Efficient cooler for honey production

Abstract

The invention discloses an efficient cooler for honey production, and relates to the technical field of efficient coolers for honey production.The efficient cooler for honey production comprises a cooling water tank, supporting legs are fixed to the bottom face of the cooling water tank, a cooling tank is fixed to the inner wall of the cooling water tank, and a feeding pipe is fixed to the upper surface of the cooling tank; a discharging pipe is fixed to the bottom face of the cooling tank, a motor is fixed to the upper surface of the cooling water tank, a first rotating shaft is fixed to the output end of the motor, the cooling water tank is provided with a dispersion mechanism for stirring cooling water to accelerate heat transfer, and the cooling tank is provided with a disturbance mechanism for preventing sedimentation and crystallization. The cooling tank is provided with a hinge mechanism facilitating intermittent feeding. According to the efficient cooler for honey production, the flow speed of cooling water can be increased, external cold cooling water and internal hot cooling water are scattered, the cooling effect of the cooling water is further improved, the flow speed of honey can be higher, and the cooling efficiency is improved.

Description

Technical Field

[0001] The invention relates to the technical field of honey production, in particular to a high-efficiency cooler for honey production. Background Art

[0002] In the honey production process, the honey cooling link is crucial. The temperature of freshly collected honey is relatively high and it contains a variety of enzymes, sugars and other complex ingredients. High temperature can easily inactivate the active substances in it, destroy the nutrients, and affect the quality and taste of the honey.

[0003] Patent publication number CN203105538U discloses a high-efficiency cooler for honey production, comprising a cooler body, a honey pipe for conveying honey, and a coolant pipe, which is sleeved over the honey pipe, leaving a gap between the inner and outer walls of the coolant pipe, the gap filled with coolant. The coolant pipe has a coolant inlet diameter that is larger than the coolant outlet diameter. With a larger inlet and a smaller outlet, the coolant in the coolant pipe is subjected to pressure from the pipe wall, forming a vortex locally. This accelerates local internal and external convection of the coolant, thereby increasing the efficiency of heat dissipation from the pipe wall and, in turn, the cooling efficiency of the cooler.

[0004] However, the above cooler simply uses coolant to cool the honey. When the coolant is cooled, the coolant near the honey pipe will be higher in temperature than the coolant outside. When the honey is continuously cooled, the temperature of the coolant inside will be closer to that of the honey. This will result in the coolant having no good cooling effect on the subsequent re-feed of honey, resulting in low cooling efficiency. Summary of the Invention

[0005] In view of the deficiencies in the prior art, the present invention provides a high-efficiency cooler for honey production, which solves the problems raised in the above-mentioned background technology.

[0006] To achieve the above object, the present invention is implemented through the following technical solutions: an efficient cooler for honey production, comprising a cooling water tank, wherein a supporting leg is fixed to the bottom surface of the cooling water tank, a cooling tank is fixed to the inner wall of the cooling water tank, an inlet pipe is fixed to the upper surface of the cooling tank, the upper end of the inlet pipe is funnel-shaped, a discharge pipe is fixed to the bottom surface of the cooling tank, and a valve is provided on the discharge pipe, a motor is fixed to the upper surface of the cooling water tank, an output end of the motor is fixed, and the motor starts to drive the first rotating shaft to rotate, the first rotating shaft passes through the upper surface of the cooling water tank and is rotatably connected at the penetration point, the first rotating shaft passes through the upper surface of the cooling tank and is rotatably connected at the penetration point, a threaded plate is fixed on the outer wall of the lower end of the first rotating shaft for convenient stirring of honey, and the first rotating shaft drives the threaded plate to stir the honey when it rotates, the cooling water tank is provided with a dispersion mechanism for stirring cooling water to accelerate heat transfer, the cooling tank is provided with a disturbance mechanism to prevent crystallization from settling to the bottom, and the cooling tank is provided with a hinge mechanism for convenient intermittent feeding;

[0007] Among them, the dispersion mechanism includes a turntable, a sliding block, a stirring plate, a large gear, a small gear and a second rotating shaft. The turntable is fixedly connected to the outer wall of the first rotating shaft. When the first rotating shaft rotates, it drives the turntable to rotate. The bottom surface of the turntable is in contact with the upper surface of the cooling tank. The turntable is provided with a guide groove. The rotation of the turntable drives the guide groove to rotate. A sliding block slides on the upper surface of the turntable. A guide column is fixed to the bottom surface of the sliding block. The outer wall of the guide column is slidably connected to the guide groove.

[0008] According to the above technical solution, a guide bar is fixed on the upper surface of the inner wall of the cooling water tank, and the guide bar is slidably connected to the upper surface and inner wall of the sliding block. When the guide groove rotates, the sliding block is driven to slide outward along the guide bar. A stirring plate is fixed on the end of the sliding block away from the turntable. When the sliding block slides outward, the stirring plate is pushed to stir the cooling water outward. The stirring plate is arc-shaped and fits the outer wall of the cooling tank. A large gear is fixed to the outer wall of the first rotating shaft. When the first rotating shaft rotates, it drives the large gear to rotate, and the upper surface of the large gear fits the upper surface of the inner wall of the cooling tank.

[0009] According to the above technical solution, a limiting rod is fixed on the upper surface of the inner wall of the cooling tank, and four groups of limiting rods are provided, which are distributed in a circle. The limiting rod passes through the small gear and is rotatably connected at the penetration point. The small gear is engaged with the large gear, and when the large gear rotates, it drives the small gear to rotate. The upper surface of the small gear is in contact with the upper surface of the inner wall of the cooling tank. A second rotating shaft is fixed to the bottom surface of the small gear, and when the small gear rotates, it drives the second rotating shaft to rotate. A stirring plate is fixed to the outer wall of the second rotating shaft, and when the second rotating shaft rotates, it drives the stirring plate to stir the honey.

[0010] According to the above technical solution, the disturbance mechanism includes a connecting plate, a connecting rod, a hinged plate, a diverter plate, a circular ring, a ring plate, a long plate, a limit plate, a spring and a spoiler. The connecting plate is fixedly connected to the bottom surface of the second rotating shaft, and the rotation of the second rotating shaft drives the connecting plate to rotate. A connecting rod is fixed to the bottom surface of the connecting plate, and when the connecting plate rotates, it drives the connecting rod to rotate.

[0011] According to the above technical solution, the connecting rod passes through the hinge plate and is rotatably connected at the penetration point. When the connecting rod rotates, it drives the hinge plate to move. The hinge plate is semicircular, and the arc surface of the hinge plate is hinged with a diverter plate. When the hinge plate moves, it drives the diverter plate to rotate around the hinge point. The diverter plate is fan-shaped, and the large arc surface of the diverter plate is hinged to the hinge plate. The small arc surface of the diverter plate is hinged to the outer wall of the ring. When the diverter plate rotates, it pushes the ring to slide. The first rotating shaft passes through the ring and fits in the penetration point.

[0012] According to the above technical solution, the first rotating shaft passes through the ring plate and is rotatably connected at the penetration point. A long plate is fixed to the outer wall of the ring plate, a limiting plate is fixed to the side wall of the long plate, a spring is fixed to the side wall of the limiting plate away from the ring plate, a sliding groove is provided on the side wall of the long plate, a spoiler is slid on the inner wall of the sliding groove, and the spoiler slides when hit by the stirring plate, and one end of the spring away from the limiting plate is fixedly connected to the side wall of the spoiler, and the spring is stretched when the spoiler slides.

[0013] According to the above technical solution, the hinge mechanism includes a sliding ring, an L-shaped rod, a baffle and a slider. A first rotating shaft passes through the sliding ring, and the passing portion is fitted together. A wave groove is provided on the outer wall of the first rotating shaft. When the first rotating shaft rotates, the wave groove is driven to rotate. A convex rod is fixed to the inner wall of the sliding ring. The outer wall of the convex rod is slidably connected to the wave groove. When the wave groove rotates, the convex rod is driven to slide, and the sliding of the convex rod drives the sliding ring to slide up and down.

[0014] According to the above technical solution, an L-shaped rod is fixed to the outer wall of the sliding ring, and when the sliding ring slides up and down, it drives the L-shaped rod to move up and down. A baffle is hinged on the upper surface of the inner wall of the cooling tank, and a sliding groove is provided on the bottom surface of the baffle. A slider slides on the inner wall of the sliding groove, and when the slider moves up and down, the baffle is driven to rotate around the hinge point. The end of the L-shaped rod away from the sliding ring is hinged to the bottom surface of the slider. When the L-shaped rod moves up and down, it drives the slider to move up and down and slide along the sliding groove.

[0015] The present invention provides a high-efficiency cooler for honey production. It has the following beneficial effects:

[0016] (1) The present invention drives the first rotating shaft to rotate by a motor, and the first rotating shaft drives the turntable to rotate when the first rotating shaft rotates. The turntable cooperates with the guide groove, the guide column and the guide bar to drive the sliding block to slide back and forth, and pushes the stirring plate to repeatedly move in the cooling water, thereby increasing the flow rate of the cooling water, breaking up the colder cooling water outside and the hotter cooling water inside, and further improving the cooling effect of the cooling water; when the first rotating shaft rotates, it drives the large gear to rotate, and cooperates with the rotation of the small gear and the second rotating shaft to drive the stirring plate to rotate. Since honey is relatively viscous, the threaded plate has limited stirring effect on the honey. The stirring plate further stirs the honey around the threaded plate, making the flow rate of the honey faster and more convenient to cool.

[0017] (2) The present invention drives the hinge plate to rotate by coordinating the rotation of the second rotating shaft with the connecting plate and the connecting rod. When the hinge plate rotates, the diverter plate is driven to tilt up at one end thereof, so that the ring is downward and the honey at the bottom center is dug out, thereby preventing part of the honey from crystallizing at the bottom of the cooling tank for a long time, causing blockage of the discharge pipe and affecting the staff's unloading. When the second rotating shaft rotates, the stirring plate rotates, hitting the spoiler plate, pushing the spoiler plate to slide outward along the long plate, and then coordinating with the limit plate and the spring to reset the spoiler plate, so that the honey cooled inside and outside the cooling tank is dispersed with the honey that is not completely cooled inside, so that the mixture is more uniform, further improving the cooling efficiency of the honey.

[0018] (3) In the present invention, the hinge mechanism drives the sliding ring to slide up and down through the rotation of the first rotating shaft, in conjunction with the wave groove and the convex rod. The sliding ring drives the L-shaped rod to move up and down, and cooperates with the slider to rotate the baffle. When the baffle rotates, the feed pipe is fed intermittently, and the honey is fed quantitatively, so that the total heat of the honey in the cooling tank is lower, the cooling effect is accelerated, and the cooling efficiency is improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0020] Figure 2 This is a schematic diagram of the full cross-sectional structure of the present invention;

[0021] Figure 3 This is a schematic structural diagram of the cooling tank of the present invention;

[0022] Figure 4 This is a schematic diagram of the full cross-section structure of the cooling tank of the present invention;

[0023] Figure 5 Schematic diagram of the internal structure of the present invention;

[0024] Figure 6 For the present invention Figure 5 Schematic diagram of the local enlarged structure of area A;

[0025] Figure 7It is a partial structural diagram of the disturbance mechanism of the present invention;

[0026] Figure 8 It is a schematic diagram of the structure of the hinge mechanism of the present invention.

[0027] In the figure: 1. Cooling water tank; 2. Support legs; 3. Cooling tank; 4. Inlet pipe; 5. Outlet pipe; 6. Motor; 7. First rotating shaft; 8. Dispersion mechanism; 81. Turntable; 82. Sliding block; 83. Stirring plate; 84. Large gear; 85. Small gear; 86. Second rotating shaft; 87. Stirring plate; 9. Disturbing mechanism; 91. Connecting plate; 92. Connecting rod; 93. Hinge plate; 94. Diverter plate; 95. Ring; 96. Ring plate; 97. Long plate; 98. Limiting plate; 99. Spring; 910. Spoiler; 10. Articulated mechanism; 101. Sliding ring; 102. L-shaped rod; 103. Baffle; 104. Slider. DETAILED DESCRIPTION

[0028] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0029] See also Figures 1-8 , one embodiment of the present invention is: a high-efficiency cooler for honey production, including a cooling water tank 1, the cooling water tank 1 is filled with circulating cooling water, the cooling water enters from the water inlet pipe at the bottom of the right side, and flows out from the water outlet pipe at the upper left side. The countercurrent circulating cooling water increases the time for the cooling water to exchange heat with the cooling tank 3 in the cooling water tank 1, improves the utilization rate of cooling water, and saves resources. The bottom surface of the cooling water tank 1 is fixed with a supporting leg 2, the inner wall of the cooling water tank 1 is fixed with a cooling tank 3, the cooling tank 3 is made of a material that is easy to conduct heat, the upper surface of the cooling tank 3 is fixed with a feed pipe 4, the upper end of the feed pipe 4 is funnel-shaped, the bottom surface of the cooling tank 3 is fixed with a discharge pipe 5, and the discharge pipe 5 is provided with a valve. A motor 6 is fixed to the upper surface of the cooling water tank 1. The motor 6 is AC and rotates back and forth clockwise and counterclockwise when started. A first rotating shaft 7 is fixed to the output end of the motor 6. When the motor 6 rotates back and forth, it drives the first rotating shaft 7 to rotate back and forth. The first rotating shaft 7 penetrates the upper surface of the cooling water tank 1 and is rotatably connected at the penetration point. The first rotating shaft 7 penetrates the upper surface of the cooling tank 3 and is rotatably connected at the penetration point. A threaded plate is fixed to the outer wall of the lower end of the first rotating shaft 7 for conveniently stirring the honey. When the first rotating shaft 7 rotates back and forth, it drives the threaded plate to rotate and stir the honey. The cooling water tank 1 is provided with a dispersion mechanism 8 for stirring the cooling water to accelerate heat transfer.

[0030] The dispersion mechanism 8 includes a turntable 81, a sliding block 82, an agitating plate 83, a large gear 84, a small gear 85 and a second rotating shaft 86. The turntable 81 is fixedly connected to the outer wall of the first rotating shaft 7. When the first rotating shaft 7 rotates back and forth, the turntable 81 is driven to rotate back and forth. The bottom surface of the turntable 81 fits the upper surface of the cooling tank 3. The turntable 81 is provided with a guide groove. When the turntable 81 rotates, the guide groove is driven to rotate together. The upper surface of the turntable 81 slides with a sliding block 82. The bottom surface of the sliding block 82 is fixed with a guide column. The outer wall of the guide column and the guide groove are slidably connected. When the turntable 81 rotates, the sliding block 82 is restricted by the guide column and slides along the guide groove of the turntable 81. The upper surface of the inner wall of the cooling water tank 1 is fixed with a guide column. The guide bar and the upper surface and inner wall of the sliding block 82 are slidably connected. When the sliding block 82 slides along the guide groove of the turntable 81, the upper surface of the sliding block 82 also slides along the guide bar. A stirring plate 83 is fixed to the end of the sliding block 82 away from the turntable 81. The stirring plate 83 is arc-shaped, and the stirring plate 83 is also made of a material that is easy to conduct heat and fits the outer wall of the cooling tank 3. When the sliding block 82 slides along the guide bar and the guide groove in the direction away from the cooling tank 3, the stirring plate 83 is driven to slide outward. When the stirring plate 83 slides outward, the hotter cooling water in the cooling water tank 1 near the cooling tank 3 is pushed outward. At the same time, the colder cooling water outside flows to the inside through the gap between the stirring plates 83, and the stirring plate 83 moves outward. At the same time, the area in contact with the cooling water is larger, which also accelerates the cooling of the stirring plate 83. When the motor 6 rotates in the opposite direction to drive the stirring plate 83 to retract, the stirring plate 83 can also assist the cooling tank 3 to cool down faster. A large gear 84 is fixed to the outer wall of the first rotating shaft 7. When the first rotating shaft 7 rotates, it drives the large gear 84 to rotate. The upper surface of the large gear 84 fits the upper surface of the inner wall of the cooling tank 3. The upper surface of the inner wall of the cooling tank 3 is fixed with a limiting rod. The limiting rod is provided with four groups, which are distributed in a circular pattern. The limiting rod passes through the small gear 85 and is rotatably connected at the penetration point. The small gear 85 meshes with the large gear 84. When the large gear 84 rotates, it drives the surrounding small gears 85 to rotate together. The upper surface of the small gear 85 and the inner wall of the cooling tank 3 are in contact with each other. The upper surface is fitted, and a second rotating shaft 86 is fixed to the bottom surface of the pinion 85. When the pinion 85 rotates, it drives the second rotating shaft 86 to rotate. A stirring plate 87 is fixed to the outer wall of the second rotating shaft 86. When the second rotating shaft 86 rotates, it drives the stirring plate 87 on its outer wall to further stir the honey. The dispersion mechanism 8 drives the first rotating shaft 7 to rotate through the reciprocating rotation of the motor 6. When the first rotating shaft 7 rotates, it drives the turntable 81 to rotate. The turntable 81 cooperates with the guide groove, guide column and guide bar to drive the sliding block 82 to slide back and forth, pushing the stirring plate 83 to repeatedly move in the cooling water, thereby increasing the flow rate of the cooling water, breaking up the colder cooling water on the outside and the hotter cooling water on the inside, and further improving the cooling effect of the cooling water.When the first rotating shaft 7 rotates, it drives the large gear 84 to rotate, which in turn rotates the small gear 85 and the second rotating shaft 86, driving the stirring plate 87 to rotate. Because honey is relatively viscous, the spiral plate has limited stirring effect on the honey. The stirring plate 87 further stirs the honey around the spiral plate, making the honey flow faster and more convenient for cooling.

[0031] When this embodiment is working: the motor 6 is started, driving the first rotating shaft 7 to rotate, and the rotation of the first rotating shaft 7 drives the turntable 81 to rotate. When the turntable 81 rotates, the sliding block 82 is restricted by the guide column and slides along the guide groove of the turntable 81. At the same time, the upper surface of the sliding block 82 slides along the guide bar, driving the stirring plate 83 to slide outward. When the stirring plate 83 slides outward, the hotter cooling water near the cooling tank 3 in the cooling water tank 1 is pushed outward. At the same time, the colder cooling water on the outside flows to the inside through the gap between the stirring plates 83. When the first rotating shaft 7 rotates, it drives the large gear 84 to rotate. When the large gear 84 rotates, it drives the surrounding small gears 85 to rotate together. When the small gear 85 rotates, it drives the second rotating shaft 86 to rotate. When the second rotating shaft 86 rotates, the stirring plate 87 on its outer wall further stirs the honey.

[0032] See also Figures 1-8On the basis of the above embodiment, in another embodiment of the present invention, the cooling tank 3 is provided with a disturbance mechanism 9 for preventing crystallization from settling to the bottom. The disturbance mechanism 9 includes a connecting plate 91, a connecting rod 92, a hinged plate 93, a diverter plate 94, a circular ring 95, a ring plate 96, a long plate 97, a limit plate 98, a spring 99 and a spoiler 910. The connecting plate 91 is fixedly connected to the bottom surface of the second rotating shaft 86. When the second rotating shaft 86 rotates, the connecting plate 91 is driven to rotate around the second rotating shaft 86. A connecting rod 92 is fixed to the bottom surface of the connecting plate 91. The rotation of the connecting plate 91 drives the connecting rod 92 to rotate. The connecting rod 92 passes through the hinged plate 93 and is rotatably connected at the penetration point. When the connecting rod 92 rotates, the hinged plate 93 is driven to rotate along with the connecting rod 92. 93 is semicircular, and the arc surface of the hinge plate 93 is hinged with a diverter plate 94, which is fan-shaped. The large arc surface of the diverter plate 94 is hinged to the hinge plate 93. When the hinge plate 93 gradually approaches the position away from the first rotating shaft 7, the diverter plate 94 hinged thereto rotates around the hinge point, and the small arc surface of the diverter plate 94 is hinged to the outer wall of the ring 95. The diverter plate 94 rotates around the hinge point to push the ring 95 to slide downward. The first rotating shaft 7 passes through the ring 95, and the penetration fits together. At this time, one end of the diverter plate 94 hinged to the hinge plate 93 is tilted, and the ring 95 is at the lowest point. When the ring 95 slides downward, it digs up the honey in the center part of the bottom. When the pinion 85 drives the second rotating shaft 86 to rotate in the opposite direction, the second rotating shaft 86 drives the hinge plate 93 gradually. Away from the first rotating shaft 7, the hinged plate 93 drives the diverter plate 94 to rotate in the opposite direction around the hinge point and gradually returns to its original position. The diverter plate 94 pulls the ring 95 to slide upward. At this time, the honey dug out at the bottom has been filled with honey around it. The second rotating shaft 86 continues to rotate, and the diverter plate 94 drives the ring 95 to continue to slide upward. The diverter plate 94 tilts in the opposite direction and pours the honey just dug out to the surrounding areas. The first rotating shaft 7 passes through the ring plate 96 and is rotatably connected at the penetration point. The outer wall of the ring plate 96 is fixed with a long plate 97, and the side wall of the long plate 97 is fixed with a limit plate 98. The limit plate 98 is fixed with a spring 99 away from the side wall of the ring plate 96. The side wall of the long plate 97 is provided with a sliding groove, and the inner wall of the sliding groove is slid with a spoiler 910. When the second rotating shaft 86 rotates, its outer wall The stirring plate 87 hits the spoiler plate 910, pushing the spoiler plate 910 to slide in the direction away from the ring plate 96. The end of the spring 99 away from the limit plate 98 is fixedly connected to the side wall of the spoiler plate 910. When the spoiler plate 910 slides in the direction away from the ring plate 96, the spring 99 is stretched. When the spoiler plate 910 slides in the direction away from the ring plate 96, the flow direction of the inner and outer parts of the honey is changed, so that the honey cooled on the outside is pushed to the inside, and the cooled honey is mixed with the honey that is not completely cooled, thereby accelerating the cooling of the honey. The disturbance mechanism 9 drives the hinged plate 93 to rotate through the rotation of the second rotating shaft 86 in coordination with the connecting plate 91 and the connecting rod 92. When the hinged plate 93 rotates, it drives the diverter plate 94 and its hinged end to tilt up, so that the ring 95 moves downward, and the honey in the bottom center is dug out.This prevents some honey from crystallizing at the bottom of the cooling tank 3 for a long time, causing blockage in the discharge pipe 5 and affecting the workers' unloading. As the second rotating shaft 86 rotates, the stirring plate 87 rotates, hitting the spoiler plate 910, pushing the spoiler plate 910 to slide outward along the long plate 97. The limit plate 98 and the spring 99 then cooperate to reset the spoiler plate 910, so that the cooled honey inside and outside the cooling tank 3 is dispersed with the honey that has not been fully cooled inside, making them more evenly mixed, further improving the cooling efficiency of the honey.

[0033] The cooling tank 3 is provided with an articulated mechanism 10 for intermittent feeding. The articulated mechanism 10 includes a sliding ring 101, an L-shaped rod 102, a baffle 103 and a slider 104. The sliding ring 101 is penetrated by the first rotating shaft 7, and the penetration is in contact. The outer wall of the first rotating shaft 7 is provided with a wave groove. When the first rotating shaft 7 rotates, the wave groove liquid on its outer wall rotates together. The inner wall of the sliding ring 101 is fixed with a convex rod. The outer wall of the convex rod is in contact with the wave groove and is connected to the sliding groove for sliding. When the wave groove rotates, the convex rod on the inner wall of the sliding ring 101 is driven to slide along the wave groove. When the convex rod slides along the wave groove, it drives the sliding ring 101 to slide up and down. The outer wall of the sliding ring 101 is fixed with an L-shaped rod 102. The sliding ring 101 slides downward, driving the L-shaped rod 102 to move up and down. The upper surface of the inner wall of the cooling tank 3 is hinged with a baffle 103. A sliding groove is provided on the bottom surface of the baffle 103, and a slider 104 slides on the inner wall of the sliding groove. When the slider 104 moves up and down, it drives the baffle 103 to rotate along the hinge point between it and the cooling tank 3. The end of the L-shaped rod 102 away from the sliding ring 101 is hinged to the bottom surface of the slider 104. The L-shaped rod 102 moves downward and drives the slider 104 to move up and down. The hinge mechanism 10 drives the sliding ring 101 to slide up and down through the rotation of the first rotating shaft 7, in conjunction with the wave groove and the convex rod. The sliding ring 101 slides up and down and drives the L-shaped rod 102 to move up and down, and cooperates with the slider 104 to rotate the baffle 103. When the baffle 103 rotates, the feed pipe 4 is fed intermittently, and the honey is fed quantitatively, so that the total heat of the honey in the cooling tank 3 is lower, the cooling effect is accelerated, and the cooling efficiency is improved.

[0034] When the present embodiment is working, when the second rotating shaft 86 rotates, the connecting plate 91 is driven to rotate around the second rotating shaft 86, and the connecting plate 91 rotates to drive the connecting rod 92 to rotate. When the connecting rod 92 rotates, the hinge plate 93 is driven to rotate along with the connecting rod 92. When the hinge plate 93 rotates, when the hinge plate 93 gradually approaches from a position away from the first rotating shaft 7, the diverter plate 94 hinged thereto rotates around the hinge point, pushing the ring 95 to slide downward. When the ring 95 slides downward, it digs up the honey in the bottom center part. As the second rotating shaft 86 continues to rotate, the second rotating shaft 86 drives the hinge plate 93 to gradually move away from the first rotating shaft 7, and the hinge plate 93 drives the diverter plate 94 to rotate in the opposite direction around the hinge point and gradually returns to its original position. The diverter plate 94 pulls The movable ring 95 slides upward. At this time, the honey dug out from the bottom has been filled with the surrounding honey. The second rotating shaft 86 continues to rotate, and the diverter plate 94 drives the ring 95 to continue to slide upward. The diverter plate 94 tilts in the opposite direction, pouring the honey just dug out to the surrounding areas. When the second rotating shaft 86 rotates, the stirring plate 87 on its outer wall hits the spoiler plate 910, pushing the spoiler 910 to slide in the direction away from the ring plate 96. The honey on the outside of the cooling tank 3 flows from the periphery of the spoiler 910 to the center. When the spoiler 910 slides in the direction away from the ring plate 96, the spring 99 is stretched. When the stirring plate 87 rotates to leave the spoiler 910, the spoiler 910 slides in the direction of the ring plate 96 by the tension of the spring 99, and then the honey inside and outside is replaced.

[0035] The sliding ring 101 slides upward, driving the L-shaped rod 102 to move upward, and the L-shaped rod 102 moves upward, pushing the slider 104 upward and driving the baffle 103 to rotate upward, blocking the feeding pipe 4 and stopping feeding.

[0036] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A high-efficiency cooler for honey production, comprising a cooling water tank (1), characterized in that: The bottom surface of the cooling water tank (1) is fixed with a support leg (2), the inner wall of the cooling water tank (1) is fixed with a cooling tank (3), the upper surface of the cooling tank (3) is fixed with an inlet pipe (4), the upper end of the inlet pipe (4) is funnel-shaped, the bottom surface of the cooling tank (3) is fixed with a discharge pipe (5), the discharge pipe (5) is provided with a valve, the upper surface of the cooling water tank (1) is fixed with a motor (6), the output end of the motor (6) is fixed with a first rotating shaft (7), the first rotating shaft (7) passes through The first rotating shaft (7) passes through the upper surface of the cooling water tank (1) and is rotatably connected at the penetration point. The first rotating shaft (7) passes through the upper surface of the cooling tank (3) and is rotatably connected at the penetration point. A threaded plate for conveniently stirring honey is fixed on the outer wall of the lower end of the first rotating shaft (7). The cooling water tank (1) is provided with a dispersion mechanism (8) for stirring cooling water to accelerate heat transfer. The cooling tank (3) is provided with a disturbance mechanism (9) for preventing crystallization from settling to the bottom. The cooling tank (3) is provided with a hinge mechanism (10) for convenient intermittent feeding. The dispersing mechanism (8) comprises a turntable (81), a sliding block (82), an agitating plate (83), a large gear (84), a small gear (85) and a second rotating shaft (86); the turntable (81) is fixedly connected to the outer wall of the first rotating shaft (7); the bottom surface of the turntable (81) is in contact with the upper surface of the cooling tank (3); the turntable (81) is provided with a guide groove; the upper surface of the turntable (81) is slid with a sliding block (82); the bottom surface of the sliding block (82) is fixed with a guide column; the outer wall of the guide column is slidably connected to the guide groove.

2. A high-efficiency cooler for honey production according to claim 1, characterized in that: A guide bar is fixed on the upper surface of the inner wall of the cooling water tank (1), and the guide bar is slidably connected to the upper surface and inner wall of the sliding block (82). An agitating plate (83) is fixed to the end of the sliding block (82) away from the turntable (81), and the agitating plate (83) is in an arc shape and fits on the outer wall of the cooling tank (3). A large gear (84) is fixed on the outer wall of the first rotating shaft (7), and the upper surface of the large gear (84) fits on the upper surface of the inner wall of the cooling tank (3).

3. The high-efficiency cooler for honey production according to claim 2, characterized in that: The upper surface of the inner wall of the cooling tank (3) is fixed with a limiting rod, and the limiting rod is provided with four groups, which are distributed in a circular pattern. The limiting rod passes through the small gear (85) and is rotatably connected at the penetration point. The small gear (85) is meshed with the large gear (84). The upper surface of the small gear (85) is in contact with the upper surface of the inner wall of the cooling tank (3). The bottom surface of the small gear (85) is fixed with a second rotating shaft (86), and the outer wall of the second rotating shaft (86) is fixed with a stirring plate (87).

4. The high-efficiency cooler for honey production according to claim 1, characterized in that: The disturbance mechanism (9) comprises a connecting plate (91), a connecting rod (92), a hinged plate (93), a diverter plate (94), a circular ring (95), a ring plate (96), a long plate (97), a limiting plate (98), a spring (99) and a spoiler (910); the connecting plate (91) is fixedly connected to the bottom surface of the second rotating shaft (86); and the connecting rod (92) is fixed to the bottom surface of the connecting plate (91).

5. The high-efficiency cooler for honey production according to claim 4, characterized in that: The connecting rod (92) passes through the hinge plate (93) and is rotatably connected at the penetration point. The hinge plate (93) is semicircular. The arc surface of the hinge plate (93) is hinged with a diverter plate (94). The diverter plate (94) is fan-shaped. The large arc surface of the diverter plate (94) is hinged to the hinge plate (93). The small arc surface of the diverter plate (94) is hinged to the outer wall of the ring (95). The first rotating shaft (7) passes through the ring (95) and is in contact with the penetration point.

6. The high-efficiency cooler for honey production according to claim 5, characterized in that: The first rotating shaft (7) passes through the ring plate (96) and is rotatably connected at the penetration point. A long plate (97) is fixed to the outer wall of the ring plate (96). A limiting plate (98) is fixed to the side wall of the long plate (97). A spring (99) is fixed to the side wall of the limiting plate (98) away from the ring plate (96). A sliding groove is opened on the side wall of the long plate (97). A spoiler (910) slides on the inner wall of the sliding groove. One end of the spring (99) away from the limiting plate (98) is fixedly connected to the side wall of the spoiler (910).

7. The high-efficiency cooler for honey production according to claim 1, characterized in that: The hinge mechanism (10) comprises a sliding ring (101), an L-shaped rod (102), a baffle (103) and a slider (104); a first rotating shaft (7) passes through the sliding ring (101) and the passing portion is in close contact with the first rotating shaft (7); a wave groove is provided on the outer wall of the first rotating shaft (7); a protruding rod is fixed to the inner wall of the sliding ring (101); the outer wall of the protruding rod is in close contact with the wave groove for sliding connection.

8. The high-efficiency cooler for honey production according to claim 7, characterized in that: An L-shaped rod (102) is fixed to the outer wall of the sliding ring (101), a baffle (103) is hinged on the upper surface of the inner wall of the cooling tank (3), a sliding groove is provided on the bottom surface of the baffle (103), a slider (104) slides on the inner wall of the sliding groove, and one end of the L-shaped rod (102) away from the sliding ring (101) is hinged to the bottom surface of the slider (104).

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