WO2020211309A1 - 碎冰装置及冰箱 - Google Patents

碎冰装置及冰箱 Download PDF

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Publication number
WO2020211309A1
WO2020211309A1 PCT/CN2019/111163 CN2019111163W WO2020211309A1 WO 2020211309 A1 WO2020211309 A1 WO 2020211309A1 CN 2019111163 W CN2019111163 W CN 2019111163W WO 2020211309 A1 WO2020211309 A1 WO 2020211309A1
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WO
WIPO (PCT)
Prior art keywords
ice
stopper
crushing device
stop
bucket
Prior art date
Application number
PCT/CN2019/111163
Other languages
English (en)
French (fr)
Inventor
赵振雨
张延庆
杜启海
张方友
崔船
米波
Original Assignee
青岛海尔电冰箱有限公司
海尔智家股份有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from CN201910311461.3A external-priority patent/CN111829239B/zh
Application filed by 青岛海尔电冰箱有限公司, 海尔智家股份有限公司 filed Critical 青岛海尔电冰箱有限公司
Priority to AU2019440809A priority Critical patent/AU2019440809B2/en
Priority to EP19925086.1A priority patent/EP3957934B1/en
Publication of WO2020211309A1 publication Critical patent/WO2020211309A1/zh

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Classifications

    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25—REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25C—PRODUCING, WORKING OR HANDLING ICE
    • F25C5/00—Working or handling ice
    • F25C5/02—Apparatus for disintegrating, removing or harvesting ice
    • F25C5/04—Apparatus for disintegrating, removing or harvesting ice without the use of saws
    • F25C5/12—Ice-shaving machines
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25—REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25C—PRODUCING, WORKING OR HANDLING ICE
    • F25C5/00—Working or handling ice
    • F25C5/02—Apparatus for disintegrating, removing or harvesting ice
    • F25C5/04—Apparatus for disintegrating, removing or harvesting ice without the use of saws
    • F25C5/046—Ice-crusher machines
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25—REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25D—REFRIGERATORS; COLD ROOMS; ICE-BOXES; COOLING OR FREEZING APPARATUS NOT OTHERWISE PROVIDED FOR
    • F25D11/00—Self-contained movable devices, e.g. domestic refrigerators

Definitions

  • This application relates to the technical field of home appliances, and in particular to an ice crushing device and a refrigerator.
  • the ice maker of the refrigerator includes an ice making device and an ice crushing device.
  • the ice making device prepares the ice cubes and stores them in a bucket-shaped container for people to take.
  • the technicians set the ice out mode of the refrigerator to crushed ice mode and ice cube mode. In the crushed ice mode, people use cut ice cubes; while in the ice cube mode, people use whole ice cubes.
  • the ice crushing mode and the ice cube mode are generally implemented by arranging the ice crushing blade assembly in the bucket-shaped container.
  • the ice crushing blade assembly includes a fixed ice blade and a movable ice blade.
  • One end of the fixed ice blade is movably installed on the rotating shaft of the ice crushing blade assembly, and one end of the movable ice blade is fixedly installed on the rotating shaft of the ice crushing blade assembly, so that the rotating shaft drives the ice blade to rotate.
  • the rotating shaft rotates in the positive direction (that is, it rotates in the direction of the fixed ice blade)
  • the movable ice blade and the fixed ice blade are interlaced
  • the ice crushing blade assembly cuts the ice cubes. This is the ice crushing mode.
  • the ice crushing blade assembly When the rotating shaft rotates in the reverse direction, the ice crushing blade assembly only drives and agitates the ice cubes near the ice blades, and makes the ice cubes slide out from the outlet of the bucket-shaped container. This is an ice cube mode.
  • the ice outlet of the ice crushing device is open.
  • the prior art adds a slope with a certain height at the ice outlet. This method of increasing the slope at the ice outlet can effectively reduce the chance of ice falling, but when the ice is rounded, it will cause the ice to be easily crushed between the moving ice blade and the slope, reducing the whole ice. Ice rate.
  • embodiments of the present application provide an ice crushing device that can prevent ice cubes from falling without affecting the ice yield rate and corresponding refrigerator.
  • embodiments of the present application provide an ice crushing device and a corresponding refrigerator that can prevent ice cubes from falling without affecting the ice yield rate.
  • the ice crushing device prevents the crushed ice from falling by adding a stop component, and the setting of the stop component does not affect the whole ice.
  • an ice crushing device includes a shell assembly, including a shell and an ice bucket supported in the shell; an ice crushing mechanism is provided in the ice bucket, The ice crushing mechanism includes an ice blade shaft, a plurality of movable ice blades and a plurality of fixed ice blades arranged on the ice blade shaft at intervals; a driving mechanism for driving the ice bucket or the ice blade shaft to rotate, and at least a part of the driving structure is installed on the ice blade shaft.
  • the shell assembly further includes an ice discharge substrate arranged at the bottom of the ice bucket, the ice discharge substrate is provided with an ice discharge port communicating with the ice bucket, and the ice cubes obtained by the ice making mechanism are in
  • the ice bucket is broken by the ice crushing mechanism and discharged from the ice discharge port;
  • the stop component is arranged in the ice bucket; when the ice crushing device is in the first state, the stop component is in the initial state And a stop surface is formed at the ice discharge port to prevent ice from falling; when the ice crushing device is in the second state, under the action of external force, the stop component changes in position or shape to The stop surface is released, and after the external force disappears, the stop component returns to the initial state and forms the stop surface again.
  • the second state is a rounded ice state
  • the first state is a state other than the rounded ice state
  • the stop assembly includes a stopper and a restoring member, the stopper is used to form a stop surface that prevents the ice cubes from falling, and the restoring member is used to provide a restoring force for the reset of the stopper .
  • the stop assembly is arranged on the ice skate shaft and is located between adjacent movable ice skates and fixed ice skates.
  • the stop assembly further includes a fixing member for fixing the stop member and the restoring member.
  • the stopper further includes a reinforcing rib, and the reinforcing rib is disposed between the stopper portion and the fixed portion.
  • the stopper includes a stopper portion and a fixed portion
  • the stopper portion is a plate-like structure having a predetermined height in the vertical direction and a predetermined length in the horizontal direction
  • the fixing portion includes a structure for connecting with the ice blade shaft. The matched first through hole and the first fixed end surface for fixing the restoring member.
  • the stop assembly is arranged on the ice discharge substrate at a position adjacent to the ice discharge opening.
  • the stopper includes a stopper portion and a fixed portion, a buckle portion is provided on the end surface of the ice discharge substrate, and the fixed portion and the buckle portion are matched and fixed to each other.
  • the restoring member is a torsion spring, and the torsion spring is disposed on the fixing portion and located at one end away from the housing.
  • the stop assembly includes a stopper, the stopper includes a stopper made of an elastic material, and the stopper is used to form a stop surface that prevents ice cubes from falling.
  • the stopper is arranged at a position on the ice discharge substrate adjacent to the ice discharge port.
  • the stopper further includes a fixing part connected to the stop part, and the fixing part is fixed on the side wall of the ice discharge base plate.
  • the stop portion includes an end far away from the ice ejection substrate and a junction end that intersects the substrate surface of the ice ejection substrate, and the cross-sectional thickness of the stop portion gradually decreases in the direction from the junction end to the end. small.
  • the embodiment of the present application also provides a refrigerator.
  • the specific technical solution of the refrigerator is as follows: the refrigerator includes a cabinet, a door for opening or closing the cabinet, and the ice crushing device as described in any one of the above, the ice crushing device is provided in the cabinet Or door body.
  • the ice crushing device proposed in the embodiment of the present application adds a stopper component to prevent the broken ice from falling, and the setting of the stopper component does not affect the ice production rate.
  • the stop assembly further includes an elastic member for providing restoring force, so that the stop member in the stop assembly can be automatically reset.
  • Figure 1 is a perspective schematic view of the ice crushing device in the first preferred embodiment of the present application
  • Fig. 2 is a three-dimensional schematic diagram of the ice crushing device in Fig. 1 after the shell is hidden;
  • Figure 3 is a perspective exploded schematic view of the housing assembly in Figure 1;
  • Figure 4 is a perspective schematic view of the housing in Figure 1;
  • Fig. 5 is a perspective schematic view of the housing in Fig. 1 from another perspective;
  • Figure 6 is a schematic cross-sectional view of the housing in Figure 5;
  • Fig. 7 is a three-dimensional schematic diagram of a hidden part of the housing in Fig. 1;
  • FIG. 8 is a three-dimensional schematic diagram of the ice crushing component of the ice crushing device in FIG. 1;
  • Fig. 9 is a partial three-dimensional exploded schematic view of the ice crushing component in Fig. 8;
  • Figure 10 is a perspective schematic view of the stopper in Figure 8.
  • Fig. 11 is a perspective schematic view of a part of the housing hidden in the second preferred embodiment of the present application.
  • Figure 12 is a perspective exploded schematic view of the housing assembly in Figure 11;
  • FIG. 13 is a three-dimensional schematic diagram of a hidden part of the housing in the third preferred embodiment of the present application.
  • Fig. 14 is a perspective exploded schematic view of the housing assembly in Fig. 13.
  • the first preferred embodiment provided by this application discloses a refrigerator.
  • the refrigerator includes a box body and a door for opening or closing the box body.
  • the box body defines a storage compartment, and the number and structure of the storage compartment It can be configured according to different needs.
  • the storage compartment usually includes a refrigerator compartment and a freezer compartment.
  • the refrigerator further includes an ice crushing device 100, which is arranged on the cabinet or the door.
  • the ice crushing device 100 includes a housing assembly 10, a drive mechanism 30 installed in the housing assembly 10, and an ice crushing mechanism 50.
  • the housing assembly 10 includes a housing 11 and an ice bucket 12 supported in the housing 11.
  • the drive mechanism 30 is used for The ice bucket 12 is driven to rotate, and at least a part of the driving structure 30 is installed in the housing.
  • the ice crushing mechanism 50 is arranged in the ice bucket 12 and used for crushing ice cubes obtained by the ice making mechanism.
  • the housing assembly 10 further includes an ice ejection substrate 13 arranged at the bottom of the ice bucket 12, and the ice ejection substrate 13 is fixedly arranged with respect to the housing 11.
  • the ice ejection substrate 13 and the housing 11 may be integrally arranged, such as by injection molding.
  • the ice ejection substrate 13 is provided with an ice ejection port 131 communicating with the ice bucket 12.
  • the ice ejection port 131 may be a substantially fan-shaped opening on the ice ejection substrate 13, and the central angle of the fan-shaped opening is approximately less than 180 degrees, preferably at 120 degrees.
  • the driving mechanism 30 includes a motor (not shown) and a cylindrical gear 31 driven by the motor.
  • the outer circumference of the ice bucket 12 is provided with external teeth 121, and the cylindrical gear 31 meshes with the external teeth 121 to drive the ice bucket 12 Spin.
  • a gear assembly is provided between the motor and the cylindrical gear 31, and the gear assembly includes a first bevel gear 32 connected to the motor and a second bevel gear 33 meshing with the first bevel gear 32, the cylindrical gear 31 and the second bevel gear 33 It is coaxial and relatively fixedly arranged, that is, the motor drives the first bevel gear 32 to rotate, and the cylindrical gear 31 and the second bevel gear 33 rotate synchronously, so as to realize the transmission of torque from the motor to the ice bucket 12.
  • the overall size of the driving mechanism can be designed reasonably, so that the cooperation between the motor and the gear assembly is more compact, and the overall volume of the ice crushing device is more compact.
  • the driving mechanism can also be other transmission structures, such as belt transmission mechanism, chain transmission mechanism, worm gear, etc.
  • the gear mechanism is not limited to bevel gears, and can also be spur gears, helical gears, herringbone gears, curved gears, etc.
  • the housing 11 includes a first part 11a for accommodating the ice bucket 12 and a second part 11b for installing the driving mechanism 30.
  • the first part 11a is configured to match the periphery of the ice bucket 12, that is, the first part 11a is also arranged in a cylindrical shape, and the ice bucket 12 is in the cylindrical shape.
  • the first part 11a of the shape rotates inside.
  • an opening 111 is provided on the first part 11a, and the meshing part of the cylindrical gear 31 and the external teeth 121 is located at the opening 111, so that the opening 111 can be minimized. It is sufficient to satisfy the stable meshing of the cylindrical gear 31 and the external teeth 121.
  • the housing assembly 10 also includes a bottom plate 14.
  • the bottom of the second part 11b is open, and the bottom plate 14 is provided on the bottom of the second part 11b to seal the cylindrical gear 31 between the second part 11b and the bottom plate 14.
  • the bottom is provided with a card slot 133.
  • the bottom plate 14 is provided with a protrusion 143 in the card slot 133 with a shape matching.
  • the protrusion 143 sinks into the card slot 133.
  • the protrusion 143 and the card slot 133 are both fish-shaped, so that the ice is broken. The overall sealing of the device is better.
  • first portion 11a is provided with a first step portion 113 and a second step portion 114 spaced along the axial direction of the ice bucket 12, and a backing ring (not shown in the figure) is provided between the ice bucket 12 and the first portion 11a.
  • One end of the backing ring has a flanging, the flanging abuts on the first step portion 113, and the other end of the backing ring abuts on the second step portion 114.
  • the backing ring makes the rotation of the ice bucket 12 more stable and reduces the size of the ice bucket. Rotational wear between 12 and housing 11.
  • the housing assembly 10 also includes a back cover 15 connected to the housing 11, the outer side of the back cover 15 is connected with a motor, a first bevel gear 32 and a second
  • the two bevel gears 33 are supported between the rear cover 15 and the housing 11.
  • the gap between the ice bucket 12 and the cylindrical gear 31 meshing part 111 and the gap between the ice bucket 12 and the housing 11 exist, in order to prevent The crushed ice in the ice bucket 12 enters the driving mechanism 30 from the opening 111 or the gap.
  • a groove 136 extending in the circumferential direction of the ice bucket 12 may be provided between the ice discharge base plate 13 and the first part 11a, the groove 136 and the ice discharge port 131 is connected, and the lower edge of the ice bucket 12 extends into the groove 136. In this way, the broken ice needs to pass through the groove 136 to enter the driving mechanism 30 on the other side. The broken ice will first accumulate in the groove 136. When the ice bucket 12 rotates, the broken ice will be taken away from the ice outlet 131. Falling, this design can effectively solve the problem of crushed ice accumulation.
  • a convex portion 137 is formed at the bottom of the ice discharge substrate 13 at a position corresponding to the groove 136.
  • the bottom plate 14 is provided with a concave portion 147.
  • the convex portion 137 fits into the concave portion 147 to facilitate the assembly of the bottom plate and connects the groove 133 of the bottom plate with the convex portion 137 are adjacent to each other, thereby forming a labyrinth seal structure to prevent lubricating oil, impurities, broken ice, etc. between the gears from leaking from the housing assembly 10.
  • the ice crushing mechanism 50 includes an ice blade shaft 51 fixed with respect to the housing 11, and a plurality of movable ice blades 52 and a plurality of fixed ice blades 53 arranged on the ice blade shaft 51 at intervals, wherein the ice blade shaft 51 is fixed on the ice discharge base 13 .
  • the ice skate shaft 51 includes a shaft core 515, a shaft sleeve 511 and an end nut 513, and the shaft core 515 is located in the inner space of the shaft sleeve 511.
  • the bottom end of the shaft core 515 is provided with a thread, and the thread and the end nut 513 are matched with each other.
  • the movable ice blade 52 is fixed relative to the ice bucket 12, while the fixed ice blade 53 is fixed relative to the ice blade shaft 51. In this way, the movable ice blade 52 is rotated by the ice bucket 12, while the fixed ice blade 53 is fixed relative to the housing 11. .
  • the ice cubes in the ice bucket 12 are broken by the rotation of the movable ice blade 52 relative to the fixed ice blade 53.
  • an ice stirring rod 54 may be installed at the end of the ice blade shaft 51 away from the ice discharge port 131. The ice stirring rod 54 may extend toward the other end of the ice blade shaft 51 and be fixed with the movable ice blade 52.
  • the ice blade 52 is rotated together while stirring the ice cubes.
  • the rotation of the movable ice blade 52 may be that the movable ice blade 52 is directly fixed on the inner wall of the ice bucket 12, or the movable ice blade 52 and the ice stirring rod 54 are relatively fixed and the ice stirring rod 54 is fixed on the inner wall of the ice bucket 12.
  • the fixing can be relative to the circumferential direction of the ice bucket 12, the axial direction can be set to be fixed, or the axial distance can be adjusted relative to the ice bucket 12.
  • the inner wall of the ice bucket 12 is provided with a first limiting groove 123 extending along the axial direction, wherein one end of the ice stirring rod 54 is clamped in the first limiting groove 123, and the movable ice blade 52 is circumferentially Fixed to the ice stirring rod 54.
  • the movable ice blade 52 includes two in-line blades, and the movable ice blade 52 is provided with two, the same fixed ice blade 53 is also provided with two, the movable ice blade 52 is arranged adjacent to the fixed ice blade 53, and the ice stirring rod 54 corresponds to the movable ice blade 52 The number of blades is also set to two.
  • One end of the ice stirring rod 54 is provided with a second limiting groove 543 extending in the axial direction.
  • the two blades corresponding to the two movable ice knives 52 are respectively provided with protrusions 523.
  • the protrusions 523 are all locked in the second limiting groove 543 to realize the circumferential fixation of the movable ice blade 52 with respect to the ice stirring rod 54.
  • the ice discharge port 131 of the ice discharge substrate 13 is open.
  • the broken ice cubes easily fall from the ice discharge opening 131.
  • the extension of the slope in the height direction will reduce the space between the movable ice blade 52 and the ice discharge port 131, resulting in a gap between the movable blade 52 and the slope. The whole ice is easily crushed by the ice, so that the ice output rate of the ice crushing device 100 is reduced.
  • the embodiment of the present application adds a stop component to the ice crushing device 100 to achieve the effect of preventing the problem of ice falling and not affecting the ice formation rate.
  • the stop assembly includes a stopper 73 for stopping ice cubes, an elastic member 72 for restoring the stopper 73, and a fixing member 71 for fixing the stopper 73 and the elastic member 72.
  • the elastic member 72 since the elastic member 72 is mainly used for restoring the stopper 73 to provide restoring force, the elastic member 72 may also be called a restoring member.
  • the stopper 73 includes a stop part 732 and a fixing part 731.
  • the stopping portion 732 is a plate-like structure having a predetermined height in the vertical direction and a predetermined length in the horizontal direction, and forms a stopping surface with its own structure to prevent the ice from falling.
  • the fixing portion 731 is generally cylindrical and includes a first through hole 731b and a stepped surface 731a.
  • the step surface 731a serves as a first fixed end surface for fixing the elastic member 72.
  • the first through hole 731b is used to match the ice skate shaft 51. In this embodiment, the shaft core 515 of the ice skate shaft 51 passes through the first through hole 731b.
  • the stopper 73 further includes a reinforcing rib 735 located between the stopper 732 and the fixing portion 731 for strengthening the connection between the stopper 732 and the fixing portion 731.
  • the stop portion 732 is plate-shaped, and the fixed portion 731 is cylindrical. Therefore, the original connection end surface between the stop portion 732 and the fixed portion 731 is a line connection.
  • the reinforcing rib 735 is connected by one more layer between the stop part 732 and the fixed part 731, which effectively improves the connection strength between the two, and improves the impact resistance of the stop member 73 against ice.
  • the reinforcing rib 735 has a triangular-like panel structure, which further improves the connection area and connection strength.
  • the elastic member 72 is specifically a torsion spring.
  • the shape of the fixing member 71 is generally cylindrical, and includes a second fixing end surface for fixing the elastic member 72 and a second through hole for matching with the ice skate shaft.
  • the stop assembly is coaxially mounted on the ice blade shaft 51 with the movable ice blade 52 and the fixed ice blade 53.
  • the stop assembly is located between the adjacent movable ice blade 52 and the fixed ice blade 53.
  • the fixing part 71, the elastic part 72 and the stop part 73 in the stop assembly are sequentially sleeved on the shaft core 515.
  • the elastic member 72 ie torsion spring
  • the ice crushing device 100 may include a plurality of stop components to form a plurality of stops. In the vertical direction, the stop parts 732 of the stoppers 73 of the multiple stop assemblies are on the same plane. According to the principle of force, when the stopper 73 is installed, the side of the stopper 73 with the reinforcing rib 735 needs to be located on the side of the ice discharge port 131.
  • the torsion spring In the initial state, the torsion spring is in a free state; when the stopper 73 is rotated by an external force, the torsion spring is converted into a working state by the torsion force and stores the restoring force. When the rotating torsion of the stopper 73 decreases or disappears, the restoring force of the torsion spring pushes the stopper 73 to reverse rotation and restore the initial state.
  • the movable ice blade 52 When the ice is rounded, the movable ice blade 52 will push the ice cube to drive the stopper 73 to rotate in the direction of the ice discharge port 131 on a horizontal surface. When the ice cube reaches the ice discharge port 131, the whole ice will fall; , Under the action of the restoring force of the elastic member 72, the stopper 73 returns to the initial position. When the ice box is taken out, the stopper 73 does not move and is not affected by the movement of the movable ice blade 52. The stopper 73 is located at the initial position. Due to the stopper effect of the stopper 73, it can effectively prevent broken ice from the ice discharge port. 131 dropped.
  • the rounded ice state is defined as the second state, and the states other than the rounded ice state are defined as the first state.
  • the first state includes the state of taking out the ice box from the refrigerator or the state of vibration generated by the user when opening and closing the door of the refrigerator.
  • the stop assembly When the ice crushing device 100 is in the first state, the stop assembly is in the initial state and a stop surface is formed at the ice discharge port 131 for preventing the ice from falling; when the ice crushing device 100 is in the second state, it is Under the action (that is, the external force exerted on the stopper 73 by the movable ice blade 52 pushing the ice cube), the position of the stop component is changed to release the stop surface, and the external force (that is, the movable ice blade 52 pushes the ice cube to apply the stopper 73) After the external force) disappears, the stop component returns to the initial state.
  • the stop component not only can effectively prevent the falling of the broken ice without affecting the ice rate, but also has the function of automatically returning to the initial state.
  • Figures 11 to 12 show another preferred embodiment of this application.
  • the stop assembly is installed at a position of the ice ejection substrate 13 near the ice ejection opening 131, and specifically installed on the end surface of the ice ejection substrate 13.
  • the stopper assembly includes a stopper 73 for stopping ice cubes, and an elastic member 72 for restoring the stopper 73; the end surface of the ice discharge base plate 13 is provided with a stopper 73 and the elastic member 72.
  • the snap portion 132 The stopper 73 forms a stop surface with a preset height at the junction of the ice discharge base plate 13 and the ice discharge port 131, and the stop surface blocks the channel through which the ice cubes fall.
  • the elastic member 72 since the elastic member 72 is mainly used for restoring the stopper 73 to provide a restoring force, the elastic member 72 can also be called a restoring member.
  • the stopper 73 includes a stop part 732 and a fixing part 731.
  • the stopping portion 732 is a plate-like structure having a predetermined height in the vertical direction and a predetermined length in the horizontal direction, and forms a stopping surface with its own structure to prevent the ice from falling.
  • the length of the stop portion along the horizontal direction is approximately equal to or slightly smaller than the radius of the ice discharge substrate 13.
  • the fixed portion 731 is a cylinder, and may also be referred to as a pivot shaft.
  • the buckle portion 132 is a buckle structure (that is, a shaft hole structure) having a through hole that can accommodate the pivot shaft.
  • a plurality of buckling portions 132 are provided on the end surface of the ice discharge substrate 13 and each buckling portion 132 is spaced apart by a predetermined distance, which helps to balance the rotation of the stopper 73.
  • the fixing portion 731 and the stopping portion 732 are connected to each other or are manufactured integrally.
  • the elastic member 72 is specifically a torsion spring, and the torsion spring is sleeved on the fixing portion 731 and located at an end away from the housing 11, that is, located at an end of the fixing portion 731 adjacent to the skate shaft 51.
  • One end of the torsion spring is resisted by the skate shaft 51, and the other end of the torsion spring is resisted by the connection between the fixing portion 731 and the stopping portion 732.
  • the fixing portion 731 is clamped into the buckle portion 132, and the torsion spring is sleeved on the end of the fixing portion 731 adjacent to the ice blade shaft 51.
  • the torsion spring In the initial state, the torsion spring is in a free state; when the stopper 73 is turned over, the torsion spring is subjected to torsion force to transform into a working state and stores the restoring force. When the turning torsion force of the stopper 73 decreases or disappears, the restoring force of the torsion spring pushes the stopper 73 to reversely reverse and restore the initial state.
  • the movable ice blade 52 When the ice is rounded, the movable ice blade 52 will push the ice cube to drive the stopper 73 to rotate on the vertical surface below the ice discharge port 131. When the ice cube reaches the ice discharge port 131, the whole ice will fall; After the ice is over, under the action of the restoring force of the elastic member 72, the stopper 73 returns to the initial position. When the ice box is taken out, the stopper 73 does not move and is not affected by the movement of the movable ice blade 52. The stopper 73 is located at the initial position. Due to the stopper effect of the stopper 73, it can effectively prevent broken ice from the ice discharge port. 131 dropped.
  • the rounded ice state is defined as the second state, and the states other than the rounded ice state are defined as the first state.
  • the first state includes the state of taking out the ice box from the refrigerator or the state of vibration generated by the user when opening and closing the door of the refrigerator.
  • the stop assembly When the ice crushing device 100 is in the first state, the stop assembly is in the initial state and a stop surface is formed at the ice discharge port 131 for preventing the ice from falling; when the ice crushing device 100 is in the second state, it is Under the action (that is, the external force exerted on the stopper 73 by the movable ice blade 52 pushing the ice cube), the position of the stop component is changed to release the stop surface, and the external force (that is, the movable ice blade 52 pushes the ice cube to apply the stopper 73) After the external force of) disappears, the stop component can return to the initial state.
  • the stop component not only can effectively prevent the falling of broken ice without affecting the rounding rate, but also has the function of automatically returning to the initial state.
  • the driving object of the driving mechanism 30 can also be replaced with the ice blade shaft 51, that is, the driving mechanism 30 drives the ice blade shaft 51 to rotate, and the ice bucket 12 is fixed relative to the housing 11. Since the driving mechanism 30 drives the ice blade shaft 51 to rotate and the ice bucket 12 is fixed relative to the housing 11, the ice crushing method is the prior art (CN105509391A), and will not be repeated here.
  • Figures 13 to 14 show still another preferred embodiment of this application.
  • the stop assembly only includes a stopper 73, and at least part of the stopper 73 has elastic properties.
  • the stopper 73 is installed at a position close to the ice discharge opening 131 of the ice discharge base plate 13, and is specifically installed on the end surface of the ice discharge base plate 13.
  • the stopper 73 includes a stop part 732 and a fixing part 731.
  • the stopper 732 has elastic properties. When the stopper 732 is subjected to an external force, it can bend elastically; after the external force disappears, its own elastic properties can restore the original state.
  • the material of the stopper 732 is specifically silicone rubber. In other embodiments, the material of the stopper 732 can also be other types of materials with elastic properties.
  • the stopping portion 732 is a curved structure having a predetermined height in the vertical direction and a predetermined length in the horizontal direction, and the concave surface of the curved structure faces the ice storage area.
  • the stopping portion 732 forms a stopping curved surface with its own structure, thereby preventing the ice cubes from falling.
  • the stop portion 732 includes an end 732 a away from the ice ejection substrate 13 and a junction end 732 b that intersects the substrate surface 135 of the ice ejection substrate 13.
  • the cross-sectional thickness of the stopper 732 gradually decreases along the direction from the junction end 732b to the end 732a, thereby effectively balancing the blocking force for blocking the broken ice and the elastic force required for rounding the ice.
  • the height of the stopper 732 is lower than the vertical height of the lowermost movable ice blade 52.
  • the fixing portion 731 is in close contact with the side wall portion 134 of the ice discharging substrate 13 to fix the stopper 73 on the end surface of the ice discharging substrate 13.
  • the fixing part 731 may be integrally formed with the stop part 732.
  • the stopper 73 and the housing 11 are two-shot injection molded.
  • the movable ice blade 52 When the ice is rounded, the movable ice blade 52 will push the ice cubes to drive the stopper 73 to elastically deform. When the ice cubes reach the ice discharge port 131, the whole ice will fall; after the ice rounding is completed, the stopper 73 will be elastic. Under the action of restoring force, return to the initial position. When the ice box is taken out, the stopper 73 is not subject to external force and does not deform. Due to the stopper effect of the stopper 73, the broken ice can be effectively prevented from falling from the ice discharge opening 131.
  • the rounded ice state is defined as the second state, and the states other than the rounded ice state are defined as the first state.
  • the first state includes the state of taking out the ice box from the refrigerator or the state of vibration generated by the user when opening and closing the door of the refrigerator.
  • the stopper 73 When the ice crushing device 100 is in the first state, the stopper 73 is in the initial state and forms a stop surface at the ice discharge port 131 for preventing the ice from falling; when the ice crushing device 100 is in the second state, the external force Under the action of (that is, the external force exerted on the stopper 73 by the movable ice blade 52 pushing the ice cube), the stopper 73 changes in shape to release the stop surface, and under the external force (ie, the movable ice blade 52 pushes the ice cube against the stopper 73). After the external force applied by 73) disappears, the stopper 73 returns to the initial state under the action of its own elasticity.
  • the stopper 73 not only can effectively prevent the broken ice from falling, but also does not affect the ice-forming rate, and has the function of automatically returning to the initial state through its own elastic properties.
  • the driving object of the driving mechanism 30 can also be replaced with the ice blade shaft 51, that is, the driving mechanism 30 drives the ice blade shaft 51 to rotate, and the ice bucket 12 is fixed relative to the housing 11. Since the drive mechanism 30 drives the ice blade shaft 51 to rotate and the ice bucket 12 is fixed relative to the housing 11, the ice crushing method is the prior art, and will not be repeated here.

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  • Devices That Are Associated With Refrigeration Equipment (AREA)
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Abstract

一种碎冰装置及冰箱，碎冰装置包括：具有外壳（11）及冰桶（12）的壳体组件（10），冰桶（12）底部设有排冰基板（13），排冰基板（13）上设有与冰桶（12）连通的排冰口（131）；用于带动冰桶（12）或冰刀轴（51）旋转的驱动机构（30）、碎冰机构（50）、止挡组件；当碎冰装置（100）处于第一状态时，止挡组件处于初始状态且在排冰口（131）形成用于阻碍冰块掉落的止挡面；当碎冰装置（100）处于第二状态时，在外力的作用下，止挡组件发生位置变动或者形状变化以解除止挡面，在外力消失后，止挡组件回复初始状态且再次形成止挡面。

Description

碎冰装置及冰箱 技术领域
本申请涉及家电的技术领域，具体涉及一种碎冰装置及冰箱。
背景技术
随着科学技术的不断发展，人们生活水平的不断提高，为适应人们对生活质量越来越高的要求，家用电器的功能也在不断增加，如在冰箱上添加制冰机等。该冰箱的制冰机包括制冰装置和碎冰装置，制冰装置将冰块制备出来后储存在桶状容器中，以便人们取用。同时，为了方便使用，技术人员们将该冰箱的出冰方式设置为碎冰模式和冰块模式。在碎冰模式下，人们取用到的是被剪碎的冰块；而冰块模式下，人们取用到的是完整的冰块。
在现有技术中，一般采用在桶状容器内设置碎冰刀组件的方式来实现碎冰模式和冰块模式。碎冰刀组件包括定冰刀和动冰刀，定冰刀的一端活动穿设在碎冰刀组件的转轴上，动冰刀的一端固定穿设在碎冰刀组件的转轴上，以使该转轴带动冰刀转动。当转轴正向转动(也即向定冰刀方向转动)，在动冰刀和定冰刀交错时，碎冰刀组件将冰块剪碎，此为碎冰模式。而当转轴反向旋转时，该碎冰刀组件仅对冰刀附近的冰块起到带动搅拌的作用，并使冰块从桶状容器的出口中滑出，此为冰块模式。
然而，碎冰装置的出冰口为敞开式，在从冰箱中取出冰盒时或者用户开关冰箱门体而产生震动时，出冰口处容易掉落冰块。为了防止冰块发生掉落现象，现有技术在出冰口处增加具有一定高度的斜坡。这种通 过在出冰口增加斜坡的方式，虽然有效地降低了冰块掉落的几率，但是在取整冰时会导致动冰刀与斜坡之间很容易将整冰挤碎，降低了出整冰率。
因此，针对现有技术中防止冰块掉落而导致出整冰率降低的问题，本申请实施例提供一种既能防止冰块掉落又不影响出整冰率的碎冰装置以及相应的冰箱。
发明内容
针对现有技术中防止冰块掉落而导致出整冰率降低的问题，本申请实施例提供一种既能防止冰块掉落又不影响出整冰率的碎冰装置以及相应的冰箱。该碎冰装置通过增加止挡组件来防止碎冰掉落，且止挡组件的设置不影响出整冰。
本申请实施例中提供的一种碎冰装置的具体方案如下：一种碎冰装置包括壳体组件，包括外壳以及支撑于外壳内的冰桶；碎冰机构，设置在冰桶内，所述碎冰机构包括冰刀轴，间隔设置于所述冰刀轴上的若干个动冰刀和若干个定冰刀；驱动机构，用于带动冰桶或冰刀轴旋转，所述驱动结构的至少一部分安装于所述外壳内；所述壳体组件还包括设置于所述冰桶底部的排冰基板，所述排冰基板上设有与所述冰桶连通的排冰口，经制冰机制得的冰块在冰桶内被所述碎冰机构打碎后从所述排冰口排出；止挡组件，设置在冰桶内；当所述碎冰装置处于第一状态时，所述止挡组件处于初始状态且在所述排冰口形成用于阻碍冰块掉落的止挡面；当所述碎冰装置处于第二状态时，在外力的作用下，所述止挡组件发生位置变动或者形状变化以解除所述止挡面，在所述外力消失 后，所述止挡组件回复所述初始状态且再次形成所述止挡面。
优选地，所述第二状态为取整冰状态，所述第一状态为除取整冰状态的其它状态。
优选地，所述止挡组件包括止挡件和回复件，所述止挡件用于形成阻碍冰块掉落的止挡面，所述回复件用于为所述止挡件复位提供回复力。
优选地，所述止挡组件设置于所述冰刀轴上且位于相邻的动冰刀和定冰刀之间。
优选地，所述止挡组件还包括用于固定止挡件及回复件的固定件。
优选地，所述止挡件还包括加强肋，所述加强肋设置于所述止挡部与所述固定部之间。
优选地，所述止挡件包括止挡部和固定部，所述止挡部为沿垂直方向具有预定高度及沿水平方向具有预定长度的板状结构，所述固定部包括用于与冰刀轴匹配的第一通孔及用于固定回复件的第一固定端面。
优选地，所述止挡组件设置于所述排冰基板上临近所述排冰口的位置。
优选地，所述止挡件包括止挡部和固定部，所述排冰基板的末端端面设有卡扣部，所述固定部与所述卡扣部相互匹配固定。
优选地，所述回复件为扭簧，所述扭簧设置于所述固定部上且位于远离外壳方向的一端。
优选地，所述止挡组件包括止挡件，所述止挡件包括由弹性材料制成的止挡部，所述止挡部用于形成阻碍冰块掉落的止挡面。
优选地，所述止挡件设置于所述排冰基板上临近所述排冰口的位置。
优选地，所述止挡件还包括与所述止挡部连接的固定部，所述固定部固定于所述排冰基板的侧壁上。
优选地，所述止挡部包括远离所述排冰基板的末端和与所述排冰基板的基板表面相交的交接端，所述止挡部的横截面厚度沿交接端至末端的方向逐渐减小。
本申请实施例还提供一种冰箱。该冰箱的具体技术方案如下：冰箱包括箱体、用于打开或关闭箱体的门体、及如上所述的任一项所述的碎冰装置，所述碎冰装置设于所述箱体或门体。
从以上技术方案可以看出，本申请实施例具有以下优点：
本申请实施例提出的碎冰装置新增止挡组件来防止碎冰掉落，且止挡组件的设置不影响出整冰率。进一步地，止挡组件还包括用于提供回复力的弹性件，使得止挡组件中的止挡件能够自动复位。
附图说明
图1是本申请第一优选实施方式中碎冰装置的立体示意图；
图2是图1中碎冰装置隐藏外壳后的立体示意图；
图3是图1中外壳组件的立体分解示意图；
图4是图1中外壳的立体示意图；
图5是图1中外壳的另一视角的立体示意图；
图6是图5中的外壳的剖视示意图；
图7是图1中隐藏部分壳体的立体示意图；
图8是图1中碎冰装置的碎冰组件的立体示意图；
图9是图8中碎冰组件的部分立体分解示意图；
图10是图8中止挡件的立体示意图；
图11本申请第二优选实施方式中隐藏部分壳体的立体示意图；
图12是图11中外壳组件的立体分解示意图；
图13本申请第三优选实施方式中隐藏部分壳体的立体示意图；
图14是图13中外壳组件的立体分解示意图。
具体实施方式
以下将结合附图所示的具体实施方式对本申请进行详细描述。但这些实施方式并不限制本申请，本领域的普通技术人员根据这些实施方式所做出的结构、方法、或功能上的变换均包含在本申请的保护范围内。
本申请提供的第一优选实施例公开了一种冰箱，冰箱包括箱体和用于打开或关闭箱体的门体，箱体定义了储物间室，其中储物间室的数量和结构形式可根据不同需求进行配置。储物间室通常包括冷藏室和冷冻室。
如图1至图10所示，冰箱还包括碎冰装置100，碎冰装置100设于箱体或门体上。碎冰装置100包括壳体组件10、安装于壳体组件10的驱动机构30以及碎冰机构50，其中壳体组件10包括外壳11以及支撑于外壳11内的冰桶12，驱动机构30用于带动冰桶12旋转，驱动结构30的至少一部分安装于外壳内。碎冰机构50设置在冰桶12内，用于将制冰机制得的冰块打碎。其中，壳体组件10还包括设置于冰桶12底部的排冰基板13，排冰基板13相对于外壳11固定设置，优选的，排冰基板13与外壳11可以是一体设置，如采用注塑一体成型，排冰基板13上设有与冰桶12连通的排冰口131，排冰口131可以是排冰基板13上大 致扇形的开口，扇形开口的圆心角大致小于180度，优选的在120度到170度之间，经制冰机制得的冰块在冰桶12内被碎冰机构50打碎后从排冰口131排出。
本实施例中优选的，驱动机构30包括马达(图未示)以及由马达带动的圆柱齿轮31，冰桶12的外周设有外齿121，圆柱齿轮31与外齿121啮合以带动冰桶12旋转。进一步的，马达和圆柱齿轮31之间设有齿轮组件，齿轮组件包括连接马达的第一锥齿轮32以及与第一锥齿轮32啮合的第二锥齿轮33，圆柱齿轮31与第二锥齿轮33同轴并相对固定设置，也就是说，马达带动第一锥齿轮32旋转，圆柱齿轮31与第二锥齿轮33同步旋转，从而实现将扭矩从马达传递到冰桶12。通过设置两个锥齿轮以及圆柱齿轮31，可以合理的设计驱动机构的整体尺寸，使得马达与齿轮组件的配合更加紧凑，从而碎冰装置整体的体积更加小型化。当然，驱动机构也可以是其它传动结构，如带传动机构、链传动机构、涡轮蜗杆等，齿轮机构也不限于锥齿轮，也可以是直齿轮、斜齿轮、人字齿轮、曲线齿轮等等。
外壳11包括容纳冰桶12的第一部分11a以及安装驱动机构30的第二部分11b，其中第一部分11a构造为与冰桶12外围匹配，即第一部分11a也设置为筒状，冰桶12在筒状的第一部分11a内旋转。为了方便冰桶12的动力传递以及碎冰装置的整体密封性，在第一部分11a上设有开口111，圆柱齿轮31与外齿121的啮合部位于开口111处，如此可以使得开口111最小化，满足圆柱齿轮31与外齿121的稳定啮合即可。壳体组件10还包括底板14，第二部分11b的底部敞开，底板14盖设于第二 部分11b的底部以将圆柱齿轮31密封在第二部分11b和底板14之间，排冰基板13的底部设有卡槽133，底板14上设置于卡槽133形状配合的凸块143，凸块143陷入卡槽133内，优选的将凸块143和卡槽133均设置为鱼形，使得碎冰装置整体的密封性更好。
另外，第一部分11a沿冰桶12轴向间隔设有第一台阶部113和第二台阶部114，冰桶12和第一部分11a之间设有垫环(图中未示出)。垫环的一端具有翻边，翻边抵接于第一台阶部113，垫环的另一端抵接于第二台阶部114，通过设置垫环使得冰桶12的旋转更加稳定，减小冰桶12和外壳11之间的转动磨损。
参照图3所示，为外壳11的制造容易以及驱动机构30的组装方便，壳体组件10还包括连接于外壳11的后盖15，后盖15的外侧连接马达，第一锥齿轮32和第二锥齿轮33支撑在后盖15和外壳11之间。配合参照图4所示，因冰桶12与排冰基板13之间有相对旋转，基于冰桶12与圆柱齿轮31啮合部的开口111以及冰桶12与外壳11之间的间隙存在，为防止冰桶12内的碎冰从开口111或间隙处进入驱动机构30，可以在排冰基板13与第一部分11a之间设置沿冰桶12周向延伸的凹槽136，凹槽136与排冰口131连通，冰桶12的下边缘伸入凹槽136。这样碎冰需要穿过凹槽136才能进入到另一侧的驱动机构30，碎冰会先在凹槽136内堆积，冰桶12转动时，会将碎冰带走，并从出冰口131掉落，这样的设计可以有效地解决碎冰堆积问题。排冰基板13的底部与凹槽136对应的位置形成凸部137，底板14上设有凹部147，凸部137卡入凹部147内以方便底板的装配，并且连接底板的卡槽133与凸部137邻接，由此 可以形成迷宫式密封结构，防止齿轮之间的润滑油或者杂质、碎冰等从壳体组件10漏出。
参照图8，碎冰机构50包括相对于外壳11固定的冰刀轴51以及间隔设置于冰刀轴51上的若干个动冰刀52和若干个定冰刀53，其中冰刀轴51固定在排冰基板13上。冰刀轴51包括轴芯515、轴套511和端部螺母513，轴芯515位于轴套511内部空间。轴芯515的底端设有螺纹，该螺纹与端部螺母513相互匹配。与现有技术不同的是，动冰刀52相对于冰桶12固定，而定冰刀53相对于冰刀轴51固定，这样，动冰刀52由冰桶12带动旋转，而定冰刀53则相对外壳11固定。通过动冰刀52相对于定冰刀53的旋转而将冰桶12内的冰块打碎。另外，为了防止冰块粘结在一起，可以在冰刀轴51远离排冰口131的一端安装搅冰杆54，搅冰杆54可以朝向冰刀轴51的另一端延伸并且与动冰刀52固定，随着动冰刀52一起旋转的同时实现对冰块的搅动。当然，动冰刀52的旋转可以是动冰刀52直接固定于冰桶12的内壁上，也可以是动冰刀52与搅冰杆54相对固定而搅冰杆54固定于冰桶12的内壁上，这里的固定可以是相对于冰桶12周向的固定，轴向可以设置为固定或者相对于冰桶12可以调节轴向的距离。
本实施例中优选的，冰桶12的内壁设有沿着轴向延伸的第一限位槽123，其中搅冰杆54的一端卡设于第一限位槽123内，动冰刀52周向固定于搅冰杆54。动冰刀52包括两个呈一字型的刀片，并且动冰刀52设置两个，同样的定冰刀53也设置两个，动冰刀52与定冰刀53相邻设置，搅冰杆54对应动冰刀52的刀片的数量也设置两个，搅冰杆54的一端设 有沿着轴向延伸的第二限位槽543，两个动冰刀52对应的两个刀片上分别设有凸起523，两个凸起523均卡设于第二限位槽543，实现动冰刀52相对于搅冰杆54的周向固定。
继续参照图4所示，排冰基板13的排冰口131为敞开式。用户在开关冰箱门时产生的震动或者取出冰盒时，使得碎冰块容易从排冰口131掉落。现有技术虽然通过在排冰口131处增加斜坡以防止冰块掉落，但是斜坡在高度方向的延伸会导致动冰刀52至排冰口131的空间减小，导致动冰刀52与斜坡之间的整冰容易被冰挤碎，从而使得碎冰装置100的出整冰率下降。
参照图7至图10所示，本申请实施例在碎冰装置100中增加止挡组件，达到既能防止冰块掉落问题又不影响出整冰率的效果。在该实施例中，止挡组件包括用于止挡冰块的止挡件73、用于为止挡件73提供复位的弹性件72，用于固定止挡件73及弹性件72的固定件71。在本实施方式中，由于弹性件72主要用于为止挡件73复位提供回复力，因此，弹性件72也可被称为回复件。
止挡件73包括止挡部732和固定部731。止挡部732为沿垂直方向具有预定高度及沿水平方向具有预定长度的板状结构，以其自身的结构形成一个止挡面，从而阻挡冰块的掉落。固定部731大体呈圆柱状，包括第一通孔731b和台阶面731a。台阶面731a作为用于固定弹性件72的第一固定端面。第一通孔731b用于与冰刀轴51匹配，在本实施方式中，冰刀轴51的轴芯515穿过第一通孔731b。止挡件73还包括加强肋735，加强肋735位于止挡部732和固定部731之间，用于加强止挡部 732和固定部731之间的连接。止挡部732为板状，固定部731位圆柱状，因此，止挡部732与固定部731之间的原始连接端面为线连接。当冰块的动量较大时，线连接的止挡部732容易发生断裂或脱落，导致止挡失效。加强肋735通过在止挡部732和固定部731之间多架设一层连接，有效地提高了两者之间的连接强度，以及提高止挡件73抗冰块的冲击能力。加强肋735为类似三角形的板面结构，进一步地提高连接面积及连接强度。
本实施方式中，弹性件72具体为扭簧。固定件71的外形大体呈圆柱状，包括用于固定弹性件72的第二固定端面和用于与冰刀轴匹配的第二通孔。
本实施方式中，止挡组件与动冰刀52及定冰刀53同轴地安装于在冰刀轴51上。止挡组件位于相邻的动冰刀52与定冰刀53之间。在安装时，将止挡组件中的固定件71、弹性件72和止挡件73依次套设于轴芯515上。弹性件72(即扭簧)位于第一固定端面和第二固定端面所限定的空间内。碎冰装置100可包括多个止挡组件，从而形成多道止挡。在竖直方向上，多个止挡组件的止挡件73中的止挡部732处于同一个平面。根据力的作用原理，在安装止挡件73时，止挡件73上设有加强肋735的一面需位于排冰口131的一侧。
初始状态下，扭簧处于自由状态；当止挡件73在受到外力而发生旋转后，扭簧受到扭力而转变成工作状态并存储回复力。当止挡件73的旋转扭力变小或消失，扭簧的回复力推动止挡件73产生逆向旋转并恢复初始状态。
在取整冰时，动冰刀52会推动冰块带动止挡件73在水平面上朝排冰口131的方向旋转，当冰块到达排冰口131时，整冰掉落；取整冰结束后，在弹性件72的回复力作用下，止挡件73恢复至初始位置。在取出冰盒时，止挡件73不运动且不受动冰刀52运动的影响，止挡件73位于初始位置，由于止挡件73的止挡作用，可以有效地防止碎冰从排冰口131掉落。
在该实施例中，定义取整冰状态为第二状态，除取整冰状态的其它状态为第一状态。第一状态包括从冰箱中取出冰盒的状态或用户在开关冰箱门时产生的震动状态等。当碎冰装置100处于第一状态时，止挡组件处于初始状态且在排冰口131形成用于阻碍冰块掉落的止挡面；当碎冰装置100处于第二状态时，在外力的作用下(即动冰刀52推动冰块对止挡件73施加的外力)，止挡组件发生位置变动以解除所述止挡面，在外力(即动冰刀52推动冰块对止挡件73施加的外力)消失后，止挡组件回复所述初始状态。止挡组件不仅能够有效地防止碎冰的掉落又能够不影响出整冰率，还具有自动回复初始状态的功能。
图11到图12所示为本申请的另一优选实施方式。本实施方式中，止挡组件安装于排冰基板13临近排冰口131的位置，具体安装在排冰基板13的末端端面上。止挡组件包括用于止挡冰块的止挡件73、用于为止挡件73提供复位的弹性件72；排冰基板13的末端端面上设有用于固定止挡件73及弹性件72的卡扣部132。止挡件73在排冰基板13与排冰口131的交界处形成预设高度的止挡面，由止挡面阻挡冰块掉落的通道。在本实施方式中，由于弹性件72主要用于为止挡件73复位提供回 复力，因此，弹性件72也可被称为回复件。
止挡件73包括止挡部732和固定部731。止挡部732为沿垂直方向具有预定高度及沿水平方向具有预定长度的板状结构，以其自身的结构形成一个止挡面，从而阻挡冰块的掉落。止挡部沿水平方向的长度约等于或略小于排冰基板13的半径。固定部731为圆柱体，也可称为枢转轴。相应地，卡扣部132为具有可容纳所述枢转轴的通孔的卡扣结构(即轴孔结构)。优选地，排冰基板13的末端端面上设有多个卡扣部132且各个卡扣部132间隔预设距离，有助于止挡件73的旋转平衡。固定部731与止挡部732相互连接或者一体化制造。弹性件72具体为扭簧，扭簧套设在所述固定部731上且位于远离外壳11方向的一端，即位于固定部731邻近冰刀轴51的一端。扭簧的一端被冰刀轴51所抵挡，扭簧的另一端被固定部731与止挡部732的连接处所抵挡。在安装时，将固定部731卡接至卡扣部132中，将扭簧套设在固定部731位于邻近冰刀轴51的一端。
初始状态下，扭簧处于自由状态；当止挡件73发生翻转后，扭簧受到扭力而转变成工作状态并存储回复力。当止挡件73的翻转扭力变小或消失，扭簧的回复力推动止挡件73产生逆向翻转并恢复初始状态。
在取整冰时，动冰刀52会推动冰块带动止挡件73在竖直面上朝排冰口131的下方方向旋转，当冰块到达排冰口131时，整冰掉落；取整冰结束后，在弹性件72的回复力作用下，止挡件73恢复至初始位置。在取出冰盒时，止挡件73不运动且不受动冰刀52运动的影响，止挡件73位于初始位置，由于止挡件73的止挡作用，可以有效地防止碎冰从 排冰口131掉落。
在该实施例中，定义取整冰状态为第二状态，除取整冰状态的其它状态为第一状态。第一状态包括从冰箱中取出冰盒的状态或用户在开关冰箱门时产生的震动状态等。当碎冰装置100处于第一状态时，止挡组件处于初始状态且在排冰口131形成用于阻碍冰块掉落的止挡面；当碎冰装置100处于第二状态时，在外力的作用下(即动冰刀52推动冰块对止挡件73施加的外力)，止挡组件发生位置变动以解除所述止挡面，在外力(即动冰刀52推动冰块对止挡件73施加的外力)消失后，止挡组件能够回复所述初始状态。止挡组件不仅能够有效地防止碎冰的掉落又能够不影响取整冰率，还具有自动回复初始状态的功能。
在该实施例中，驱动机构30的驱动对象也可以替换为冰刀轴51，即驱动机构30带动冰刀轴51旋转，而冰桶12相对外壳11固定。由于驱动机构30带动冰刀轴51旋转而冰桶12相对外壳11固定的碎冰方式是现有技术(CN105509391A)，此处不再赘述。
图13到图14所示为本申请的再一优选实施方式，本实施方式中，止挡组件只包括止挡件73，至少部分止挡件73具有弹性属性。止挡件73安装于排冰基板13临近排冰口131的位置，具体安装在排冰基板13的末端端面上。
止挡件73包括止挡部732和固定部731。止挡部732具有弹性属性，当止挡部732在受到外力作用时，其自身能够发生弹性弯曲；在外力作用消失后，由其自身的弹性属性能够恢复初始状态。在本实施方式中，止挡部732的制作材料具体为硅橡胶。在其他实施方式中，止挡部732 的制作材料也可以采用其他类型的具有弹性性质的材料。
止挡部732为沿垂直方向具有预定高度及沿水平方向具有预定长度的曲面结构，且曲面结构的凹陷面朝向储冰区域。止挡部732以其自身的结构形成一个止挡曲面，从而阻挡冰块的掉落。止挡部732包括远离排冰基板13的末端732a和与排冰基板13的基板表面135相交的交接端732b。止挡部732的截面厚度沿交接端732b至末端732a的方向逐渐减小，从而有效地平衡阻挡碎冰的阻挡力及取整冰时所需的弹性力。止挡部732的高度低于最下侧动冰刀52的垂直高度。
固定部731紧贴排冰基板13的侧壁部134，从而将止挡件73固定在排冰基板13的末端端面上。固定部731可以与止挡部732一体成型。为了组装简便，止挡件73与外壳11二次注塑成型。
在取整冰时，动冰刀52会推动冰块带动止挡件73发生弹性形变，当冰块到达排冰口131时，整冰掉落；取整冰结束后，止挡件73在自身弹性回复力作用下，恢复至初始位置。在取冰盒时，止挡件73不受外力且不发生形变，由于止挡件73的止挡作用，可以有效地防止碎冰从排冰口131掉落。
在该实施例中，定义取整冰状态为第二状态，除取整冰状态的其它状态为第一状态。第一状态包括从冰箱中取出冰盒的状态或用户在开关冰箱门时产生的震动状态等。当碎冰装置100处于第一状态时，止挡件73处于初始状态且在排冰口131形成用于阻碍冰块掉落的止挡面；当碎冰装置100处于第二状态时，在外力的作用下(即动冰刀52推动冰块对止挡件73施加的外力)，止挡件73发生形状变化以解除所述止挡面， 在外力(即动冰刀52推动冰块对止挡件73施加的外力)消失后，止挡件73在自身弹性作用下回复初始状态。止挡件73不仅能够有效地防止碎冰的掉落，又能够不影响出整冰率，通过自身的弹性属性还具有自动回复初始状态的功能。
在该实施例中，驱动机构30的驱动对象也可以替换为冰刀轴51，即驱动机构30带动冰刀轴51旋转，而冰桶12相对外壳11固定。由于驱动机构30带动冰刀轴51旋转而冰桶12相对外壳11固定的碎冰方式是现有技术，此处不再赘述。
在本说明书的描述中，参考术语“一个实施例”、“一些实施例”、“示例”、“具体示例”、或“一些示例”等的描述意指结合该实施例或示例描述的具体特征、结构、材料或者特点包含于本申请的至少一个实施例或示例中。在本说明书中，对上述术语的示意性表述不必须针对的是相同的实施例或示例。而且，描述的具体特征、结构、材料或者特点可以在任一个或多个实施例或示例中以合适的方式结合。此外，在不相互矛盾的情况下，本领域的技术人员可以将本说明书中描述的不同实施例或示例以及不同实施例或示例的特征进行结合和组合。
尽管上面已经示出和描述了本申请的实施例，可以理解的是，上述实施例是示例性的，不能理解为对本申请的限制，本领域的普通技术人员在本申请的范围内可以对上述实施例进行变化、修改、替换和变型。

Claims (15)

  1. 一种碎冰装置，其特征在于，包括：
    壳体组件，包括外壳以及支撑于外壳内的冰桶；
    碎冰机构，设置在冰桶内，所述碎冰机构包括冰刀轴，间隔设置于所述冰刀轴上的若干个动冰刀和若干个定冰刀；
    驱动机构，用于带动冰桶或冰刀轴旋转，所述驱动结构的至少一部分安装于所述外壳内；
    所述壳体组件还包括设置于所述冰桶底部的排冰基板，所述排冰基板上设有与所述冰桶连通的排冰口，经制冰机制得的冰块在冰桶内被所述碎冰机构打碎后从所述排冰口排出；
    止挡组件，设置在冰桶内；
    当所述碎冰装置处于第一状态时，所述止挡组件处于初始状态且在所述排冰口形成用于阻碍冰块掉落的止挡面；当所述碎冰装置处于第二状态时，在外力的作用下，所述止挡组件发生位置变动或者形状变化以解除所述止挡面，在所述外力消失后，所述止挡组件回复所述初始状态且再次形成所述止挡面。
  2. 根据权利要求1所述的碎冰装置，其特征在于，所述第二状态为取整冰状态，所述第一状态为除取整冰状态的其它状态。
  3. 根据权利要求1所述的碎冰装置，其特征在于，所述止挡组件包括止挡件和回复件，所述止挡件用于形成阻碍冰块掉落的止挡面，所述回复件用于为所述止挡件复位提供回复力。
  4. 根据权利要求3所述的碎冰装置，其特征在于，所述止挡组 件设置于所述冰刀轴上且位于相邻的动冰刀和定冰刀之间。
  5. 根据权利要求4所述的碎冰装置，其特征在于，所述止挡组件还包括用于固定止挡件及回复件的固定件。
  6. 根据权利要求5所述的碎冰装置，其特征在于，所述止挡件还包括加强肋，所述加强肋设置于所述止挡部与所述固定部之间。
  7. 根据权利要求4所述的碎冰装置，其特征在于，所述止挡件包括止挡部和固定部，所述止挡部为沿垂直方向具有预定高度及沿水平方向具有预定长度的板状结构，所述固定部包括用于与冰刀轴匹配的第一通孔及用于固定回复件的第一固定端面。
  8. 根据权利要求3所述的碎冰装置，其特征在于，所述止挡组件设置于所述排冰基板上临近所述排冰口的位置。
  9. 根据权利要求8所述的碎冰装置，其特征在于，所述止挡件包括止挡部和固定部，所述排冰基板的末端端面设有卡扣部，所述固定部与所述卡扣部相互匹配固定。
  10. 根据权利要求8所述的碎冰装置，其特征在于，所述回复件为扭簧，所述扭簧设置于所述固定部上且位于远离外壳方向的一端。
  11. 根据权利要求1所述的碎冰装置，其特征在于，所述止挡组件包括止挡件，所述止挡件包括由弹性材料制成的止挡部，所述止挡部用于形成阻碍冰块掉落的止挡面。
  12. 根据权利要求11所述的碎冰装置，其特征在于，所述止挡件设置于所述排冰基板上临近所述排冰口的位置。
  13. 根据权利要求12所述的碎冰装置，其特征在于，所述止挡 件还包括与所述止挡部连接的固定部，所述固定部固定于所述排冰基板的侧壁上。
  14. 根据权利要求11所述的碎冰装置，其特征在于，所述止挡部包括远离所述排冰基板的末端和与所述排冰基板的基板表面相交的交接端，所述止挡部的横截面厚度沿交接端至末端的方向逐渐减小。
  15. 一种冰箱，其特征在于，所述冰箱包括箱体、用于打开或关闭箱体的门体、及如权利要求1至14中任一项所述的碎冰装置，所述碎冰装置设于所述箱体或门体。
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