore, the hole plate 35 is fixed to a base (not shown), and the rotary cutter 36 is fixed to the cutter shaft 38 and is rotated by a motor 37 that transmits power to the cutter shaft 38 .

Therefore, the fine particles injected into the hopper 31 are pressed by the screw 33, so they are pushed by the passage holes 34 of the hole plate 35, Is cut by the rotary cutter 36 and is pulverized. It is preferable that the pulverized particles to be cut as described above are pulverized to have a diameter of 1 to 3 mm.

Therefore, the pulverization process (S3) of the third process is performed by passing the pulverized particles through the hole 34 of the hole plate 35 of the pulverizing means 30, The process is carried out.

Next, the juicing process S4 of the fourth process is performed. This process is performed using the juicing device 40 as shown in Fig.

The pulverizing means 40 is charged into the screw 42 by the putting screw 48 which is rotated by the motor 47 to move the pulverized particles having the juice to be fed into the hopper 46.

When the crushed particles having the juice conveyed by the screw 42 rotated by the motor 41 move to the tapered screw portion 42a, the movement passage 29 is gradually narrowed. Therefore, And the sludge is discharged to one side of the cylindrical perforated network 43. [0031] As shown in FIG.

8, a plurality of inclined discharge guide members 44 are provided on the inner circumferential surface of the cylindrical perforated network 43 so that the sludge is quickly moved along the inclined discharge guide member 44 toward the discharge port 45 .

Therefore, the speed of progress of the juice is accelerated, so that the overall production time is shortened and the production amount is improved.

Therefore, in the juice process S4 of the fourth process, the juice is transferred to the screw 42 of the juicing means 40, and is transferred to the moving path (between the tapered screw portion 42a and the cylindrical perforated network 43 on the outer circumferential edge thereof) The sludge is moved in the direction of the discharge port 45 along the inclined discharge guide member 44 provided on the inner peripheral surface of the cylindrical perforated network 43 to be discharged The process of achieving this is proceeding.

Next, in the present invention, the first phase liquid phase separation process (S5) of the fifth process is performed. This process is performed using the vibration separating means 50 as shown in FIG.

The vibration separating means 50 includes an upper screen 51 to which the juice is firstly filtered and a lower screen 52 provided below the upper screen 51 for secondary filtration to separate the liquid juice and the fine sludge, And sludge outlets 53 and 53 'provided at one side of the upper and lower screens 51 and 52. The upper and lower screens 51 and 52 are vibrated by the vibration generator 54 have.

Therefore, when the vibration generator 54 is activated, the upper and lower screens 51 and 52 supported by the respective vibration springs 55 are vibrated, respectively, so that the juice is injected into the upper screen 51 through the inlet 57 The sludge remains on the upper screen 51 and is discharged to the sludge outlet 53 ', and only the liquid juice falls to the lower screen 52.

Therefore, the juice dropped onto the lower screen 52 is further squeezed, so that the sludge remaining on the lower screen 52 is discharged to the sludge discharge port 53 ', and the liquid juice is discharged to the juice outlet 56.

The upper screen 51 has a mesh size of 50 to 200 mesh and the lower screen 52 has a mesh size of 250 to 400 mesh that is relatively more mesh than the upper screen 51, The sludge of the larger particles is filtered, and the lower sludge of the smaller particles is filtered secondarily in the lower screen 52.

Therefore, the first liquid phase separation process (S5) of the fifth process is performed in such a manner that the juice is introduced into the upper screen (51) of 150-200 mesh which is vibrated by the vibration generator (54) of the vibration separating means (50) And then filtered through a lower screen (52) of 250-400 mesh to separate liquid juice and fine sludge from each other.

Next, the present invention is a process in which the secondary liquid phase separation process (S6) of the sixth process is carried out using the filter separation means 60 as shown in Fig.

The filter separating means 60 comprises a standing vessel 61 having a feed chamber 62 into which the liquid juice is injected and a filter chamber 61 provided at the center of the inside of the standing vessel 61 to filter the liquid juice into the inner cavity 63a A mesh filtration filter 63 and a squeeze drain port 64 provided at the lower portion of the mesh filtration filter 63 and a sludge drain valve 65 provided at a lower side of the input chamber 62.

For the mesh filter 63, a filter of 500-1350 mesh is used.

Therefore, when the juice is introduced into the feed chamber 62 by the pump 69, the sludge is filtered by the mesh filter 63 and is not passed therethrough. Only the liquid juice passes through the mesh filter 63 and flows into the inner hole 63a So that the fine sludge and the liquid juice are separated from each other.

A circular cleaning nozzle 66 having a plurality of nozzle holes 67 is provided in the upper center of the mesh filtering filter 63 of the filter separating means 60.

Accordingly, when the washing water is supplied to the washing water chamber 68 by the pump 69 ', the washing water is injected from the inner hole 63a through the nozzle hole 67 in the round washing nozzle 66 in all directions, The fine sludge remaining in the filter 63 is removed, and the filtration efficiency of the mesh filtration filter 63 is not lowered.

Accordingly, in the secondary liquid phase separation process (S6) of the sixth process, the liquid juice is introduced into the feed chamber (62) of the filter separating means (60) and is passed through the mesh filtration filter (63) The fine sludge remains in the input chamber 62 outside the filtering chamber 63 and the liquid squeeze is passed through the inner sphere 63a of the mesh filtering filter 63 so that the fine sludge contained in the juice is filtered and separated Process.

Next, the instantaneous sterilization process (S7) of the seventh process is performed according to the present invention. This process is carried out using the pasteurization means 70 as shown in Fig.

The pasteurization means 70 comprises a transfer tube 72 for sterilization to which the liquid juice is forcibly transferred by the pump 71, a transfer tube 73 for cooling which extends to the sterilization transfer tube 72, A sterilizing chamber 74 in which the sterilizing transfer pipe 72 is embedded to be flooded and hot water Pa is circulated therein and a cooling water pipe 73 for cooling water is installed so as to be submerged and cold water Pb is circulated And a cooling chamber (75).

Therefore, the liquid juice is firstly sterilized while passing hot water (Pa) at 100 ° C during the process of forcibly transferring the liquid juice to the sterilization transfer pipe 72 by the pump 71, and the second sterilization transfer pipe 72 An instant sterilization process (S7) is performed in which the extended cooling transfer pipe (73) is cooled by passing through the cold water (Pb). Reference numeral 76 denotes a hot water unit for supplying hot water to the hot pasteurization chamber 74 and reference numeral 77 denotes a cold water unit for supplying cold water to the cooling chamber 75.

Next, the packaging process (S8) of the eighth process for packaging the hot-sterilized liquid juice into the pouch pack is performed, and since the packing device for packing the liquid juice into the pouch pack is already known, The explanation will be omitted.

Next, the present invention is a pasteurization process (S9) of the ninth process, which is carried out using the pasteurization means (80) as shown in Fig.

The pasteurization means 80 includes a hot room 84 in which a lifting and lowering lift 83 on which a packed container 82 containing a pouch pack 81 packed with a liquid juice is mounted is moved in the vertical direction, A cold room 85 provided at one side of the hot tub room 84 and a lifting and lowering lift 83 'mounted on the packaging container 82 containing the pouch pack 81 in the cold room 85 and being moved up and down. .

The lifting and lowering lift 83 and 83 'are provided with a conveyor 86 on which the packed container 82 containing the pouch pack 81 is mounted. Since the up-and-down lifts 83 and 83 'are already known, detailed drawings and explanations are omitted.

The hot water Pa of 75-90 DEG C supplied from the hot water unit 87 is circulated in the hot water room 85 and the cold water Pa of 2-5 DEG C is circulated in the cold water chamber 85 to the cold water unit 88. [ Respectively.

Therefore, the packed container 82 containing the pouch pack 81 is moved by the conveyor C, so that the conveyor 86 is lifted upward from the lifting / lowering lift 83 as shown in phantom in FIG. 12 The packed container 82 is mounted on the conveyor 86. In this case,

In this state, the conveyor 86 of the ascending / descending lift 83 is moved downward to the lower part of the hot tub room 84 as shown by the solid line in FIG. 12, and sterilized while staying for 20-30 minutes.

Since the sterilized packed container 82 has a plurality of through holes (not shown) through which hot water can be introduced, the pouch pack 81 inside the packed container 82 is sterilized.

When the sterilization is completed for 25-30 minutes in hot water (Pa) at 75-90 DEG C in the hot tub 84, the conveyor 86 of the ascending / descending lift 83 is moved to the hot tub 84 as shown in the phantom diagram of FIG. The conveyor 86 is operated in this state and the packed container 82 is moved to the conveyor C located between the hot room 84 and the cold room 85. [

Next, the packed container 82 of the conveyor C is moved to the conveyor 86 of the ascending / descending lift 83 'raised to the upper portion of the cold room 85 as shown in phantom in FIG. 12, .

In this state, the conveyor 86 of the ascending / descending lift 83 'moves downward to the lower part of the cold room 85 as shown by the solid line in FIG. 12, and is cooled for 15 to 20 minutes.

Therefore, in the pasteurization process (S9) of the ninth process, the packaging container 82 in which the plurality of pouch packs 81 are packed is firstly heated in the hot room 84 of the pasteurization means 80 at a temperature of 75-90 DEG C (Pa) for 25-30 minutes, and secondly cooled in cold water (Pa) at 2-5 ° C in the cold room (85) for 15-20 minutes.

Next, in the present invention, the water removal process (S10) of the tenth process is performed. In this process, compressed air is injected into the packaging container 82 during the process of transporting the packaging container 82 by the conveyor, 82 and the pouch pack 81 inside thereof are removed, and a device for blowing compressed air into the product is already known, so detailed drawings and explanations thereof will be omitted.

Therefore, when the water removal process (S10) of the tenth process is completed, the product is shipped.

And the present invention is such that each of the manufacturing means can be continuously and automatically manufactured by interconnecting using a conveying conveyor or a pump.

Accordingly, the present invention is not limited to the embodiments shown in the drawings, and various changes and modifications may be made by those skilled in the art without departing from the scope of the present invention. It is self-evident to be.

10: bubble eddy cleaning means 11; cleaning chamber
12: Air nozzle 13: Air chamber
20: trimming means 21: input passage
22: motor 23: cutter
24: motor shaft 30: crushing means
31: hopper 32: motor
33: screw 34: through hole
35: hole plate 36: rotary cutter
37: motor 38: cutter shaft
40: Means for juicing 41: Motor
42: screw 43: cylindrical borehole
44: inclined discharge guide member 45: outlet
50: vibration isolating dean 51: upper screen
52: Lower screen 53, 53 ': Sludge outlet
54: Vibration generator 55: Vibration spring
56: juice outlet 57: inlet
60: Filter separation means 61: Standing container
62: input chamber 63: mesh filter
64: Juice outlet 65: Sludge drain valve
66: Circular washing nozzle 67: Nozzle ball
68: wash water chamber 69, 69 ': pump
70: pasteurization means 71: pump
72: Disinfection transfer tube 73: Cooling transfer tube
74: high temperature sterilization chamber 75: cooling chamber
80: pasteurization means 81: pouch pack
82: Pack packing container 83, 83 ': Up and down lift
84: Hot water room 85: Cold water room
86: Conveyor 87: Hot water unit
88: cold water unit S1: bubble vortex cleaning process
S2: Segmentation process S3: Grinding process
S4: juicing process S5: primary liquid phase separation process
S6: Second phase liquid phase separation process S7: High temperature instant sterilization process
S8: Packaging process S9: Pasteurization process
S10: Dewatering process

Claims (8)

A plurality of air nozzles 12 for spraying air in an oblique direction on both sides of the inside of the washing chamber 11 having the washing water W into which the leaf stems are inserted so as to generate bubbles and vortices, )and;
A trimming means 20 made up of a feeding passage 21 into which the leaf stem is inserted and a cutter 23 which is rotated by the motor 22 in the front of the feeding passage 21 to cut the leaf stem;
A hole plate 34 having a plurality of through holes 34 through which leaf stems conveyed by a screw 33 rotating under the power of the motor 32 are passed is provided below the hopper 31 into which the truncated leaf stems are inserted, 35), and a rotary cutter (36) for cutting the leaf stem passing through the through hole (34) so as to be ground particles;
The pulverized particles are conveyed by a screw 42 rotated by a motor 41 and the juice is discharged into a cylindrical perforated net 43 provided on the outer circumferential edge of the tapered screw portion 42a. A juice means (40) for discharging the juice to one side;
A lower screen 52 provided below the upper screen 51 for secondary filtration to separate liquid juice and fine sludge from the upper screen 51, Vibration separating means (50) having sludge discharging ports (53, 53 ') provided on one side of the upper and lower screens (51, 52) and vibrating the upper and lower screens (51, 52)
A mesh filtration filter 63 provided at the center of the inside of the standing container 61 and filtered by the inner cavity 63a of the liquid juice; A filter separating means 60 having a juice outlet 64 provided below the mesh filter 63 and a sludge drain valve 65 provided at a lower side of the inlet chamber 62;
A sterilizing transfer pipe 72 for forcibly transferring the liquid juice by the pump 71, a cooling transfer pipe 73 for extending the sterilization transfer pipe 72, a sterilizing transfer pipe 72, And a cooling chamber 75 in which the cooling transfer pipe 73 is embedded so as to be flooded and the cold water Pb is circulated through the high-temperature sterilization chamber 74, A pasteurization means 70;
A hot water room 84 in which the lifting and lowering lift 83 on which the packed container 82 containing the pouch pack 81 packed with the liquid juice is mounted is moved in the vertical direction, Sterilization means (80) having a cold room (85) in which the pouch pack (81) is packed in the cold room (85) and a lifting and lowering lift (83 ' The apparatus for preparing green juice according to claim 1,
2. The green juice production apparatus according to claim 1, wherein the cutter (23) has a sickle shape and one end (23a) is connected to the motor shaft (24) for rotation.
2. The apparatus according to claim 1, wherein the hole plate (35) is fixed to the base and the rotary cutter (36) is fixed to the cutter shaft (38) and rotated by a motor (37) Wherein the green juice production apparatus comprises:
The apparatus according to claim 1, wherein a plurality of inclined discharge guide members (44) are provided on the inner circumferential surface of the cylindrical perforated network (43) of the juicing means (40) so that the sludge is discharged along the inclined discharge guide member And is discharged to be discharged.
The washing machine according to claim 1, wherein a circular washing nozzle (66) having a plurality of nozzle holes (67) at the center of the mesh filtering filter (63) of the filter separating means (60) And spraying the green juice.
The green juice manufacturing apparatus according to claim 1, wherein the pump is provided with a conveyor (86) on which the packed packing container (82) containing the pouch pack (81) is mounted on the ascending / descending lift (83, 83 ').
Using the green juice production apparatus of claim 1;
The bubbles generated by the air injected from the plurality of air nozzles 12 on both sides of the cleaning chamber 11 and the air bubbles generated by the air bubbles generated by the air bubbles A bubble vortex washing step (S1) of a first process for washing by a vortex;
The cutter 23 is rotated by the power of the motor 22 in front of the feed passage 21 in the process of passing the leaf stem through the feed passage 21 of the cutter 20, (S2) of the second process;
The pulverization process S3 of the third process in which the fine particles are passed through the hole 34 of the hole plate 35 of the pulverizing means 30 so as to be cut by the rotary cutter 36 to be the pulverized particles of 1-3 mm, and;
The pulverized particles are transferred to the screw 42 of the juice means 40 so that the transfer passage 49 between the tapered screw portion 42a and the cylindrical perforated network 43 on the outer circumferential edge of the tapered screw portion 42a becomes narrow, The sludge is discharged along the inclined discharge guide member 44 provided on the inner circumferential surface of the cylindrical perforated network 43 in the direction of the discharge port 45 and discharged in the fourth process S4 )and;
The juice is poured into an upper screen 51 of 150-200 mesh which is vibrated by the vibration generator 54 of the vibration separating means 50 so that the liquid juice is primarily filtered and then the lower part of the 250-400 mesh (S5) of a fifth process in which the liquid juice is separated from the fine sludge by filtration through a screen (52);
The liquid juice is introduced into the input chamber 62 of the filter separating means 60 and is passed through the mesh filtration filter 63 of 500-1350 mesh to be introduced into the input chamber 62 outside the mesh filtration filter 63, (S6) of a sixth step of allowing the liquid juice to pass through the inner hole (63a) of the mesh filtration filter (63).
The liquid juice is forcibly transferred to the sterilizing transfer tube 72 by the pump 71 of the thermostatic sterilizing means 70, and sterilized while passing hot water (Pa) of 100 캜 for the first time, An instant sterilization process S7 of the seventh process in which the pipe 72 and the extended cooling transfer pipe 73 are cooled by passing through the cold water Pb;
(S8) of an eighth process of causing the liquid juice to be packed in the pouch pack;
The packaging container 82 in which the pouch pack 81 is packed is immersed in the warm water Pa in the hot water room 84 of the pasteurization means 80 to be sterilized, (S9) of the ninth process for immersing the wafer in the polishing pad (Pa) and cooling the wafer (S9);
And a water removing step (S10) of a tenth step of spraying compressed air in the process of conveying the packaging container (82) packed with the pouch pack (81) by a conveyor to remove water remaining on the outside A method for preparing green juice using a green juice manufacturing apparatus.
The method according to claim 7, wherein the packaging container (82) in which the pouch pack (81) is packed is sterilized in hot water at 75-90 ° C for 25-30 minutes in cold pasteurization (S9) And then cooled for 20 minutes.

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