Honey melting equipment for honey processing

Abstract

The application discloses a honey melting equipment for honey processing, and relates to the technical field of honey processing.The honey melting equipment comprises a half-cylindrical honey melting tank, a tank cover and an outer frame body; further comprises a stirring mechanism installed on the tank cover and capable of rotating into the half-cylindrical honey melting tank, the stirring mechanism comprises a scraping assembly, a downward driving element, a swing pressing assembly and a swing driving assembly, when the tank cover covers the open end of the half-cylindrical honey melting tank, the end of the scraping assembly away from the tank cover is in contact with the inner wall of the half-cylindrical honey melting tank; the lower end of the downward driving element is slid through the tank cover and extends between the two scraping assemblies; the swing pressing assembly is arranged at the bottom of the downward driving element and is capable of rotating.The honey melting equipment has the advantages of simple structure, accelerated melting of crystallized honey by stirring, scraping of the honey adhered to the half-cylindrical honey melting tank by the scraping assembly, improved collection completeness of the honey and high practicability.

Description

Technical Field

[0001] This invention relates to the field of honey processing technology, specifically a honey melting device for honey processing. Background Technology

[0002] Honey exists in two different physical states at room temperature and pressure: liquid and crystallized. Liquid honey is the honey separated from the honeycomb and remains a transparent or translucent viscous liquid. However, most varieties of honey gradually crystallize after being left for a period of time, especially at lower temperatures; this type of honey is called crystallized honey. Crystallized honey is in a crystalline state, and because it cannot flow, it affects the normal production and processing. Therefore, before processing, the honey needs to be preheated to melt it from its crystallized state into a liquid state.

[0003] The existing method for melting crystallized honey is to place the crystallized honey in a melting box and melt it by increasing the heat inside the box. However, the crystallized honey can only melt gradually from the outer surface inside the melting box, and the area of ​​the crystallized honey in contact with the hot airflow inside the melting box is limited, which affects the melting efficiency. Furthermore, the melted honey tends to stick to the inner wall of the melting box and is difficult to clean, resulting in insufficient collection of crystallized honey. Summary of the Invention

[0004] The purpose of this invention is to provide a honey melting device for honey processing, so as to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution:

[0006] A honey melting device for honey processing includes a semi-cylindrical melting tank, an upper tank cover, and an outer frame. The semi-cylindrical melting tank is mounted on the outer frame and has electric heating elements on its inner wall. The upper tank cover is located on top of the semi-cylindrical melting tank and is used to seal the open end of the tank. A discharge port is provided at the arc-shaped bottom of the semi-cylindrical melting tank. The device also includes a material feeding mechanism mounted on the upper tank cover and rotatable into the semi-cylindrical melting tank. The material feeding mechanism includes a scraping assembly, a pressing drive component, a oscillating pressing assembly, and an oscillating drive assembly. Two scraping assemblies are symmetrically arranged on the end face of the upper tank cover facing the semi-cylindrical melting tank. When the upper tank cover seals the open end of the semi-cylindrical melting tank, the ends of the scraping assemblies away from the upper tank cover... The inner wall of the semi-cylindrical honey melting tank is in contact with the upper tank cover; the pressing drive is located on the top of the upper tank cover, and the lower end of the pressing drive slides through the upper tank cover and extends between the two scraping assemblies; when the pressing drive moves vertically, it can drive the two scraping assemblies to rotate around the connection with the upper tank cover, and the two scraping assemblies rotate in opposite directions; the swing pressing assembly is located at the bottom of the pressing drive and can rotate, and the swing pressing assembly is used to press down the crystallized honey inside the semi-cylindrical honey melting tank; the swing drive assembly is located on the upper tank cover and the lower end of the swing drive assembly extends to the lower side of the upper tank cover; when the pressing drive moves downward, the swing pressing assembly can be in contact with the lower end of the swing drive assembly, and the swing drive assembly can drive the swing pressing assembly to swing around the connection with the upper tank cover.

[0007] Based on the above technical solutions, the present invention also provides the following optional technical solutions:

[0008] In one alternative embodiment: the scraping assembly includes a scraping rod shaft and a scraping plate. The two ends of the scraping rod shaft are rotatably connected to the end face of the upper trough cover, respectively. One side of the scraping plate can contact the inner wall of the semi-cylindrical melting trough, and the other side of the scraping plate is connected to the scraping rod shaft through at least one fixed connecting rod. The scraping rod shaft is connected to a downward driving component, which can drive the scraping rod shaft to rotate when it moves vertically.

[0009] In one alternative: each scraper rod shaft is equipped with a scraper gear, the pressing drive component includes a vertical movable rod, a top plate and a pressing cylinder, the vertical movable rod slides through the upper groove cover and both sides of the vertical movable rod are equipped with scraper racks, the two scraper racks mesh with the two scraper gears respectively, the top plate is located at the top of the vertical movable rod and is connected to the upper surface of the upper groove cover by the pressing cylinder.

[0010] In one alternative embodiment: the oscillating pressing assembly includes a pressing bracket, an oscillating rod shaft, a movable pressing strip, a guide rod, and a pressing push block. The pressing bracket is fixed to the bottom of the pressing drive component. Both ends of the oscillating rod shaft are rotatably connected to the ends of the pressing bracket. When the pressing drive component moves downward, the oscillating rod shaft can be connected to the bottom of the oscillating drive assembly. Guide rods are respectively provided at both ends of the oscillating rod shaft. Both ends of the movable pressing strip are slidably connected to the two guide rods, and the end of the movable pressing strip is connected to the top of the guide rods through a pressing spring. The pressing push block is located on the pressing spring, has a V-shaped structure, and is used to press down crystallized honey.

[0011] In one alternative embodiment: the swing drive assembly includes an arc-shaped rod and a swing motor. The swing motor is located on the upper surface of the upper slot cover, and an upper connecting rod is provided on the output end of the swing motor. Both ends of the arc-shaped rod pass through the upper slot cover, and both ends of the arc-shaped rod are fixedly connected to the two ends of the upper connecting rod, respectively. The center line of the arc-shaped rod coincides with the axis of the output end of the swing motor. An internal rack is provided on the inner side wall of the arc bottom of the arc-shaped rod, and a swing gear that meshes with the swing gear is provided on the swing rod shaft.

[0012] In one alternative: a protruding seat and a side connecting rod are provided on the side wall of the semi-cylindrical melting tank; one side wall of the upper tank cover is rotatably connected to the side connecting rod; a flip-top cylinder is provided on the protruding seat; an outer extension rod is provided on the side wall of the upper tank cover, and a connecting sleeve that slides on the outer extension rod is provided thereon; the top of the flip-top cylinder is hinged to the connecting sleeve.

[0013] In one alternative embodiment: the bottom wall of the semi-cylindrical melting honey tank is further provided with multiple strip-shaped openings, and each strip-shaped opening is provided with a protruding component. The protruding component includes a filling strip and an outer strip plate. The filling strip is slidably disposed inside the strip-shaped opening, and the filling strip can protrude from the strip-shaped opening and extend into the interior of the semi-cylindrical melting honey tank. The outer strip plate is disposed on the outer part of the filling strip in the semi-cylindrical melting honey tank, and the outer strip plate is connected to the bottom wall of the semi-cylindrical melting honey tank by a return spring. The lower side of the semi-cylindrical melting honey tank is further provided with a lower sealing assembly, and the lower sealing assembly can block or open the discharge port by moving up and down. When the lower sealing assembly moves upward, it can apply a thrust toward the interior of the semi-cylindrical melting honey tank to the outer strip plate.

[0014] In one alternative embodiment: the lower sealing assembly includes a lower strip plate, a sealing strip, an opening and closing cylinder, and two extending arc rods. The lower strip plate is located below the discharge port, and the sealing strip is located on the end face of the lower strip plate facing the discharge port. The sealing strip can be locked inside the discharge port and block the discharge port. One end of the opening and closing cylinder is connected to the outer frame body, and the other end is connected to the end of the lower strip plate. The two extending arc rods are respectively located on both sides of the sealing strip, and the ends of the extending arc rods away from the sealing strip extend to the corresponding protruding parts.

[0015] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0016] 1. In this invention, crystallized honey can move within a closed semi-cylindrical melting tank and melt under the action of an electric heating plate. The moving crystallized honey can accelerate the melting process and improve efficiency.

[0017] 2. In this invention, after the crystallized honey melts, it is scraped to the discharge port by two scraping components, thereby fully collecting the melted honey and reducing the waste of honey resources;

[0018] 3. The present invention has a simple structure. It accelerates the melting of crystallized honey by stirring it, and scrapes off the honey stuck in the semi-cylindrical melting tank by scraping the material component, thereby improving the fullness of honey collection and making it highly practical. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall structure of the honey melting device in one embodiment of the present invention.

[0020] Figure 2 This is a schematic diagram of the internal structure of a semi-cylindrical honey melting tank in one embodiment of the present invention.

[0021] Figure 3 This is a schematic diagram of the feeding mechanism in one embodiment of the present invention.

[0022] Figure 4 This is a schematic diagram of the downward pressure drive and the oscillating pressure assembly in one embodiment of the present invention.

[0023] Figure 5 This is a schematic diagram of the bottom structure of a semi-cylindrical honey melting tank in one embodiment of the present invention.

[0024] Figure 6 This is a schematic diagram of the lower sealing component structure in one embodiment of the present invention.

[0025] Figure reference numerals: 100 semi-cylindrical melting tank, 110 side connecting rod, 120 protruding seat, 130 strip-shaped opening, 140 discharge port, 200 upper tank cover, 210 outer extension rod, 220 connecting sleeve, 230 flip-top cylinder, 300 outer frame, 400 material feeding mechanism, 410 scraping assembly, 411 scraping rod shaft, 412 scraping plate, 413 fixed connecting rod, 414 scraping gear, 420 downward driving component, 421 vertical moving rod, 422 top plate component, 423 downward cylinder, 424 scraping rack, 425 oscillating element. Material pressing assembly 430, lower pressing bracket 431, swing rod shaft 432, movable pressure bar 433, guide rod 434, lower pressing spring 435, material pressing push block 436, swing gear 437, swing drive assembly 440, arc rod 441, upper connecting rod 442, swing motor 443, internal rack 444, lower sealing assembly 500, lower strip plate 510, sealing strip 520, opening and closing cylinder 530, extension arc rod 540, protruding part 600, filling strip block 610, outer strip plate 620, return spring 630. Detailed Implementation

[0026] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. In the drawings or description, similar or identical parts are referred to by the same reference numerals, and in practical applications, the shape, thickness, or height of each component may be enlarged or reduced. The embodiments listed in this invention are merely illustrative and not intended to limit the scope of the invention. Any obvious modifications or changes made to this invention do not depart from the spirit and scope of the invention.

[0027] In one embodiment, such as Figures 1-3As shown, a honey melting device for honey processing includes a semi-cylindrical melting tank 100, an upper tank cover 200, and an outer frame 300. The semi-cylindrical melting tank 100 is mounted on the outer frame 300, and an electric heating element is provided on the inner wall of the semi-cylindrical melting tank 100. The upper tank cover 200 is located on the top of the semi-cylindrical melting tank 100 and is used to seal the open opening of the semi-cylindrical melting tank 100. A discharge port 140 is provided at the arc-shaped bottom of the semi-cylindrical melting tank 100. The device also includes components installed on the upper tank cover 200 and capable of... A feeding mechanism 400, capable of rotating to the interior of the semi-cylindrical melting honey tank 100, includes a scraping assembly 410, a pressing drive 420, a swing pressing assembly 430, and a swing drive assembly 440. Two scraping assemblies 410 are symmetrically arranged on the end face of the upper tank cover 200 facing the semi-cylindrical melting honey tank 100. When the upper tank cover 200 seals the opening of the semi-cylindrical melting honey tank 100, the scraping assemblies 410 move away from the upper tank cover 200. The connected end contacts the inner wall of the semi-cylindrical melting tank 100; the downward pressing drive 420 is located on the top of the upper tank cover 200, and the lower end of the downward pressing drive 420 slides through the upper tank cover 200 and extends between the two scraping assemblies 410; when the downward pressing drive 420 moves vertically, it can drive the two scraping assemblies 410 to rotate around the connection with the upper tank cover 200, and the two scraping assemblies 410 rotate in opposite directions; the swinging pressing assembly 430 is located at the bottom of the downward pressing drive 420 and swings. The pressing assembly 430 is rotatable, and the swing pressing assembly 430 is used to press down the crystallized honey inside the semi-cylindrical honey melting tank 100; the swing driving assembly 440 is provided on the upper tank cover 200 and the lower end of the swing driving assembly 440 extends to the lower side of the upper tank cover 200; when the pressing drive member 420 moves downward, the swing pressing assembly 430 can swing around the connection with the upper tank cover 200.

[0028] In this embodiment of the invention, in the initial state, the upper tank cover 200 is not located at the opening of the semi-cylindrical honey melting tank 100. Crystallized honey is fed into the semi-cylindrical honey melting tank 100 from the opening, and at this time, the discharge port 140 is in a closed state. The upper tank cover 200 is then placed over the opening of the semi-cylindrical honey melting tank 100. The electric heating element on the inner wall of the semi-cylindrical honey melting tank 100 is energized to generate heat, and the internal temperature of the semi-cylindrical honey melting tank 100 rises, melting the crystallized honey. At the same time, the downward pressure drive 420 moves downward and drives the swing pressing assembly 430 downward. The bottom of the swing pressing assembly 430 gradually presses down on the top of the crystallized honey, and the swing pressing assembly 430 and the swing drive assembly 440 are connected. Under the action of the downward pressure drive 420, the two scraping assemblies 410 rotate to the opening of the semi-cylindrical honey melting tank 100. The swing drive assembly 440 drives the swing pressing assembly 410 to move downward. The 30 rotates around the connection point with the bottom of the downward driving component 420, thereby causing the oscillating pressing component 430 to oscillate. The oscillating pressing component 430 causes the crystallized honey to oscillate at the bottom of the semi-cylindrical honey melting tank 100. Friction is generated between the crystallized honey and the bottom wall of the semi-cylindrical honey melting tank 100, thereby accelerating the melting of the crystallized honey. When the crystallized honey has completely melted, the discharge port 140 is opened and the melted honey is discharged through the discharge port 140. The downward driving component 420 moves upward and drives the oscillating pressing component 430 to move upward and detach from the melted honey. The upward moving downward driving component 420 also drives the two scraping components 410 to gradually rotate from a horizontal state to the center of the semi-cylindrical honey melting tank 100. Thus, the two scraping components 410 rotating towards the center of the semi-cylindrical honey melting tank 100 scrape the honey adhering to the inner wall of the semi-cylindrical honey melting tank 100 to the discharge port 140, thereby fully collecting the melted honey and reducing the waste of honey resources.

[0029] In one embodiment, such as Figures 1-3 As shown, the scraping assembly 410 includes a scraper shaft 411 and a scraper plate 412. Both ends of the scraper shaft 411 are rotatably connected to the end faces of the upper tank cover 200. One side of the scraper plate 412 can contact the inner wall of the semi-cylindrical honey melting tank 100, and the other side of the scraper plate 412 is connected to the scraper shaft 411 via at least one fixed connecting rod 413. The scraper shaft 411 is connected to a downward driving member 420. When the downward driving member 420 moves vertically, it can drive the scraper shaft 411 to rotate. In this embodiment of the invention, when the downward driving member 420 moves vertically, the scraper shaft 411 rotates, and the rotating scraper shaft 411 drives the scraper plate 412 to rotate. When the scraper plate 412 rotates upward, it can rotate to a horizontal state to avoid interfering with the melting of crystallized honey. When the scraper plate 412 rotates downward, it can scrape the honey adhering to the inner wall of the semi-cylindrical honey melting tank 100 to the discharge port 140.

[0030] In one embodiment, such as Figures 1-4 As shown, each scraper rod shaft 411 is equipped with a scraper gear 414. The pressing drive component 420 includes a vertical movable rod 421, a top plate 422, and a pressing cylinder 423. The vertical movable rod 421 slides through the upper groove cover 200, and scraper racks 424 are provided on both sides of the vertical movable rod 421. The two scraper racks 424 mesh with the two scraper gears 414 respectively. The top plate 422 is located on the top of the vertical movable rod 421, and the top plate 422 is connected to the upper surface of the upper groove cover 200 through the pressing cylinder 423. In this embodiment of the invention, the pressing cylinder 423 drives the vertical movable rod 421 to move vertically by extension and retraction. The vertical movable rod 421 drives the scraper racks 424 and the swing pressing assembly 430 to move vertically, so that the scraper racks 424 drive the corresponding scraper rod shaft 411 to rotate by meshing with the scraper gears 414.

[0031] In one embodiment, such as Figures 1-4 As shown, the oscillating pressing assembly 430 includes a lower pressing bracket 431, an oscillating rod shaft 432, a movable pressing strip 433, a guide rod 434, and a pressing push block 436. The lower pressing bracket 431 is fixed to the bottom of the lower pressing drive member 420. The two ends of the oscillating rod shaft 432 are rotatably connected to the ends of the lower pressing bracket 431. When the lower pressing drive member 420 moves downward, the oscillating rod shaft 432 can be connected to the bottom of the oscillating drive assembly 440. Guide rods 434 are respectively provided at both ends of the oscillating rod shaft 432. The two ends of the movable pressing strip 433 are slidably connected to the two guide rods 434, and the end of the movable pressing strip 433 is connected to the top of the guide rod 434 by a lower pressing spring 435. The pressing push block 436... The pressing block 436, mounted on the compression spring 435, has a V-shaped structure and is used to press down crystallized honey. In this embodiment of the invention, the compression drive 420 moves downward and drives the swing pressing assembly 430 downward. The movable pressing bar 433, under the elastic force of the compression spring 435, drives the pressing block 436 downward. The bottom of the pressing block 436 presses down on the crystallized honey. At the same time, the swing rod shaft 432 is connected to the swing drive assembly 440. The swing drive assembly 440 can drive the swing rod shaft 432 to rotate. The swing rod shaft 432 drives the pressing block 436 to rotate, so that the pressing block 436 can drive the crystallized honey to swing back and forth inside the semi-cylindrical honey melting tank 100, thereby accelerating the melting of the crystallized honey.

[0032] In one embodiment, such as Figures 1-4As shown, the swing drive assembly 440 includes an arc-shaped rod 441 and a swing motor 443. The swing motor 443 is mounted on the upper surface of the upper slot cover 200, and an upper connecting rod 442 is provided on the output end of the swing motor 443. Both ends of the arc-shaped rod 441 pass through the upper slot cover 200, and both ends of the arc-shaped rod 441 are fixedly connected to the two ends of the upper connecting rod 442, respectively. The centerline of the arc-shaped rod 441 coincides with the axis of the output end of the swing motor 443. The arc bottom of the arc-shaped rod 441... An internal rack 444 is provided on the inner sidewall, and a swing gear 437 that meshes with the swing gear 437 is provided on the swing rod shaft 432. In this embodiment of the invention, the swing motor 443 is a servo motor and the swing motor 443 drives the arc rod 441 to reciprocate around the axis of the swing motor 443. The arc rod 441, through the meshing of the internal rack 444 and the swing gear 437, causes the swing rod shaft 432 to rotate alternately in both directions, thereby the swing rod shaft 432 drives the pressure push block 436 to swing.

[0033] In one embodiment, such as Figure 1 and Figure 2 As shown, a protruding seat 120 and a side connecting rod 110 are provided on the side wall of the semi-cylindrical melting honey tank 100. One side wall of the upper tank cover 200 is rotatably connected to the side connecting rod 110. A flip-top cylinder 230 is provided on the protruding seat 120. An outer extension rod 210 is provided on the side wall of the upper tank cover 200, and a connecting sleeve 220 is provided on the outer extension rod 210 and slides thereon. The top of the flip-top cylinder 230 is hinged to the connecting sleeve 220. In this embodiment of the invention, the flip-top cylinder 230 pulls or pushes the connecting sleeve 220 upward or downward by telescopic movement, so that the upper tank cover 200 can rotate around the side connecting rod 110, so that the upper tank cover 200 can seal the opening of the semi-cylindrical melting honey tank 100 or away from the opening of the semi-cylindrical melting honey tank 100.

[0034] In one embodiment, such as Figure 1 , Figure 2 , Figure 5 and Figure 6As shown, the bottom wall of the semi-cylindrical melting honey tank 100 is also provided with a plurality of strip-shaped openings 130, and each strip-shaped opening 130 is provided with a protruding component 600. The protruding component 600 includes a filling strip 610 and an outer strip plate 620. The filling strip 610 is slidably disposed inside the strip-shaped opening 130, and the filling strip 610 can protrude from the strip-shaped opening 130 and extend into the interior of the semi-cylindrical melting honey tank 100. The outer strip plate 620 is disposed at the position of the filling strip 610 within the semi-cylindrical melting honey tank. The outer portion of the semi-cylindrical melting honey tank 100 and the outer strip 620 are connected to the bottom wall of the semi-cylindrical melting honey tank 100 by a return spring 630. A lower sealing assembly 500 is also provided on the lower side of the semi-cylindrical melting honey tank 100, and the lower sealing assembly 500 blocks or opens the discharge port 140 by moving up and down. When the lower sealing assembly 500 moves upward, it can apply a thrust towards the interior of the semi-cylindrical melting honey tank 100 to the outer strip 620. In this embodiment of the invention, when the semi-cylindrical melting honey tank 100... Before the crystallized honey melts inside, the lower sealing component 500 moves upward and blocks the discharge port 140. The lower sealing component 500 pushes the outer strip plate 620, and the outer strip plate 620 overcomes the elastic force of the return spring 630 to push the filling strip 610, causing the filling strip 610 to protrude from the inner wall of the semi-cylindrical honey melting tank 100. When the crystallized honey moves inside the semi-cylindrical honey melting tank 100, the side of the filling strip 610 protruding from the strip-shaped opening 130 can scrape the crystallized honey, making the crystallized honey melt. The bottom gradually breaks into small pieces and detaches, thereby further accelerating the melting of crystallized honey; when the sealing component 500 moves downward and opens the discharge port 140, the outer strip plate 620 moves away from the bottom wall of the semi-cylindrical honey melting tank 100 under the elastic force of the return spring 630, so that the part of the filling strip 610 extending into the semi-cylindrical honey melting tank 100 gradually becomes flush with the end of the strip opening 130, thereby ensuring that the inside of the semi-cylindrical honey melting tank 100 is smooth and that the melted honey flows into the discharge port 140.

[0035] In one embodiment, such as Figure 1 , Figure 2 , Figure 5 and Figure 6As shown, the lower sealing assembly 500 includes a lower strip plate 510, a sealing strip 520, an opening / closing cylinder 530, and two extending arc rods 540. The lower strip plate 510 is located below the discharge port 140, and the sealing strip 520 is disposed on the end face of the lower strip plate 510 facing the discharge port 140. The sealing strip 520 can be locked inside the discharge port 140 and seal the discharge port 140. One end of the opening / closing cylinder 530 is connected to the outer frame 300, and the other end is connected to the end of the lower strip plate 510. The two extending arc rods 540 are respectively disposed on the two sides of the sealing strip 520, and the ends of the extending arc rods 540 away from the sealing strip 520 extend to the corresponding protruding parts 600. In this embodiment, the opening and closing cylinder 530 drives the lower strip plate 510 away from or near the discharge port 140 by extending and retracting. When the lower strip plate 510 approaches the discharge port 140 and blocks the discharge port 140 with the sealing strip 520, the extending arc rod 540 pushes the outer strip plate 620 and causes the filling strip 610 to protrude from the strip opening 130. When the lower strip plate 510 moves away from the discharge port 140 and causes the sealing strip 520 to disengage from the discharge port 140, the extending arc rod 540 moves away from the protruding part 600. Under the elastic force of the return spring 630, the outer strip plate 620 moves away from the bottom wall of the semi-cylindrical melting tank 100, so that the part of the filling strip 610 extending into the semi-cylindrical melting tank 100 gradually becomes flush with the end of the strip opening 130.

[0036] The above embodiment provides a honey melting device for honey processing. In the initial state, the upper tank cover 200 is not located at the opening of the semi-cylindrical honey melting tank 100. Crystallized honey is fed into the semi-cylindrical honey melting tank 100 from its opening, at which time the discharge port 140 is closed. The upper tank cover 200 is then closed at the opening of the semi-cylindrical honey melting tank 100. Electric heating elements on the inner wall of the semi-cylindrical honey melting tank 100 are energized to generate heat, and the semi-cylindrical honey melting tank 100... The internal temperature of the 00 increases and melts the crystallized honey; simultaneously, the downward pressure drive 420 moves downward and drives the oscillating pressing assembly 430 downward. The bottom of the oscillating pressing assembly 430 gradually presses down on the top of the crystallized honey, and the oscillating pressing assembly 430 and the oscillating drive assembly 440 are in a connected state. Under the action of the downward pressure drive 420, the two scraping assemblies 410 rotate to the opening of the semi-cylindrical honey melting tank 100; the oscillating drive assembly 440 drives... The oscillating pressing assembly 430 rotates around its connection point with the bottom of the pressing drive 420, causing the oscillating pressing assembly 430 to oscillate and drive the crystallized honey to oscillate at the bottom of the semi-cylindrical honey melting tank 100. Friction is generated between the crystallized honey and the bottom wall of the semi-cylindrical honey melting tank 100, thereby accelerating the melting of the crystallized honey. When the crystallized honey has completely melted, the discharge port 140 is opened and the melted honey is discharged through the discharge port 140. The pressing drive 420 moves upward and drives the oscillating pressing assembly 430 to move upward and detach from the melted honey. The upward-moving pressing drive 420 also drives the two scraping assemblies 410 to gradually rotate from a horizontal state to the center of the semi-cylindrical honey melting tank 100. Thus, the two scraping assemblies 410 rotating towards the center of the semi-cylindrical honey melting tank 100 scrape the honey adhering to the inner wall of the semi-cylindrical honey melting tank 100 to the discharge port 140, thereby fully collecting the melted honey and reducing the waste of honey resources.

[0037] The above description is merely a specific embodiment of this disclosure, but the scope of protection of this disclosure is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in this disclosure should be included within the scope of protection of this disclosure. Therefore, the scope of protection of this disclosure should be determined by the scope of the claims.

Claims

1. A honey melting device for honey processing, comprising a semi-cylindrical melting tank, an upper tank cover, and an outer frame, wherein the semi-cylindrical melting tank is disposed on the outer frame and has electric heating elements on its inner wall, the upper tank cover is disposed on the top of the semi-cylindrical melting tank and is used to seal the open opening of the semi-cylindrical melting tank, and a discharge port is provided at the arc-shaped bottom of the semi-cylindrical melting tank; characterized in that, It also includes a feeding mechanism installed on the upper tank cover and capable of rotating into the semi-cylindrical melting tank; The feeding mechanism includes a scraping assembly, a pressing drive component, a oscillating pressing assembly, and an oscillating drive assembly; The scraping assembly consists of two components, which are symmetrically rotated on the end face of the upper tank cover facing the semi-cylindrical melting tank. When the upper tank cover seals the opening of the semi-cylindrical melting tank, the end of the scraping assembly away from the upper tank cover contacts the inner wall of the semi-cylindrical melting tank. The pressing drive is located on the top of the upper groove cover, and the lower end of the pressing drive slides through the upper groove cover and extends between the two scraping assemblies. When the downward pressure drive moves vertically, it can drive the two scraper assemblies to rotate around the connection with the upper groove cover, and the two scraper assemblies rotate in opposite directions. The swing pressing assembly is located at the bottom of the pressing drive and can rotate. The swing pressing assembly is used to press down the crystallized honey inside the semi-cylindrical honey melting tank. The swing drive assembly is located on the upper slot cover and the lower end of the swing drive assembly extends to the lower side of the upper slot cover. When the pressing drive moves downward, the oscillating pressing assembly can be connected to the lower end of the oscillating drive assembly, and the oscillating drive assembly can drive the oscillating pressing assembly to oscillate around the connection with the upper groove cover. The oscillating pressing assembly includes a lower pressing bracket, an oscillating rod shaft, a movable pressing bar, a guide rod, and a pressing push block; The pressure bracket is fixed to the bottom of the pressure drive component, and the two ends of the swing rod shaft are rotatably connected to the ends of the pressure bracket respectively; When the downward driving component moves downward, the swing rod shaft can be connected to the bottom of the swing driving assembly. Guide rods are respectively provided at both ends of the swing rod shaft. The two ends of the movable pressure bar are slidably connected to the two guide rods respectively, and the end of the movable pressure bar is connected to the top of the guide rod through a downward spring. The pressing push block is mounted on the pressure spring. The pressing push block has a V-shaped structure and is used to press down crystallized honey. The swing drive assembly includes an arc-shaped rod and a swing motor; The swing motor is located on the upper surface of the upper groove cover, and an upper connecting rod is provided on the output end of the swing motor. Both ends of the arc-shaped rod pass through the upper groove cover, and both ends of the arc-shaped rod are fixedly connected to the two ends of the upper connecting rod respectively. The centerline of the arc-shaped rod coincides with the axis of the output end of the swing motor. An internal rack is provided on the inner side wall of the arc bottom of the arc-shaped rod, and a swing gear that meshes with the swing gear is provided on the swing rod shaft.

2. The honey melting equipment for honey processing according to claim 1, characterized in that, The scraping assembly includes a scraper shaft and a scraper plate; The two ends of the scraper rod shaft are rotatably connected to the end face of the upper trough cover, and one side of the scraper plate can contact the inner wall of the semi-cylindrical melting trough, while the other side of the scraper plate is connected to the scraper rod shaft through at least one fixed connecting rod. The scraper rod shaft is connected to the downward driving component, and the downward driving component can drive the scraper rod shaft to rotate when it moves vertically.

3. The honey melting equipment for honey processing according to claim 2, characterized in that, Each scraper bar shaft is equipped with a scraper gear; The downward driving component includes a vertical movable rod, a top plate, and a downward cylinder; The vertical movable rod slides through the upper groove cover, and scraper racks are provided on both sides of the vertical movable rod. The two scraper racks mesh with two scraper gears respectively. The top plate is located at the top of the vertical movable rod, and the top plate is connected to the upper surface of the upper groove cover through a downward pressing cylinder.

4. The honey melting equipment for honey processing according to claim 1, characterized in that, The semi-cylindrical melting tank is provided with a protruding seat and a side connecting rod on its side wall. One side wall of the upper tank cover is rotatably connected to the side connecting rod. A flip-top cylinder is provided on the protruding seat. An outer extension rod is provided on the side wall of the upper tank cover, and a connecting sleeve that slides on the outer extension rod is provided on the outer extension rod. The top of the flip-top cylinder is hinged to the connecting sleeve.

5. The honey melting equipment for honey processing according to claim 1, characterized in that, The bottom wall of the semi-cylindrical honey melting tank is also provided with multiple strip-shaped openings, and each strip-shaped opening is provided with a protruding component inside; The protruding component includes a filler strip and an outer strip plate; The filling strip is slidably disposed inside the strip-shaped opening, and the filling strip can protrude out of the strip-shaped opening and extend into the semi-cylindrical melting tank. The outer strip is disposed on the outer part of the filling strip where the semi-cylindrical melting tank is located, and the outer strip is connected to the bottom wall of the semi-cylindrical melting tank by a return spring. The lower side of the semi-cylindrical melting tank is also provided with a lower sealing component, and the lower sealing component can block or open the discharge port by moving up and down; When the lower sealing assembly moves upward, it can apply a thrust toward the interior of the semi-cylindrical melting tank to the outer strip.

6. The honey melting equipment for honey processing according to claim 5, characterized in that, The lower sealing assembly includes a lower strip plate, a sealing strip, an opening and closing cylinder, and two extension arc rods; The lower strip is located below the discharge port and the sealing strip is provided on the end face of the lower strip facing the discharge port. The sealing strip can be locked inside the discharge port and block the discharge port. One end of the opening and closing cylinder is connected to the outer frame and the other end is connected to the end of the lower strip plate. Two extension arc rods are respectively located on the two sides of the sealing strip, and the ends of the extension arc rods away from the sealing strip extend to the corresponding protruding parts.

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