A quantitative tea-stripping device

Abstract

This invention relates to a quantitative tea-strip-forming device, comprising a housing; a first power component including a first guide rail and a first sliding plate slidably connected to the first guide rail, the first guide rail being disposed on the housing; a second power component including a second guide rail and a second sliding plate slidably connected to the second guide rail, the second guide rail being disposed on the first sliding plate; a third power component including a third sliding plate and a third power element disposed on the third sliding plate; and a tea-strip-forming component including a heating element, a telescopic element, and a tea-strip-forming plate. The heating element is fixed to the output end of the third power component, one end of the telescopic element is fixed to the heating element, and the other end of the telescopic element is fixed to the tea-strip-forming plate. The heating element has a heating cavity, and the telescopic element has a cavity, with the heating cavity and the cavity communicating with each other. This device, through the coordinated operation of the first, second, and third power components, achieves flexible movement in the X, Y, and Z directions. Combined with the effects of the telescopic element and the tea-strip-forming plate, it achieves a technical effect similar to traditional manual tea-strip-forming methods.

Description

Technical Field

[0001] This invention relates to the field of tea leaf shaping technology, and more particularly to a quantitative tea leaf shaping device. Background Technology

[0002] In the tea processing industry, shaping is a key process for shaping the appearance of tea leaves and improving their quality. Shaping not only makes the tea leaves more exquisite and layered in appearance, but also elevates their quality. However, current technology has remained stagnant, limited by simple processing methods and low yields. This fundamental quality problem makes the high-quality development of the tea industry seem like a stone sinking into the sea, difficult to achieve.

[0003] The main reasons for the low quality of processed tea leaves are as follows: First, poor uniformity in the processing is the direct cause of low quality. Existing equipment generally suffers from crude quantitative control, and fluctuations in the input directly lead to uneven heating and stress on the tea leaves during the processing. This makes it difficult to stabilize key quality indicators such as the tightness of the tea leaves, color, and aroma of the final product, making it impossible to produce high-grade tea with uniform quality. Second, inherent defects in heating technology directly damage the quality of the tea. Equipment using electric heating often lacks a precise temperature control system, resulting in uneven temperature distribution within the processing trough. This easily leads to localized over-scorching or under-heating, directly causing a deterioration in tea quality.

[0004] In summary, due to a series of defects in existing technologies, such as uneven processing, poor heating, and relatively poor adaptability, they cannot meet the stringent requirements of modern tea processing for high quality, resulting in the tea leaves produced by processing not reaching a high level of quality. Summary of the Invention

[0005] The technical problem to be solved by the present invention is to overcome the defect of low quality of tea leaves in the prior art, and thus provide a quantitative tea leaf straightening device.

[0006] To achieve the above objectives, the present invention adopts the following technical solution: A quantitative tea-stripping device, comprising: case; The first power assembly includes a first guide rail and a first sliding plate slidably connected to the first guide rail, wherein the first guide rail is fixedly mounted on the housing; The second power assembly includes a second guide rail and a second slide plate slidably connected to the second guide rail, wherein the second guide rail is fixedly mounted on the first slide plate; The third power assembly includes a third slide plate and a third power component fixedly mounted on the third slide plate, wherein the third slide plate is fixed to the second slide plate; The strip-arranging assembly includes a heating element, a telescopic element, and a strip-arranging plate. The heating element is fixed to the output end of the third power element. One end of the telescopic element is fixed to the heating element, and the other end of the telescopic element is fixed to the strip-arranging plate. The heating element has a heating cavity, and the telescopic element has a cavity. The heating cavity and the cavity are in communication.

[0007] Preferably, there are two strip-arranging components, which are arranged opposite to each other and spaced apart to form a retention gap. In the vertical direction, the distance of the retention gap is greater than the distance between any two strip-arranging plates located below the fourth row, and the strip-arranging plate located below the fourth row can abut against the strip-arranging plate located below the fourth row on another strip-arranging component.

[0008] Preferably, the dimensions of the strip gradually increase from top to bottom along the vertical direction.

[0009] Preferably, along the vertical direction, the length of the telescopic member within the retention gap gradually increases from top to bottom, and the length of the telescopic member outside the retention gap gradually increases from top to bottom. The inclined surfaces of the heating elements are arranged opposite each other, and the distance between the inclined surfaces of the heating elements gradually increases from top to bottom.

[0010] Preferably, the projections of adjacent strips overlap at least partially in the vertical direction.

[0011] Preferably, the strip assembly further includes a guide plate and a baffle. The guide plate has a slot and is fixedly connected to the housing. The size of the slot gradually decreases from top to bottom along the vertical direction. In the vertical direction, the baffle is disposed on the lower side of the slot, and the baffle can move inward or outward in the second direction.

[0012] Preferably, the first power assembly further includes a first power component, which is fixed to the housing, and the output end of the first power component is fixed to the first slide plate. The first power component drives the first slide plate to reciprocate along a first direction. The second power assembly further includes a second power component, which is fixed to the housing. The output end of the second power component is fixed to the second slide plate. The second power component drives the second slide plate to reciprocate along the second direction. The third power assembly also includes a third power component, the output end of which is fixed to the heating element, and the third power component drives the heating element to reciprocate along a third direction.

[0013] Preferably, the strip assembly further includes a collection box, which is disposed below the heating element in the vertical direction and spaced apart from the heating element.

[0014] Compared with the prior art, the beneficial effects of the present invention are as follows: The quantitative tea-stripping device provided in the above technical solution uses a housing as a stable support. A first power component inside drives the first guide rail and first sliding plate of the first power assembly, enabling the tea-stripping assembly to move in a first direction. A second power component fixed to the housing drives the second guide rail and second sliding plate of the second power assembly, achieving reciprocating motion in a second direction. The third sliding plate and third moving component of the third power assembly drive the tea-stripping assembly to move in a third direction. The three power components work together, giving the tea-stripping assembly flexible movement capabilities in three-dimensional space. The tea-stripping assembly is the core execution unit of the device. The heating chamber inside the heating element and the cavity inside the telescopic element are interconnected, allowing heat energy to be efficiently and evenly transferred to the tea-stripping plate, ensuring consistent heating of the tea leaves and avoiding localized over-scorching or under-scorching. Driven by three-dimensional motion, the heating element, telescopic element, and tea-stripping plate work closely together. The tea-stripping plate performs a combination of pushing, kneading, and pressing actions on the softened tea leaves, achieving a technical effect similar to traditional manual tea-stripping, making the tea leaves tight and straight, significantly improving the appearance quality and internal aroma, while also greatly increasing production efficiency and standardization. Attached Figure Description

[0015] To more clearly illustrate the specific embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the specific embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of the present invention. For those skilled in the art, other drawings can be obtained from these drawings without creative effort.

[0016] Figure 1 This is a front view of the overall assembly of the tea-quantitative strip-forming device provided by the present invention; Figure 2 A schematic diagram of the structure of the first power assembly provided by the present invention; Figure 3 This is a schematic diagram of the structure of the first power assembly and the second power assembly provided by the present invention; Figure 4 This is a schematic diagram of the structure of the slat assembly provided by the present invention; Figure 5 This is a schematic diagram of the assembly structure of the guide plate and the housing provided by the present invention; Figure 6 A top view of the assembly of the guide plate and the housing provided by the present invention; Figure 7 This is a front view of the overall assembly of the tea-quantitative strip-forming device provided by the present invention; Figure 8 A cross-sectional view of the ribbed assembly provided by the present invention.

[0017] Explanation of reference numerals in the attached figures: 1. Housing; 2. First power assembly; 21. First guide rail; 22. First slide plate; 3. Second power assembly; 31. Second guide rail; 32. Second slide plate; 4. Third power assembly; 41. Third slide plate; 42. Third power component; 5. Strip-arranging assembly; 51. Heating component; 511. Heating cavity; 52. Telescopic component; 521. Cavity; 53. Strip-arranging plate; 54. Retention gap; 55. Guide plate; 551. Slot; 56. Baffle; 57. Collection box. Detailed Implementation

[0018] The technical solution of the present invention will now be clearly and completely described with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0019] In the description of this invention, it should be noted that the terms "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of describing the invention and for simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0020] In the description of this invention, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.

[0021] In the description of this embodiment, to clarify the movement direction and spatial position relationship of each component, the following definitions are made: the first direction is the height direction of the housing 1 (i.e., the Z-axis direction in the figure), the second direction is the width direction of the housing 1 (i.e., the Y-axis direction in the figure), and the third direction is the length direction of the housing 1 (i.e., the X-axis direction in the figure). This invention achieves precise positioning and complex movement of the linear assembly 5 in three-dimensional space through the coordination of multiple sets of power components.

[0022] like Figures 1 to 8As shown, the tea-making quantitative strip-forming device provided by the present invention has a core structure including a shell 1 as the installation and support base, and a first power component 2, a second power component 3, a third power component 4 and a core strip-forming component 5 mounted layer by layer from the inside out.

[0023] The housing 1 is made of rigid metal materials welded or bolted together to form a stable frame structure, providing precise installation references and operational protection for all internal components, and ensuring the stability of the entire device in high-speed reciprocating motion.

[0024] like Figure 2 As shown, the first power assembly 2 is the foundation for realizing movement in the Z-axis direction (first direction). The first power assembly 2 includes at least two first guide rails 21, which are vertically fixedly installed on the outer wall of the housing 1 along the first direction (height direction), providing vertical guidance for the subsequent strip assembly 5 and ensuring that the movement is free from sway. The first slide plate 22 is slidably connected to the first guide rails 21, and the first slide plate 22 can slide smoothly along the first guide rails 21 in the Z-axis direction. In addition, the first power assembly 2 also includes a first power component not shown in detail in the figure. The first power component can be a servo motor or a hydraulic cylinder. The first power component is fixed to the housing 1, and its output end is fixedly connected to the first slide plate 22 for driving the first slide plate 22 to perform high-precision reciprocating linear motion along the first direction.

[0025] like Figure 3 As shown, the second power assembly 3 is mounted on the first slide plate 22 and is the key to realizing the movement in the Y-axis direction (second direction). It includes a second guide rail 31 fixedly mounted on the upper surface of the first slide plate 22 along the second direction (width direction) and a second slide plate 32 slidably connected to the second guide rail 31.

[0026] The second slide plate 32 can slide along the second guide rail 31 in the Y-axis direction. Similarly, the second power assembly 3 also includes a second power component, which is fixed to the housing 1 or the first slide plate 22. Its output end drives the second slide plate 32 to reciprocate along the second direction, realizing the lateral opening and closing and position adjustment of the strip assembly 5 on the horizontal plane.

[0027] The third power assembly 4 is fixed on the second slide plate 32 and is an execution unit that realizes the movement in the X-axis direction (third direction). It includes a third slide plate 41 that is rigidly connected to the second slide plate 32 and moves together with the second slide plate 32, and a third power component 42 that is fixedly installed on the third slide plate 41.

[0028] The output end of the third power component 42 is set along the third direction (length direction) and is fixedly connected to the heating component 51 of the sizing assembly 5, driving the sizing assembly 5 to perform push-pull motion along the X-axis, simulating the kneading action during manual sizing.

[0029] Through the nested design of the three sets of power components, the strip-forming component 5, under the coordinated work of the first power component 2, the second power component 3, and the third power component 4, achieves flexible, independent, and composite motion in the three orthogonal directions of X, Y, and Z, providing a mechanical basis for reproducing the complex trajectory of ancient manual strip-forming techniques.

[0030] like Figure 4 , Figure 8 As shown, the strip-arranging assembly 5 is the core execution unit of this device. Two sets of strip-arranging assemblies 5 are symmetrically arranged. The strip-arranging assembly 5 includes a heating element 51 fixedly connected to the output end of the third power element 42, a telescopic element 52 fixed at one end to the heating element 51 and at the other end to the strip-arranging plate 53, a strip-arranging plate 53, a guide plate 55, a baffle 56, and a collection box 57.

[0031] The heating element 51 has a heating chamber 511 inside. The heating element 51 is made of 310S stainless steel or heat-resistant alloy steel that can withstand high temperatures of 100℃ to 250℃ and has high hardness, in order to ensure the structural stability of the core of the heat source and to withstand the extrusion without deformation during the sizing process.

[0032] The telescopic component 52 has a cavity 521 that communicates with the heating chamber 511. The material of the telescopic component 52 is resistant to high temperatures of 100℃ to 250℃, and its hardness must be lower than that of the tea-stripping plate 53. For example, high-temperature resistant silicone or special engineering plastics can be used. On the one hand, it acts as a flexible bridge for heat conduction, evenly transferring heat to the tea-stripping plate 53; on the other hand, its lower hardness provides a certain degree of elastic cushioning, protecting the tea leaves from being excessively squeezed and broken during the tea-stripping process.

[0033] The shaping plate 53 is the working component that comes into direct contact with the tea leaves. It is made of a high-temperature resistant material, and its hardness must be less than that of the heating element 51 but greater than that of the telescopic element 52. For example, special ceramics or high-hardness composite materials can be used. This hardness gradient design of telescopic element 52 < shaping plate 53 < heating element 51 forms a system that combines rigidity and flexibility: the heating element 51 provides stable support, the telescopic element 52 provides elastic cushioning, and the shaping plate 53 has sufficient hardness to shape the tea leaves and appropriate toughness to protect them. According to claim 3, the dimensions of the shaping plate 53 gradually increase from top to bottom along the vertical direction, adapting to the gradual softening and volume changes of the tea leaves during the shaping process, thus achieving graded force application.

[0034] The retention gap 54 is formed by two opposing shaping components 5. Its core function is to slow down the descent of the tea leaves due to gravity. When the tea leaves fall from above, they do not directly impact the bottom shaping plate 53, but rather briefly linger and tumble within this V-shaped or trapezoidal space. A portion of the tea leaves from this batch is first placed into the retention gap 54 for pre-shaping. The initial heating and slight pressure from the upper shaping plate 53 soften and shape the tea leaves. This allows the tea leaves requiring shaping to remain on the shaping plate 53 for longer periods, especially during the main shaping stage, thus enhancing the shaping effect of the plate 53 and resulting in tighter tea leaves.

[0035] A guide plate 55 is fixedly connected to the top of the housing 1 and includes a slot 551. According to claim 6, the size of the slot 551 gradually decreases from top to bottom in the vertical direction, forming a funnel-shaped structure. This provides initial aggregation and quantitative guidance of the input tea leaves, ensuring that the tea leaves can enter the processing area below in an orderly and concentrated manner.

[0036] The baffle 56 is located on the lower side of the slot 551 and can move inward (closed) or outward (open) along the second direction (Y-axis). As a gate for tea leaf feeding, precisely controlling the amount and timing of tea leaves entering the retention gap 54 each time is one of the key components for achieving quantitative tea leaf processing.

[0037] The collection box 57 is located vertically below the heating element 51, spaced apart from it. This facilitates the collection of the sorted tea leaves, enabling subsequent recycling or unloading, while preventing the tea leaves from contacting the high-temperature components at the bottom of the device.

[0038] The complete workflow of this device will be described in detail below, which fully demonstrates the synergistic effect and technological advantages of its components: First, the control system activates the first power assembly 2, the second power assembly 3, and the third power assembly 4. The first power assembly drives the first slide plate 22 to move along the first guide rail 21 in the negative Z-axis direction (downward) to a predetermined position; the second power assembly drives the second slide plate 32 to move along the second guide rail 31 outward along the Y-axis, causing the two strip-arranging assemblies 5 to move away from each other; the third power assembly 42 drives the heating element 51 to move in the negative X-axis direction. The final technical effect of this series of coordinated actions is to create a safe and sufficient gap between the entire strip-arranging assembly 5 and the top guide plate 55, preparing for subsequent heating medium injection and feeding.

[0039] After the tea-making assembly 5 is in standby mode, heating preparation begins. The operator or control system closes the outlet valve (not shown in the figure) on the heating element 51, and then opens its inlet valve. A heating medium, such as heat transfer oil or high-temperature steam, is added to the heating chamber 511 inside the heating element 51 through external pipes or other means. After adding the medium, the inlet valve is immediately closed to ensure the sealing of the heating chamber 511. The heating system is then started to raise the temperature of the heating medium to the set operating temperature. Because the heating chamber 511 and the cavity 521 inside the telescopic component 52 are interconnected, heat will quickly and evenly fill the entire heat conduction path of the tea-making assembly 5. The technical effect is to establish a stable, uniform, and controllable thermal field, completely solving the defects of uneven temperature distribution and the tendency for localized over-scorching or underheating caused by electric heating in the background technology, thus ensuring the uniform softening of the tea leaves.

[0040] After the heating system reaches a stable operating temperature, the control system issues a command to move the baffle 56 inward along the second direction (Y-axis) to a fully closed state, blocking the outlet of the slot 551. Immediately afterwards, the control system activates the second power component of the second power assembly 3, causing the two opposing tea-forming assemblies 5 to move towards each other along the Y-axis until the lower half of their tea-forming plates 53 are tightly abutted against each other. The technical effect of this state is to form a "V"-shaped processing zone that is closed at the bottom and open at the top, creating the necessary physical boundaries for the pre-forming and main-forming of the tea leaves.

[0041] The operator pours a batch of tea leaves requiring processing into the slot 551 of the guide plate 55. Due to the funnel structure of the slot 551, which is wider at the top and narrower at the bottom, the tea leaves naturally gather at the bottom. At this time, the control system moves the baffle 56 outward in the second direction, instantly opening the outlet. The tea leaves originally stored in the slot 551 fall in a concentrated manner under the action of gravity, precisely entering the retention gap 54 between the two processing components 5. The rapid opening and closing of the baffle 56 and the guiding effect of the slot 551 together achieve precise control of the amount of tea leaves processed in a single batch, overcoming the problem of the coarse quantitative control of existing technologies.

[0042] After the tea leaves enter the retention gap 54, they do not immediately fall to the bottom. The third power component 42 of the third power component 4 starts working, driving the tea-forming component 5 to perform a short-stroke, high-frequency reciprocating motion along the third direction (X-axis). At the same time, the first power component 2 can also drive the tea-forming component 5 to vibrate slightly along the first direction (Z-axis). Under this combined motion, the tea leaves in the retention gap 54 are repeatedly thrown up, caught, and pushed by the upper tea-forming plate 53, and are continuously and evenly heated. The technical effect of this stage is pre-treatment and shaping: while the tea leaves are softened by heat, they are given a preliminary shape, and due to the deceleration effect of the retention gap 54, the residence time of the tea leaves in this area is significantly extended, ensuring that each tea leaf can be fully preheated and initially shaped, laying a solid foundation for the next step of main shaping.

[0043] After the pre-treatment and heating process continues for a period of time, the control system initiates the main tea-making program. The third power component 4 drives the two opposing tea-making components 5 to gradually move towards the third sliding plate 41 (i.e., the negative X-axis direction). As the tea-making components 5 move, the shape of the retention gap 54 changes, and the tea leaves that were originally retained there gradually fall onto the lower half of the tea-making plate 53, which is now in contact with each other, under the guidance of gravity and the tea-making plate 53. At this time, the control system coordinates the first power component 2 and the second power component 3 to perform complex collaborative movements: the first power component drives the first sliding plate 22 to move the tea-making components 5 up and down along the Z-axis, simulating the action of manual pressing; the second power component drives the second sliding plate 32 to move the tea-making components 5 laterally along the Y-axis, simulating the action of manual kneading; at the same time, the third power component 42 continues to drive the pushing action along the X-axis. Under the combined motion of the X, Y, and Z axes, the tea leaves are repeatedly pushed, kneaded, pressed, and rolled between the lower half of the shaping plates 53, achieving a technical effect similar to the ancient manual shaping method. This makes the tea leaves tightly rolled and straight, fully stimulates the aroma, and significantly improves both the appearance and internal quality.

[0044] During the shaping process, tea leaves that have reached the shaping standard will fall through the gaps in the shaping plate 53 and be collected by the collection box 57 located below. The collection box 57 is spaced apart from the high-temperature heating element 51 to prevent the tea leaves from being continuously heated after collection. To achieve higher quality requirements, this device supports cyclic processing. The operator pours the tea leaves collected in the collection box 57 back into the slot 551 of the guide plate 55, repeating steps four through seven above. With each cycle, the tea leaves become more tightly rolled and uniform. By controlling the number of cycles to 2-4, the shaped tea leaves can be processed until they meet the preset quality requirements.

[0045] In summary, the quantitative tea-stripping device described in this specific embodiment perfectly solves the core problem of low tea-stripping quality in the prior art through precise three-dimensional motion control, innovative retention gap 54 design, uniform heat conduction system, and quantitative feeding mechanism, and realizes standardized and efficient production of high-quality tea.

[0046] The above embodiments are merely preferred embodiments of the present invention and should not be construed as limiting the scope of protection of the present invention. Any non-substantial changes and substitutions made by those skilled in the art based on the present invention shall fall within the scope of protection claimed by the present invention.

Claims

1. A quantitative tea-strip-forming device for tea leaf shaping, characterized in that, include: Shell (1); The first power assembly (2) includes a first guide rail (21) and a first slide plate (22) slidably connected to the first guide rail (21). The first guide rail (21) is fixedly mounted on the housing (1). The second power assembly (3) includes a second guide rail (31) and a second slide plate (32) slidably connected to the second guide rail (31). The second guide rail (31) is fixedly mounted on the first slide plate (22). The third power assembly (4) includes a third slide plate (41) and a third power component (42) fixedly disposed on the third slide plate (41), wherein the third slide plate (41) is fixed to the second slide plate (32); The strip-arranging assembly (5) includes a heating element (51), a telescopic element (52), and a strip-arranging plate (53). The heating element (51) is fixed to the output end of the third power element (42). One end of the telescopic element (52) is fixed to the heating element (51), and the other end of the telescopic element (52) is fixed to the strip-arranging plate (53). The heating element (51) has a heating cavity (511), and the telescopic element (52) has a cavity (521). The heating cavity (511) and the cavity (521) are connected.

2. The quantitative tea-stripping device according to claim 1, characterized in that, The strip-arranging assembly (5) is provided in two, and the two strip-arranging assemblies (5) are arranged opposite each other. The two strip-arranging assemblies (5) are spaced apart to form a retention gap (54). In the vertical direction, the distance of the retention gap (54) is greater than the distance between any two strip-arranging plates (53) located below the fourth row. The strip-arranging plate (53) located below the fourth row can abut against the strip-arranging plate (53) located below the fourth row on another strip-arranging assembly (5).

3. The quantitative tea-stripping device according to claim 1, characterized in that, Along the vertical direction, the size of the strip plate (53) gradually increases from top to bottom.

4. The quantitative tea-stripping device according to claim 1, characterized in that, Along the vertical direction, the length of the telescopic member (52) in the retention gap (54) gradually increases from top to bottom, and the length of the telescopic member (52) outside the retention gap (54) gradually increases from top to bottom. The inclined surfaces of the heating element (51) are arranged opposite each other and the distance between the inclined surfaces of the heating element (51) gradually increases from top to bottom.

5. The quantitative tea-stripping device according to claim 1, characterized in that, Along the vertical direction, the projections of each adjacent strip (53) at least partially overlap.

6. The quantitative tea-stripping device according to claim 1, characterized in that, The strip assembly (5) also includes a guide plate (55) and a baffle (56). The guide plate (55) includes a slot (551). The guide plate (55) is fixedly connected to the housing (1). Along the vertical direction, the size of the slot (551) gradually decreases from top to bottom. In the vertical direction, the baffle (56) is disposed on the lower side of the slot (551), and the baffle (56) can move inward or outward in the second direction.

7. The quantitative tea-stripping device according to claim 1, characterized in that, The first power assembly (2) further includes a first power component, which is fixed to the housing (1). The output end of the first power component is fixed to the first slide plate (22). The first power component drives the first slide plate (22) to reciprocate along a first direction. The second power assembly (3) further includes a second power component, which is fixed to the housing (1). The output end of the second power component is fixed to the second slide plate (32). The second power component drives the second slide plate (32) to reciprocate along the second direction. The third power assembly (4) also includes a third power component (42), the output end of which is fixed to the heating element (51), and the third power component (42) drives the heating element (51) to reciprocate along a third direction.

8. The quantitative tea-stripping device according to claim 1, characterized in that, The strip assembly (5) also includes a collection box (57), which is located below the heating element (51) in the vertical direction and spaced apart from the heating element (51).

Images