KR200454829Y1 - Juicer - Google Patents

Abstract

The present invention relates to a juicer, comprising a housing, a drive unit having a drive shaft installed to be exposed through the front portion of the housing, and a workpiece accommodation space, wherein the workpiece accommodation space is disposed in front of the drive shaft. A circular cylinder, which is erected on the support plate and distributed in a circular juice passage hole so as to have a support plate in which the crushed cylinder portion, the driven screw through hole, and the driven screw through hole communicate with the driven screw through hole, and have a tapered section of the truncated cone. The driven screw through hole and the driven screw through hole have a driven juice tube part standing up on the support plate so as to communicate with the juice tube part and the driven screw through hole and have a tapered section of a truncated cone shape, and the driven juice through hole is dispersed. Installed to communicate with the workpiece receiving space A juice helical gear having a juice pipe portion, a waste discharge hole, and a juice discharge hole formed therein, and a discharge hole formed so that the juice discharge hole communicates with the driven juice through hole and the driven juice through hole, and a helical driven gear. Coupled to the drive shaft through the helical helical gear portion having a motive screw portion having a longitudinal section coupled to the front end of the helical gear portion and having a threaded motive screw, and a axial front shaft portion coupled to the front end of the motive screw portion. And a helical type motive material processing body which is supported by the discharge cylinder to the discharge cylinder part, wherein the motive screw part enters into the motive juice tube part and is installed so that the helical helical gear part is accommodated in the workpiece accommodation space. On the front end of the driven helical gear part having the driven gear and the driven helical gear part. The driven helical gear portion is supported by the housing and has a driven screw portion having a longitudinal section coupled therein with a threaded driven screw, and a driven front shaft portion coupled to the front end of the driven screw portion, and the discharge cylinder portion through the driven front shaft portion. A driven material processing body which is supported on the driven helical gear part and is engaged with the driven helical gear part and is installed such that the driven screw part enters the driven juice tube part and the driven helical gear part is accommodated in the workpiece accommodation space. In the juicer having a driving helical gear portion accommodated in the workpiece receiving space and an inlet pipe portion extending from the grinding cylinder portion so that one side opening is disposed in the upper region of the driven helical gear portion, the circular interlocking ring is formed on the outer circumferential surface. And parallel to the circular linkage ring and in the central region A coaxial ball is formed and the outer surface is formed of a circular drive plate and a circular drive gear formed of an elastic material protruding so as to contact the primary juice pipe part on the inner surface of the circular drive plate and the circular drive plate connecting the circular drive ring and the circular drive plate. A dong cleaning section having a dong cleaning section, coupled to the front axial section through the axial shaft hole so as to rotate together when the front front shaft section rotates; A driven interlocking ring with a driven ring gear formed on an outer circumferential surface and a driven interlocking ring arranged in parallel with the driven interlocking ring and a driven shaft hole formed in a central area, and a driven interlocking plate having a driven plate gear formed on an outer circumferential surface thereof, and the driven interlocking ring and the driven linkage. A driven connecting plate for connecting a copper plate and an driven cleaning protrusion of an elastic material protruding to contact the driven juice pipe part on the inner surface of the driven connecting plate, wherein the driven ring gear meshes with the driven ring gear and the driven plate gear Tooth is engaged with the drive plate gear, characterized in that it comprises a driven cleaning unit is installed so that the driven front shaft portion is supported by the driven shaft hole. As a result, the juice yield can be improved, and the juice can be easily cleaned.

Juicer, material processing barrel, cleaning protrusion, material processing body, juice pipe part

Description

Juicer {Vegetables Material Processing Device}

The present invention relates to a juicer, and to a device for milling a juice material such as vegetables, fruits, and finally processing the food in the juice form.

As they enjoy the food in the juice form, the juicer is being used.

Conventional juicer is formed to have a truncated conical shape and the dong juice tube portion is formed in the dispersion of the dong juice through hole, the driven juice tube portion is formed to have a truncated cone shape and the driven juice through hole is dispersed, and the circular juice tube portion A moving material processing body having a moving screw part installed to enter the inside, a driven material processing body installed to enter the driven juice tube part, and a driving unit for rotationally driving the moving material processing body and the driven material processing body.

Referring to the operation of the conventional juicer having such a configuration as follows.

First, the pulverized juice material is introduced into the driven juice tube part and the driven juice tube part.

Next, when the base material processing body and the driven material processing body rotate, the juice material is squeezed by the pressing action between the driven juice tube part and the driven screw part and the pressing action between the driven juice tube part and the driven screw part. Juices and debris are produced when the juice is pressed.

The produced debris passes through the main juice through hole and the driven juice through hole and then falls and collects in the juice cup.

The resulting debris is discharged to the outside via juice and other routes.

However, according to the conventional juicer, the debris generated when the juice material is squeezed is caught in the driven juice through hole and the driven juice through hole, preventing the juice from passing through the driven juice through hole and the driven juice through hole, thereby lowering the juice yield. There was this.

And after the juice is finished, it becomes difficult to clean the juice tube.

Therefore, it is an object of the present invention, to provide a juicer to remove the dregs caught in the dong juice through hole and the driven juice through hole in the juice process.

The object is, according to the present invention, the housing, the drive unit having a drive shaft installed to be exposed through the front portion of the housing, and formed to have a workpiece receiving space and the workpiece receiving space is disposed in front of the drive shaft The support plate is formed in parallel with the crushing cylinder portion, the circumferential screw through hole and the driven screw through hole supported on the support plate and the circumferential screw through hole communicate with the circumferential screw through hole. The driven screw passing hole and the driven screw passing hole communicate with the driven juice tube part and the driven screw through hole, and have a driven juice tube part which is formed on the support plate so as to have a truncated cone shape and the driven juice through hole is dispersed. Juice pipe part and waste vessel installed to communicate with receiving space A material processing passage having a discharge opening and a juice discharge hole formed therein and the juice discharge hole installed to communicate with the driven juice passing hole and the driven juice passing hole, a helical gear gear having a helical driving gear, and the driving force. It is coupled to the drive shaft through the helical gear portion having a motive screw portion having a longitudinal section coupled to the front end of the helical gear portion and having a screw thread-type motive screw, and a axial front shaft portion coupled to the front end of the motive screw portion. A moving material processing body which is supported by the discharging part and installed so that the moving screw part enters the inside of the moving juice tube part and the moving helical gear part is accommodated in the workpiece accommodation space, and a helical driven gear Is coupled to the front end of the driven helical gear and the driven helical gear, The driven helical gear portion is supported on the housing, the driven helical gear portion is supported by the discharge cylinder through the driven front shaft portion, and has a driven screw portion having a driven screw having a driven screw portion and a driven front shaft portion coupled to the front end of the driven screw portion. A driven material processing body which is installed such that the driven screw part enters the driven juice tube part in a state in which the driven helical gear part is engaged, and the driven helical gear part is accommodated in the workpiece accommodation space; In a juicer having a driving helical gear portion and an injection tube portion extending from the grinding cylinder portion so that one side opening is disposed in an upper region of the driven helical gear portion, the circumferential linking ring having a circumferential ring gear formed on an outer circumferential surface thereof and parallel to the motive linking ring It is arranged and a circular shaft hole is formed in the center area. A copper drive gear having a copper plate gear formed thereon, a driving link plate connecting the driving link ring and the driving linkage plate, and an inner surface of the driving link plate and a driving member of an elastic material protruding from the inner surface of the driving link plate to come into contact with the driving juice tube. A prime mover cleaner coupled to the prime mover shaft through the prime mover to allow the prime mover to rotate together; A driven interlocking ring with a driven ring gear formed on an outer circumferential surface and a driven interlocking ring arranged in parallel with the driven interlocking ring and a driven shaft hole formed in a central area, and a driven interlocking plate having a driven plate gear formed on an outer circumferential surface thereof, and the driven interlocking ring and the driven linkage. A driven connecting plate for connecting a copper plate and an driven cleaning protrusion of an elastic material protruding to contact the driven juice pipe part on the inner surface of the driven connecting plate, wherein the driven ring gear meshes with the driven ring gear and the driven plate gear Tooth is achieved by a juicer, characterized in that it comprises a driven cleaner that is engaged to the driven plate gear and the driven front shaft portion is installed to be supported by the driven shaft hole.

Here, the area for contacting the driven juicer is increased so that the area for contacting the driven juicer and the area for driving the driven cleaner is increased, so that the area for contacting the driven juicer is increased. A circular bending auxiliary groove is formed to assist the bending, and the driven cleaning protrusion is formed with a circular bending auxiliary groove which assists in bending the area in contact with the driven juice tube when the driven cleaning protrusion is in contact with the driven juice tube. desirable.

And it is preferable to further include a connecting lever for connecting the driven connecting plate and the driven connecting plate in order to maintain the rotational operation of the driven cleaner.

Therefore, according to the present invention, by providing a rotatable cleaning section and a driven cleaning section to rotate in conjunction with the rotational motion of the moving material processing body to be able to remove the debris caught in the dong juice through hole and the driven juice through hole during the juice extraction, juice yield This improves and can easily clean the juice pipe part.

Hereinafter, the present invention will be described in detail with reference to the accompanying drawings.

1 is an exploded perspective view of a juicer according to an embodiment of the present invention, Figure 2, Figure 3, Figure 4, Figure 5 and Figure 6 is a detailed view of the prime mover and driven cleaning area shown in FIG.

Juicer according to an embodiment of the present invention, as shown in these drawings, the drive unit having a housing 11 which is installed perpendicular to the support surface, and a drive shaft 12a provided to be exposed through the front portion of the housing 11 ( 12, a pair of support shafts 13 coupled side by side to the front of the housing 11, a material processing cylinder 20 detachably coupled to the support shafts 13, and a pair of support shafts (13) Supported by the moving material processing body 50 and the driven material processing body 60 provided in the interregion, the moving material cleaning unit 70 coupled to the moving material processing body 50, and the driven material processing body 60. A driven cleaning unit 80, a connecting lever 14 for connecting the driven cleaning unit 70 and the driven cleaning unit 80, the input pipe unit 15 formed in the material processing cylinder 20, and the input pipe unit 15 It has a material supply plate 16 coupled to the upper end and a power supply switch 17 installed on the outer surface of the housing 11 to open and close the power supply to the drive unit 12.

The housing 11 has a driven shaft preventing prevention groove 11a formed in an adjacent region of the front drive shaft 12a.

The drive unit 12 includes a drive motor (not shown) and a reducer (not shown).

The support shaft 13 has a locking groove 13a formed along the circumferential direction at its end.

The material processing cylinder 20 has a pulverization cylinder portion 21 formed to have a workpiece accommodation space 21c, a juice pipe portion 30 installed in the workpiece accommodation space 21c, and a discharge coupled to the grinding cylinder portion 21. It has a cylinder part 40.

The grinding cylinder part 21 has the tubular grinding cylinder body part 21a and the grinding cylinder guide part 21b of the circular arc cross section formed in the both sides of the grinding cylinder body part 21a.

The grinding barrel body 21a is formed with a workpiece receiving space 21c having an approximately eight-character shape therein.

The grinding barrel portion 21 having such a configuration is coupled to the supporting shaft 13 by sliding the support shaft 13 into the grinding cylinder guide portion 21b and slidingly moving toward the housing 11. Accordingly, the grinding cylinder portion 21 is supported by the housing 11 through the support shaft 13 in a state where the workpiece accommodation space 21c is disposed in front of the drive shaft 12a.

The juice pipe portion 30 is in communication with the support plate 31, which is formed in parallel with the driven screw through hole 31a and the driven screw through hole 31b, and the driven screw through hole 31a and the driven screw through hole 31b, respectively. It has the driven juice tube part 32 and the driven juice tube part 33 which stood up in the support plate 31. As shown in FIG.

The primex juice tube part 32 has a linear primeval juice tube part 32a of a straight tube shape, and a tapered primeval juice tube part 32b extended so as to have a conical shape truncated from the linear primeval juice tube part 32a.

The driven juice passing hole 33c is dispersed in the linear driving juice tube part 32a and the tapered driving juice tube part 32b, respectively.

The driven juice tube part 33 has a straight driven juice tube part 33a in the form of a straight tube, and a tapered driven juice tube part 33b extended to have a conical shape truncated from the straight driven juice tube part 33a.

In the linear driven juice tube part 33a and the tapered driven juice tube part 33b, the motive juice through hole 32c is respectively distributed and formed.

The juice pipe part 30 having such a structure is installed so that the motive screw through hole 31a and the driven screw through hole 31b communicate with the workpiece accommodation space 21c.

Discharge cylinder portion 40 of the tubular discharge cylinder body 41 is closed one end, the discharge cylinder guide portion 42 of the circular arc cross-section formed on both sides of the discharge cylinder body portion, and the discharge cylinder body portion 41 It has a locking portion 43 coupled to both sides.

The discharge barrel body 41 is formed with a waste discharge hole 41a in the bottom front region, and a juice discharge hole 41b in the bottom rear region.

And the discharge barrel body portion 41 is formed on the inner surface of the front of the power storage prevention paper groove 41c and the driven power storage prevention paper groove (41d) side by side.

A plurality of motive ventilation holes 41e are formed in the primary power storage prevention groove 41c, and a plurality of driven ventilation holes 41f are formed in the driven power storage prevention groove 41d.

The locking portion 43 has a generally digital shaped grip portion 43a coupled to both sides of the discharge cylinder portion 40 so as to be rotatable, and a locking piece 43b formed at each end of the grip portion 43a, respectively. .

The axial press groove 43c is cut out from the upper end in the locking piece 43b.

The method of fixing the discharge cylinder portion 40 having such a configuration to the support shaft 13 is as follows.

First, the discharge cylinder 40 is coupled to the support shaft 13 so that the locking groove 13a enters the axial pressure groove 43c.

Next, the holding part 43a is rotated toward the front surface of the discharge barrel body 41. When the gripping portion 43a is rotated, the support shaft 13 and the shaft pressing groove 43c are pressed into contact so that the discharge cylinder portion 40 is fixed to the support shaft 13. Juice discharge hole 41b is in communication with the driven juice passing hole 32c and the driven juice passing hole 33c while the discharge cylinder 40 is fixed to the support shaft 13.

The prime material processing body 50 includes a prime helical gear part 51 having a helical type prime gear, a prime screw 52 coupled to the front end of the prime helical gear 51, and a prime screw 52. It has a circular front shaft portion 53 coupled to the front end of.

The axial helical gear portion 51 has an axial coupling groove formed at the rear end thereof.

The prime mover screw portion 52 has a rear prime mover portion 52a extending from the prime mover helical gear portion 51 and a front prime mover portion 52b extending from the front end of the prime mover screw portion 52a.

The rear driving screw portion 52a is formed in a cylindrical shape, and a threaded moving screw is formed on an outer surface thereof.

The front motive screw portion 52b is formed in the form of a truncated cone, and the outer circumferential screw portion 52b is formed with a screw-type motive screw.

The circular front shaft portion 53 is formed to have a circular cross section, and the engaging surfaces 53a are cut out one by one in the opposing area.

The prime mover material processing body 50 having such a configuration is coupled to the drive shaft 12a through the prime helical gear portion 51, and the prime mover antistatic paper groove formed in the discharge cylinder portion 40 through the drive front shaft portion 53 ( 41c), the motive screw portion 52 enters the motive juice tube portion 32, and the helical helical gear portion 51 is installed to be accommodated in the workpiece accommodation space 21c.

The driven material processing body 60 includes a driven helical gear part 61 having a helical driven gear, a driven screw part 62 coupled to the front end of the driven helical gear part 61, and a driven screw part 62. And a driven rear shaft portion 63 coupled to the front end of the crankshaft) and a rear rear shaft portion 63 coupled to the rear end of the driven helical gear portion 61.

The driven screw part 62 has the rear driven screw part 62a extended from the driven helical gear part 61, and the front driven screw part 62b extended from the front end of the rear driven screw part 62a.

The rear driven screw portion 62a is formed in a cylindrical shape, and a threaded driven feed screw is formed on the outer surface.

The front driven screw part 62b is formed in the shape of a truncated cone, and the driven screw in the form of a thread is formed in the outer surface.

In the driven material processing body 60 having such a configuration, the driven helical gear portion 61 is supported by the driven shaft preventing prevention groove 11a through the driven rear shaft portion 63 and discharged through the driven front shaft portion 63. The driven screw preventing portion 62 is supported by the driven power storage preventing groove 41d formed in the tube portion 40, and the driven helical gear portion 61 is engaged with the driven helical gear portion 51. Entering the inside, the driven helical gear portion 61 is installed to be accommodated in the workpiece receiving space (21c).

The circular cleaning unit 70 includes a circular interlocking ring 71 in which a circular ring gear 71a is formed on an outer circumferential surface thereof, a circular interlocking plate 72 disposed in parallel with the circular interlocking ring 71, a circular interlocking ring 71 and a circular interlocking motion. A circular connecting plate 73 for connecting the copper plate 72 and an inner surface of the circular connecting plate 73 have a circular cleaning protrusion 74 of elastic material protruding to contact the primary juice tube part 32.

In the center linking plate 72, a circular shaft hole 72c is formed in a central region, and a circular plate gear 72a is formed on an outer circumferential surface thereof.

The circular shaft hole 72c is formed in a circular shape, and the mounting surface 72d is cut out one by one in the opposing area.

In the circumferential interlocking plate 72, a plurality of mobilizing ribs 72b are formed in the circumferential region of the circumferential axis hole 72c to have a cross-sectional shape in cross section with respect to the plate surface.

Each motive fixed rib 72b is separated from each other.

The prime move protrusion 74 has an approximately rectangular parallelepiped clean body 74a and a prime move leg 74b which extends from the prime move body 74a.

The circular cleaning body portion 74a is formed on the upper surface and the lower surface of each of the circular bending bending grooves 74c each cut out.

The circular bending auxiliary groove 74c assists the dongdong cleaning body portion 74a to be bent when the dongdong cleaning body portion 74a contacts the primary juice extraction tube portion 32.

The prime mover leg 74b is coupled to the prime mover plate 73.

The circular cleaning protrusion 74 may be made of an elastic material such as silicon, and may be formed to have a circular cross section as shown in FIG.

The prime mover cleaning unit 70 having such a configuration is such that the prime mover ring 71 is in contact with the prime mover tube 32 and the prime mover shaft 53 enters the prime mover hole 72c. Is coupled to.

Coupling with the moving material processing body 50 is made so that the seating surface 72d and the engaging surface 53a may be in surface contact. Accordingly, the prime mover 70 may rotate together when the prime mover 53 rotates.

The driven cleaning unit 80 includes a driven interlocking ring 81 having a driven ring gear 81a formed on an outer circumferential surface thereof, a driven interlocking plate 82 disposed in parallel with the driven interlocking ring 81, and a driven interlocking ring 81; The driven connecting plate 83 which connects the driven interlocking plate 82, and the driven cleaning protrusion 84 of the elastic material which protruded in contact with the driven juice pipe part 33 on the inner surface of the driven connecting plate 83 are provided. .

In the driven interlocking plate 82, the driven shaft hole 82c is formed in the center area, and the driven plate gear 82a is formed in the outer peripheral surface.

The driven shaft hole 82c is formed in a circular shape.

In addition, the driven interlocking plate 82 is formed in the circumferential region of the driven shaft hole 82c such that a plurality of driven fixing ribs 82b has a cross-sectional shape in cross section with respect to the plate surface.

The driven fixed ribs 82b are separated from each other.

The driven cleaning protrusion 84 has a substantially rectangular parallelepiped cleaning body 84a and a driven cleaning leg 84b extending from the driven cleaning body 84a.

The driven cleaning body portion 84a is formed by cutting the driven bending grooves 84c one by one on the upper surface and the lower surface over the entire length section. The driven bending groove 84c assists the driven cleaning body portion 84a to be bent when the driven cleaning body portion 84a contacts the driven juice tube portion 33.

The driven cleaning leg 84b is coupled to the driven connecting plate 83.

The driven cleaning protrusion 84 may be made of an elastic material such as silicon, and may be formed to have a circular cross section as shown in FIG.

The driven cleaning part 80 having such a configuration has a driven material processing body 60 such that the driven interlocking ring 81 contacts the driven juice tube part 33 and the driven front shaft part 63 enters the driven shaft hole 82c. ) Is combined.

Engagement with the driven material processing body 60 is such that the driven plate gear 82a is engaged with the driven plate gear 72a, and the driven ring gear 81a is engaged with the driven ring gear 71a. Accordingly, the driven cleaner 80 may be rotated together when the driven cleaner 70 rotates.

The coupling lever 14 has a pair of fixing holes 14a formed side by side. The formation of the fixing hole 14a is made to have a diameter slightly smaller than that of the driving fixing rib 72b and the driven fixing rib 82b.

The connecting lever 14 having such a structure is provided by forcibly inserting the motive fixing rib 72b and the driven fixing rib 82b into the fixing hole 14a.

The input pipe part 15 is formed to extend from the grinding cylinder part 21 so that the lower opening is disposed in the upper region of the helical gear part 51 and the driven helical gear part 61 accommodated in the workpiece accommodation space 21c.

The material supply plate 16 is formed with a guide hole 16a so as to communicate with the injection pipe 15.

Referring to the method using a juicer according to an embodiment of the present invention having such a configuration as follows.

First, the pulverization cylinder portion 21 is fixed to the support shaft 13 while the prime material processing body 50 and the driven material processing body 60 are inserted into the pulverization cylinder portion 21.

Next, the juice pipe part 30 is installed.

Next, the prime cleaning unit 70 and the driven cleaning unit 80 are provided.

Next, the discharge cylinder portion 40 is fixed to the support shaft 13.

Next, when the power supply switch 17 is operated in the on state to supply power to the drive unit 12, the drive shaft 12a rotates. As the drive shaft 12a rotates, the prime material processing body 50 and the driven material processing body 60 rotate while being engaged.

Then, when the prime material processing body 50 rotates, the prime cleaning unit 70 and the driven cleaning unit 80 also rotate.

Next, the juice material is introduced into the helical helical gear part 51 and the driven helical gear part 61 through the guide hole 16a and the input pipe part 15.

Next, the juice material is introduced into the prime helical gear part 51 and the driven helical gear part 61 through the guide hole 16a and the input pipe part 15.

The materials introduced into the helical helical gear unit 51 and the driven helical gear unit 61 are pulverized and then supplied to the juice tube unit 30.

The juice material supplied to the juice pipe part 30 is a juice material by the compression action between the driven juice pipe part 32 and the driven screw part 52 and the compression action between the driven juice pipe part 33 and the driven screw part 62. Is compressed.

Juices and debris are produced when the juice is pressed.

And the residue on the dong juice passing hole 32c and the driven juice passing hole 33c is removed by the dong cleaning protrusion 74 and the driven cleaning protrusion 84.

The produced debris is collected after falling through the juice juice passing hole 32c, the driven juice passing hole 33c, and the juice discharge hole 41b.

The produced dregs fall through the dregs discharge hole 41a and are collected in the dregs cup.

As described above, by providing the motive cleaning unit 70 and the driven cleaning unit 80 which rotate in synchronization with the rotational motion of the motive material processing body 50, the motive juice passing hole 32c and the driven juice passing hole ( Residue caught in 33c) can be removed. Accordingly, the juice passes through the prime juice through hole (32c) and the driven juice through hole (33c) during the juice process is improved juice yield. And after the end of the juice operation, it is possible to easily clean the juice pipe portion (30).

Then, by forming the circular bending auxiliary groove (74c) in the circular cleaning protrusion (74), and the driven bending auxiliary groove (84c) in the driven cleaning stone (84), the primary cleaning protrusion (74) ) And the area where the driven cleaning protrusion 84 is in contact with the driven juice pipe part 33 is increased. Accordingly, it is possible to more efficiently remove the dregs caught in the motive juice through hole 32c and the driven juice through hole 33c during the juice process.

In addition, by adding the connecting lever 14, the rotating operation of the driven cleaning unit 80 is stable.

It can be maintained.

1 is an exploded perspective view of a juicer according to an embodiment of the present invention;

2, 3, 4, 5, and 6 are the primary and secondary cleaning units shown in Fig. 1, respectively.

Detailed view of the station.

Explanation of symbols on the main parts of the drawings

11 housing 12 drive unit

13: support shaft 20: material processing cylinder

21: grinding tube portion 30: juice tube portion

31: support plate 32: driven juice pipe

33: driven juice pipe part 40: discharge tube part

50: raw material processing body 60: driven material processing body

70: Wondong cleaning unit 71: Wondong linkage ring

72: circular drive plate 73: circular drive plate

74: Wondong cleaning stone 80: Jongdong cleaning

81: driven linkage ring 82: driven linkage plate

83: driven connecting plate 84: Wondong cleaning stone

Claims (3)

A drive unit having a housing, a drive shaft installed to be exposed through the front portion of the housing, a pulverization cylinder portion and a circular screw passage formed to have a workpiece accommodation space and supported by the housing so that the workpiece accommodation space is disposed in front of the drive shaft; Ball and driven screw through hole and the driven screw through hole is formed standing on the support plate to have a tapered section of the cone plate is in communication with the driven screw through hole and the driven screw through hole side by side and formed by dispersing the motive juice through hole It is installed in the support plate so as to have a tapered section of the cone-shaped truncated conical shape and driven juice through the dispersion of the driven juice through hole is installed so that the driven screw through hole and the driven screw through hole communicates with the workpiece receiving space Juice tube part and waste discharge hole and juice discharge hole And a material processing passage having a discharge cylinder portion formed so that the juice discharge hole communicates with the driven juice passage hole and the driven juice passage hole, and a shear helical gear portion having a helical driven gear and a shear of the driven helical gear portion. Is coupled to the drive shaft through the helical gear portion having a motive screw portion having a longitudinal section coupled to the screw thread and having a threaded motive screw, and a motive front shaft portion coupled to the front end of the motive screw portion, and through the motive front shaft portion. A driven helical gear having a driven material processing body which is supported by the discharge cylinder and is installed such that the driven screw part enters the inside of the driven juice tube part and the driven helical gear part is accommodated in the workpiece accommodation space, and a helical driven gear. Threaded driven feeds coupled to the front end of the head and the driven helical gear part The driven helical gear part is supported by the housing and is supported by the discharge cylinder through the driven front axis part, and has a driven screw part having a driven end section and a driven front shaft part coupled to the front end of the driven screw part. And a driven material processing body in which the driven screw part enters the driven juice tube part in a state of being engaged with the driven helical gear part and the driven helical gear part is installed in the workpiece accommodation space, and in the workpiece accommodation space. In a juicer having a receiving helical gear portion and an injection tube portion extending from the grinding cylinder portion so that one side opening is disposed in an upper region of the driven helical gear portion and the driven helical gear portion, the circumferential linking ring formed with a circumferential ring gear on an outer circumferential surface thereof is parallel to the circumferential linking ring. Circumferential surface is formed in the center area A circular driving plate having a circular driving plate gear, a circular connecting plate connecting the circular connecting ring and the circular connecting plate, and a circular cleaning member of elastic material protruding to contact the primary juice tube part on an inner surface of the circular connecting plate; A circular cleaning unit coupled to the circular front shaft unit through the circular shaft hole to rotate together when the circular front shaft unit rotates; a driven interlocking ring having a driven ring gear formed on an outer circumferential surface thereof, and arranged parallel to the driven interlocking ring; A driven linking hole is formed in a region, and a driven linking plate having a driven plate gear formed on an outer circumferential surface thereof, a driven linking plate connecting the driven linking ring and the driven linking plate, and an inner surface of the driven linking plate. A driven cleaning protrusion of elastic material protruding to be in contact with said driven ring gear being engaged with said driven ring gear and Copper species juice gear teeth group, characterized in that it comprises a sweeper driven the original copper plate engaged with the gear teeth, which is installed so as to be supported on the coin longitudinal dike addition the driven shaft ball. The method of claim 1, The driving cleaning protrusion is formed with a circular bending groove for assisting the bending of the area in contact with the driving juice tube portion when the contact with the driving juice tube portion, wherein the driven cleaning protrusion is the Juicer, characterized in that the bent auxiliary groove is formed to assist the area in contact with the driven juice pipe is formed. The method according to claim 1 or 2, And a connecting lever connecting the driven connecting plate and the driven connecting plate to maintain the engaged ring gear and the driven ring gear in an engaged state.

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