Tea juice processing equipment

Abstract

The invention discloses tea juice treatment equipment, and relates to the technical field of tea juice treatment. The device comprises a separation net provided with a through hole, a cutter head and a dial wheel plate crushing assembly which are coaxially arranged up and down, an adjustable magnetic coupling driving part composed of an electromagnet and a planetary gear, a bidirectional flow centrifugal separation chamber, a filter element fine filtration cavity and a non-stop screw deslagging mechanism. Flushing wastewater is actively pre-crushed and then tangentially guided to a centrifugal cavity, and solid and liquid are rapidly separated under the synergistic effect of centrifugal force and suction pressure difference; a liquid phase is subjected to center suction, refined filtration, clarification and discharge, and a solid phase settles along the inner wall and is automatically conveyed to the outside for sealed collection. According to the system, the rotating speed is adjusted in a closed-loop mode through online particle monitoring, load self-adaption and low-energy-consumption operation are achieved, filter screen blockage, shutdown cleaning and peculiar smell diffusion are avoided, and the system is suitable for on-site up-to-standard treatment of tea residue sewage in the peak period of a catering store.

Description

Technical Field

[0001] The present invention relates to the technical field of tea juice processing, in particular to tea juice processing equipment. Background Art

[0002] The back-end cleaning process of restaurants, tea chains, and small and medium-sized tea culture experience centers produces a large amount of mixed wastewater containing tea residue, syrup residue, and dairy ingredients every day. Currently, the industry generally uses a low-cost combination of "grid - sedimentation well - bag filter - small grease trap" or "mechanical screen - simple sedimentation tank - lift pump" to complete primary solid-liquid separation and discharge pretreatment. Its main features are: Solid-liquid retention relies on static filter cloth / bag filters. When faced with wastewater containing whole leaves, tea stems, and flocculent foam after flushing, the filter surface is easily covered by large leaves, resulting in a sharp increase in pressure difference and a sudden drop in flow rate in just ten minutes. Cleaning methods often require manual removal of filter bags or direct use of high-pressure water guns to flush the screen, resulting in high labor intensity, long downtime, and increased secondary wastewater volume. There is no pre-crushing or homogenization mechanism; When the flushing water enters the static sedimentation tank with high-speed pulsation in the pipeline, the intact tea leaves often carry the attached syrup and milk-based particles and fail to settle sufficiently, which not only increases the concentration of suspended solids (SS) but also easily forms siltation at the elbows of the pipeline. Short-term blockage requires pipe removal and unblocking; the residue clumps will also block the active interface of the downstream aeration or biochemical unit, causing fluctuations in treatment efficiency.

[0003] In summary, the existing tea wastewater pretreatment scheme has obvious defects in solid-liquid separation efficiency, slag capacity and operation continuity. Summary of the Invention

[0004] To overcome the above-mentioned defects of the prior art, the present invention provides the following technical solutions: a tea juice processing device, comprising a separation processing barrel, a separation net coaxially arranged inside the separation processing barrel, a plurality of through holes being opened on the circumferential surface of the separation net for separating tea leaves from liquid; a dial plate rotatably mounted on the inner wall of the separation net, a cutter disc rotatably mounted between the bottom of the dial plate and the bottom of the separation processing barrel, the cutter disc being used to crush the tea leaves; a separation chamber is provided below the separation processing barrel, a circular array of equidistantly arranged guide pipes are fixedly connected to the outer surface of the separation chamber, the end of each guide pipe away from the separation chamber is fixedly connected to the bottom edge of the separation processing barrel; a drainage pipe is fixedly mounted on the axial position of the separation chamber, a plurality of drainage through holes being opened on the outer surface of the drainage pipe, a driving impeller is rotatably mounted inside the drainage pipe, the driving impeller and the cutter disc are driven to rotate by a driving unit, the driving unit including a transmission shaft fixedly connected to the driving impeller and penetrating, the driving unit also including a gear ring disc rotatably mounted on the bottom surface of the outer surface of the separation processing barrel, the gear ring disc and the cutter disc being fixed and rotated synchronously by a rotating shaft.

[0005] Preferably, the separation net is fixed to the bottom of the inner wall of the separation processing barrel; two thumbwheel plates are provided on the inner wall of the separation net to support the rotation limit ring, and there are three thumbwheel plates in total. The three thumbwheel plates are fixed on the rotating column in a circular equidistant array, and the edges of the three thumbwheel plates are rotated and set between the two thumbwheel plates supporting the rotation limit ring to prevent the rotating column from moving axially.

[0006] Preferably, the cutter disc is rotatably mounted at the bottom of the separation treatment barrel, a spline cam is fixedly mounted on the axis of the cutter disc, a permanent magnet is sleeved on the spline cam in a spline sliding manner, and the permanent magnet and the rotating column are magnetically friction matched.

[0007] Preferably, the transmission shaft is rotationally sealed with the drainage pipe and the separation chamber; the bottom of the separation chamber is fixedly connected to the sedimentation chamber, one end of the drainage pipe passes through the sedimentation chamber and extends to the outside of the sedimentation chamber, the bottom of the sedimentation chamber is fixedly connected to the slag discharge pipe, the end of the slag discharge pipe is fixedly sealed with a sealing cover in a manner that is easy to disassemble, a screw is rotationally installed at the bottom of the sedimentation chamber and in the slag discharge pipe, a slag discharge motor is fixedly installed on the outer surface of the sedimentation chamber, the output shaft of the slag discharge motor is fixedly matched with the screw, and the output shaft of the slag discharge motor is rotationally sealed with the deposition chamber.

[0008] Preferably, the driving part also includes a sealing bracket plate fixedly mounted on the bottom surface of the outer surface of the separation processing barrel, and an electromagnet is fixedly mounted on the axial position of the outer surface of the sealing bracket plate; wherein the gear ring disk is rotatably mounted inside the sealing bracket plate, and a permanent magnet gear mounting disk that cooperates with the magnetic force of the electromagnet is also rotatably mounted on the inner wall of the sealing bracket plate, and a plurality of planetary gears are rotatably mounted on the permanent magnet gear mounting disk, and a central gear is rotatably arranged between the opposite surfaces of the permanent magnet gear mounting disk and the gear ring disk, and the central gear and the gear ring disk are meshed and transmitted through all the planetary gears.

[0009] Preferably, a driving motor is fixedly mounted on the outer surface of the separation chamber, and the output shaft of the driving motor is connected to the through transmission shaft via a transmission belt, wherein the deposition chamber is fixedly mounted on the base, and a protective shell is fixedly mounted on the base.

[0010] Preferably, a filter chamber is fixedly installed on the base, the bottom of the filter chamber is fixedly connected to the drainage pipe through the treatment inlet, the top of the filter chamber is fixedly connected to the treatment outlet, and a filter element is provided inside the filter chamber.

[0011] Preferably, the separation treatment barrel, the separation chamber, the sedimentation chamber, and the filtration chamber are all fixedly installed inside the protective shell, and the separation treatment barrel, the slag discharge pipe, and the treatment discharge port are all extended to the outside of the protective shell.

[0012] Preferably, a cover plate collar is fixedly mounted on the top of the inner wall of the separation treatment barrel, the cover plate collar is fixed to the top edge of the separation net, and a cover plate is magnetically overlapped on the cover plate collar.

[0013] Compared with the prior art, the present invention has the following advantages: (1) The present invention forms a turbulent shear zone with an upper and lower linkage through the blade disc and the paddle plate, so that the whole leaves and clumped tea residues in the flushing wastewater are crushed into fine particles before entering the filter screen, avoiding large-volume residues adhering to the filter surface and causing instantaneous blockage; at the same time, the paddle plate continuously stirs the water flow, which can produce periodic shear on the filter screen surface, forming a "filtering and peeling" self-cleaning cycle. Compared with static filter cloth or bag filter, single-shift operation can maintain a stable flux without manual disassembly and cleaning; (2) The present invention arranges the crushing, primary filtration, centrifugal separation, fine filtration and screw slag discharge coaxially in one machine body, and the tea residue is directly pushed from the sedimentation chamber to the outside of the slag discharge pipe by the screw for collection, and the liquid phase flows out along the closed route of drainage pipe-filter chamber-treatment outlet, realizing no intermediate exposure and short path transportation. This structure not only eliminates the long pipeline between the traditional "grid-sedimentation box-lift pump", but also completely eliminates the risk of multi-node leakage and secondary pollution; (3) The adjustable magnetic resistance transmission mechanism composed of the electromagnet-permanent magnet gear mounting plate-planetary gear of the present invention can automatically change the speed of the cutter disc / paddle plate and the centrifugal intensity according to the real-time feedback of the suspended solids concentration and turbidity of the water particulate matter online detector. When the flushing peak causes a surge in solid content, the system can increase the shear and centrifugal speed within milliseconds, and automatically reduce the speed to save energy when the load drops, avoiding ineffective high speed; (4) The screw at the bottom of the sedimentation chamber of the present invention realizes synchronous and continuous slag discharge under the drive of the slag discharge motor, and a thin layer of wet slag is always retained at the end of the screw to act as a liquid seal, eliminating the odor from escaping during operation. There is no need to reach out to clean or flush with a high-pressure water gun; the entire machine maintains a fully enclosed negative pressure microenvironment, the odor in the workshop is significantly reduced, and the cleaning burden caused by employee exposure and ground splashing is reduced. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 This is a schematic diagram of the protective shell structure of the present invention.

[0015] Figure 2 It is a schematic diagram of the overall structure of the present invention.

[0016] Figure 3 It is a structural schematic diagram of the transmission belt of the present invention.

[0017] Figure 4 Schematic diagram of the deposition chamber structure of the present invention.

[0018] Figure 5 Schematic diagram of the separation chamber structure of the present invention.

[0019] Figure 6 This is a schematic diagram of the separation and processing barrel structure of the present invention.

[0020] Figure 7 It is a structural schematic diagram of the spline cam of the present invention.

[0021] Figure 8 This is a schematic diagram of the internal structure of the sealing bracket gusset plate of the present invention.

[0022] In the figure: 101-separation treatment barrel; 102-cover plate ring; 103-cover plate; 104-rotating column; 105-paddle wheel plate; 106-paddle wheel plate supporting rotation limit ring; 107-separation net; 108-permanent magnet; 109-knife disc; 110-guide tube; 111-spline cam; 112-gear ring disc; 113-sealing bracket buckle plate; 114-permanent magnet gear mounting disc; 115-planetary gear; 116-electromagnet; 117-center gear Wheel; 118-through transmission shaft; 119-separation chamber; 120-drainage pipe; 121-drainage through hole; 122-driving impeller; 123-sedimentation chamber; 124-slag discharge motor; 125-screw; 126-slag discharge pipe; 127-transmission belt; 128-driving motor; 129-sealing cover; 130-filtration chamber; 131-filter element; 132-treatment discharge port; 133-treatment inlet; 134-protective shell; 135-base. DETAILED DESCRIPTION

[0023] The following is combined with Figure 1-8 , and further illustrate the technical solution of the present invention through specific implementation methods.

[0024] The present invention provides a tea juice processing device, comprising a separation processing barrel 101, wherein a separation net 107 is coaxially provided inside the separation processing barrel 101, and a plurality of through holes are provided on the circumferential surface of the separation net 107 for separating tea leaves from liquid; a dial plate 105 is rotatably installed on the inner wall of the separation net 107, and a knife disc 109 is rotatably provided between the bottom of the dial plate 105 and the bottom of the separation processing barrel 101, and the knife disc 109 is used to crush the tea leaves; a separation chamber 119 is provided below the separation processing barrel 101, and a guide pipe 110 is fixedly connected and installed in a circular equidistant array at a tangential position of the outer surface of the separation chamber 119, and each guide pipe 110 is away from One end of the separation chamber 119 is fixedly connected to the bottom edge position inside the separation treatment barrel 101; a drainage pipe 120 is fixedly installed at the axial position inside the separation chamber 119, and a plurality of drainage holes 121 are opened on the outer surface of the drainage pipe 120. A driving impeller 122 is rotatably installed inside the drainage pipe 120, and the driving impeller 122 and the cutter disc 109 are driven to rotate by a driving part. The driving part includes a transmission shaft 118 fixedly connected to the driving impeller 122, and the driving part also includes a gear ring disk 112 rotatably installed on the bottom surface of the outer surface of the separation treatment barrel 101, and the gear ring disk 112 and the cutter disc 109 are fixed and rotated synchronously by a rotating shaft. The separation net 107 is fixed to the bottom of the inner wall of the separation and processing barrel 101. Two thumbwheel plates are installed on the inner wall of the separation net 107 to support the rotation limit ring 106. There are three thumbwheel plates 105 in total, which are fixed to the rotating column 104 in a circular array with equal spacing. The edges of the three thumbwheel plates 105 are rotatably positioned between the two thumbwheel plates supporting the rotation limit ring 106 to prevent axial movement of the rotating column 104. The cutter head 109 is rotatably mounted on the bottom of the separation and processing barrel 101. A splined protrusion 111 is fixedly mounted on the axis of the cutter head 109. A permanent magnet 108 is mounted on the splined protrusion 111 in a splined sliding manner. The permanent magnet 108 and the rotating column 104 are magnetically frictionally engaged. The transmission shaft 118 is rotationally sealed with the drainage pipe 120 and the separation chamber 119; the bottom of the separation chamber 119 is fixedly connected to the sedimentation chamber 123, one end of the drainage pipe 120 passes through the sedimentation chamber 123 and extends to the outside of the sedimentation chamber 123; the bottom of the sedimentation chamber 123 is fixedly connected to the slag discharge pipe 126, and the end of the slag discharge pipe 126 is fixedly sealed with a sealing cover 129 in a manner that is easy to disassemble; a screw 125 is rotationally installed at the bottom of the sedimentation chamber 123 and in the slag discharge pipe 126; a slag discharge motor 124 is fixedly installed on the outer surface of the sedimentation chamber 123; the output shaft of the slag discharge motor 124 is fixedly matched with the screw 125, and the output shaft of the slag discharge motor 124 is rotationally sealed with the deposition chamber 123.

[0025] The drive unit also includes a sealing bracket plate 113 fixedly mounted on the bottom surface of the separation and processing barrel 101. An electromagnet 116 is fixedly mounted on the axis of the outer surface of the sealing bracket plate 113. A gear ring disk 112 is rotatably mounted within the sealing bracket plate 113. A permanent magnet gear mounting disk 114 is also rotatably mounted on the inner wall of the sealing bracket plate 113, magnetically cooperating with the electromagnet 116. A plurality of planetary gears 115 are rotatably mounted on the permanent magnet gear mounting disk 114. A central gear 117 is rotatably mounted between the opposing surfaces of the permanent magnet gear mounting disk 114 and the gear ring disk 112. The central gear 117 and the gear ring disk 112 are meshed and driven by all the planetary gears 115. A drive motor 128 is fixedly mounted on the outer surface of the separation chamber 119. The output shaft of the drive motor 128 is connected to the transmission shaft 118 via a transmission belt 127. The deposition chamber 123 is fixedly mounted on a base 135, on which a protective housing 134 is fixedly mounted. A filter chamber 130 is also fixedly installed on the base 135. The bottom of the filter chamber 130 is fixedly connected to the drainage pipe 120 through a treatment inlet 133. The top of the filter chamber 130 is fixedly connected to a treatment outlet 132. A filter element 131 is provided inside the filter chamber 130.

[0026] The separation and processing barrel 101, separation chamber 119, sedimentation chamber 123, and filtration chamber 130 are all fixedly mounted inside a protective housing 134. The separation and processing barrel 101, slag discharge pipe 126, and processing outlet 132 all extend outside the protective housing 134. A cover plate collar 102 is fixedly mounted on the top of the inner wall of the separation and processing barrel 101. The cover plate collar 102 is fixed to the top edge of the separation net 107, and a cover plate 103 is magnetically attached to the cover plate collar 102.

[0027] The working principle of a tea juice processing device disclosed in the present invention is as follows: the cover plate 103 is removed from the cover plate ring 102, and then the tea juice is poured in. At this time, the drive motor 128 and the electromagnet 116 are started, and the output shaft of the drive motor 128 drives the through-drive shaft 118 to rotate through the transmission belt 127. The rotation of the through-drive shaft 118 will drive the central gear 117 to rotate (the through-drive shaft 118 and the electromagnet 116, the sealing bracket buckle plate 113, and the permanent magnet gear mounting disk 114 all rotate in coordination). When the electromagnet 116 is started, it will generate magnetic force (the magnetic force of the electromagnet 116 is controllable). After generating magnetic force, the electromagnet 116 will magnetically attract the permanent magnet gear mounting disk 114, limiting the permanent magnet gear mounting disk 114 from rotating in the sealing bracket buckle plate 113. Changing the magnetic force of the electromagnet 116 can change the resistance encountered by the permanent magnet gear mounting disk 114 in its rotation. The rotation of the central gear 117 will drive the gear ring disk 112 to rotate through the planetary gear 115, and the rotation of the gear ring disk 112 will drive the cutter disc 109 to rotate. The rotation of the cutter disc 109 will drive the permanent magnet 108 to rotate through the spline cam 111. At the same time, the rotation of the cutter disc 109 will crush the tea leaves in the tea juice, and at the same time, it will drive the tea juice to rotate, so that the liquid passes through the separation net 107 and enters the separation treatment barrel 101 (the space between the inner wall of the separation treatment barrel 101 and the outer surface of the separation net 107); at the same time, the electromagnetic winding inside the rotating column 104 can be started (the rotating column 104 is provided with an electromagnetic winding), and the rotating column 104 generates a magnetic force. To attract the permanent magnet 108 to contact the bottom of the rotating column 104, so that magnetic contact is formed between the permanent magnet 108 and the rotating column 104, and then the permanent magnet 108 drives the dial plate 105 on the rotating column 104 to rotate through friction, and the rotation of the dial plate 105 will further drive the tea juice to rotate, thereby increasing the rotation effect of the tea juice inside the separation and processing barrel 101 (the blade disc 109 drives the tea juice to rotate at the bottom, and the top does not rotate, while the dial plate 105 drives the tea juice to rotate as a whole, and the function of the blade disc 109 is mainly to crush the tea leaves in the tea juice), which is conducive to the crushed tea leaves passing through the separation net 107.

[0028] After separation and filtration, the tea juice enters the separation chamber 119 through the guide tube 110, along the inner wall of the separation chamber 119, and rotates within the separation chamber 119. The rotation of the drive shaft 118 also drives the impeller 122 to rotate. This rotation drives the liquid outside the drainage pipe 120 to flow through the drainage holes 121 and into the drainage pipe 120. Simultaneously, the rotating tea juice inside the separation chamber 119 separates the tea powder from the liquid (because the density of tea leaves is greater than that of water, centrifugal force causes them to separate). The tea powder is centrifugally driven along the inner wall of the separation chamber 119, while the liquid passes through the drainage holes 121 and enters the drainage pipe 120. It then enters the bottom of the filtration chamber 130 through the treatment inlet 133. Further filtration by the filter element 131 removes the finer tea powder and other impurities in the liquid, and is then discharged through the treatment outlet 132. The tea leaves rotating along the inner wall of the separation chamber 119 will gradually accumulate at the bottom of the sedimentation chamber 123 under the action of gravity. When the accumulation reaches a certain level (for example, it is full, or accumulated to half of the capacity of the sedimentation chamber 123), the slag discharge motor 124 is started, and the output shaft of the slag discharge motor 124 drives the screw 125 to rotate. The rotation of the screw 125 will drive the tea powder deposited inside the sedimentation chamber 123 to move into the slag discharge pipe 126. At this time, the sealing cover 129 is removed from the slag discharge pipe 126 to discharge the tea powder inside the sedimentation chamber 123 (there is always residual tea powder at the bottom of the sedimentation chamber 123, which is used to start the sealing function). After discharge, the sealing cover 129 can be installed back. At the same time, according to the filtering condition of the tea juice (a water particle detector is provided inside the processing inlet 133), the magnetic force of the electromagnet 116 is adjusted (the current input to the electromagnet 116 is controlled), and the magnetic constraint force on the permanent magnet gear mounting plate 114 is changed, thereby changing the resistance encountered by the planetary gear 115 in its revolution. When the magnetic force of the electromagnet 116 increases, the transmission shaft 118 passing through the same speed will increase the transmission ratio transmitted from the center gear 117 to the cutter disc 109, and vice versa, thereby controlling the rotation of the cutter disc 109 and / or the rotation speed of the dial plate 105, thereby controlling the rotation speed of the tea leaves in the tea juice. Increasing the speed can increase the degree of separation between the tea leaves and the liquid, thereby increasing the filtering effect, and at the same time, it will also increase the speed at which the tea juice enters the separation chamber 119 through the guide tube 110.

Claims

1. A tea juice processing device, characterized in that: The invention comprises a separation processing barrel (101), wherein a separation net (107) is coaxially arranged inside the separation processing barrel (101), and a plurality of through holes are provided on the circumferential surface of the separation net (107) for separating tea leaves from liquid; a dial plate (105) is rotatably mounted on the inner wall of the separation net (107), and a knife disc (109) is rotatably arranged between the bottom of the dial plate (105) and the bottom of the separation processing barrel (101), and the knife disc (109) is used for crushing the tea leaves; A separation chamber (119) is provided below the separation treatment barrel (101), and flow guide tubes (110) are fixedly connected and installed in a circular equidistant array at tangential positions on the outer surface of the separation chamber (119), and one end of each flow guide tube (110) away from the separation chamber (119) is fixedly connected to the bottom edge position inside the separation treatment barrel (101); A drainage pipe (120) is fixedly installed at an axial position inside the separation chamber (119), and a plurality of drainage holes (121) are opened on the outer surface of the drainage pipe (120). A driving impeller (122) is rotatably installed inside the drainage pipe (120), and the driving impeller (122) and the cutter disc (109) are driven to rotate by a driving unit, and the driving unit includes a transmission shaft (118) fixedly connected to the driving impeller (122). The driving unit also includes a gear ring disk (112) rotatably installed on the bottom surface of the outer surface of the separation treatment barrel (101), and the gear ring disk (112) and the cutter disc (109) are fixed and rotate synchronously by a rotating shaft.

2. The tea juice processing equipment according to claim 1, characterized in that: The separation net (107) is fixed to the bottom of the inner wall of the separation treatment barrel (101); two thumbwheel plates are provided on the inner wall of the separation net (107) to support the rotation limit ring (106), and there are three thumbwheel plates (105) in total. The three thumbwheel plates (105) are fixed on the rotating column (104) in a circular equidistant array, wherein the edges of the three thumbwheel plates (105) are rotatably provided between the two thumbwheel plates supporting the rotation limit ring (106) to prevent the rotating column (104) from moving axially.

3. The tea juice processing equipment according to claim 2, characterized in that: The cutter disc (109) is rotatably mounted on the bottom of the separation treatment barrel (101). A spline cam (111) is fixedly mounted on the axis of the cutter disc (109). A permanent magnet (108) is sleeved on the spline cam (111) in a spline sliding manner. The permanent magnet (108) and the rotating column (104) are magnetically friction-matched.

4. The tea juice processing equipment according to claim 3, characterized in that: The transmission shaft (118) is connected to the drainage pipe (120) and the separation chamber (119) in a rotationally sealed manner; the bottom of the separation chamber (119) is fixedly connected to the sedimentation chamber (123), one end of the drainage pipe (120) passes through the sedimentation chamber (123) and extends to the outside of the sedimentation chamber (123); the bottom of the sedimentation chamber (123) is fixedly connected to the slag discharge pipe (126), and the end of the slag discharge pipe (126) is fixedly sealed and installed with a sealing cover (129) in a manner that is easy to disassemble; a screw (125) is rotatably installed at the bottom of the sedimentation chamber (123) and in the slag discharge pipe (126); a slag discharge motor (124) is fixedly installed on the outer surface of the sedimentation chamber (123); the output shaft of the slag discharge motor (124) is fixedly matched with the screw (125), and the output shaft of the slag discharge motor (124) is rotationally sealed with the sedimentation chamber (123).

5. The tea juice processing equipment according to claim 4, characterized in that: The driving part also includes a sealing bracket buckle plate (113) fixedly mounted on the bottom surface of the outer surface of the separation treatment barrel (101), and an electromagnet (116) is fixedly mounted at an axial position on the outer surface of the sealing bracket buckle plate (113); wherein the gear ring disk (112) is rotatably mounted inside the sealing bracket buckle plate (113), and a permanent magnet gear mounting disk (114) that cooperates with the electromagnet (116) by magnetic force is also rotatably mounted on the inner wall of the sealing bracket buckle plate (113), and a plurality of planetary gears (115) are rotatably mounted on the permanent magnet gear mounting disk (114), and a central gear (117) is rotatably arranged between the opposite surfaces of the permanent magnet gear mounting disk (114) and the gear ring disk (112), and the central gear (117) and the gear ring disk (112) are meshed and driven by all the planetary gears (115).

6. The tea juice processing equipment according to claim 5, characterized in that: A driving motor (128) is fixedly mounted on the outer surface of the separation chamber (119), and an output shaft of the driving motor (128) is connected to the transmission shaft (118) through a transmission belt (127), wherein the deposition chamber (123) is fixedly mounted on a base (135), and a protective housing (134) is fixedly mounted on the base (135).

7. The tea juice processing equipment according to claim 6, characterized in that: A filter chamber (130) is also fixedly mounted on the base (135). The bottom of the filter chamber (130) is fixedly connected to the drainage pipe (120) via the treatment inlet (133). The top of the filter chamber (130) is fixedly connected to the treatment outlet (132). A filter element (131) is provided inside the filter chamber (130).

8. The tea juice processing equipment according to claim 7, characterized in that: The separation treatment barrel (101), the separation chamber (119), the sedimentation chamber (123), and the filter chamber (130) are all fixedly installed inside the protective shell (134), and the separation treatment barrel (101), the slag discharge pipe (126), and the treatment discharge port (132) are all extended to the outside of the protective shell (134).

9. The tea juice processing equipment according to claim 8, characterized in that: A cover plate collar (102) is fixedly mounted on the top of the inner wall of the separation treatment barrel (101), the cover plate collar (102) is fixed to the top edge of the separation net (107), and a cover plate (103) is magnetically overlapped on the cover plate collar (102).

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