Technical realization elements of refrigeration equipment

Technical realization elements:

4. This utility model aims to solve at least one of the technical problems existing in the prior art or related technologies.

5. For this reason, this utility model proposes a refrigeration equipment.

6. In view of this, the present utility model provides a refrigeration equipment, including a water receiving tray and a heating component, the heating component is arranged in the water receiving tray; wherein the distance between the heating component and the bottom wall of the water receiving tray is the first A distance value, the depth of the drip tray is the first depth value, and the first distance value is adapted to the first depth value.

7. The refrigeration equipment provided by the utility model is provided with a water receiving tray and a heating component. The heating component is arranged inside the water receiving tray. The water contained in the water receiving tray can be heated by the heating component, thereby speeding up the water receiving tray. The evaporation efficiency of the internal water can increase the evaporation speed of the water in the water receiving pan, thereby avoiding excessive water accumulation in the water receiving pan, and preventing the accumulated water in the water receiving pan from overflowing the water receiving pan.

8. And, since the distance between the heating part and the bottom wall of the water receiving tray is the first distance value, the depth of the water receiving tray is the first depth value, and the first distance value is adapted to the first depth value, so that the heating The position of the components matches the depth of the water tray, and makes the position of the heating component closer to the water surface position of the water in the water tray, raises the temperature of the water surface, and then improves the evaporation efficiency of the water in the water tray, and speeds up the connection. The evaporation speed of the accumulated water in the drip pan to avoid excessive water accumulation in the drip pan and prevent the accumulated water in the drip pan from overflowing the drip pan.

9. Because the position of the heating part matches the depth of the drain pan, it can avoid excessive water accumulation in the drain pan, thereby avoiding the heating part due to excessive water accumulation in the drain pan, making the heating part Heat water on the water surface more efficiently, improve the working efficiency of heating components, and reduce energy waste.

10. Since the position of the heating component matches the depth of the water receiving tray, the best installation position of the heating component in the water receiving tray can be effectively judged, which can not only guarantee the evaporation efficiency of the defrosting water in the water receiving tray to the greatest extent, but also It can achieve the best design of the size of the docking water tray, and improve the design accuracy and level of the product.

11. Since the evaporation efficiency of the accumulated water in the drip tray can be improved without any additional equipment, the structure of the drip tray is simple, the manufacturing is convenient, and the cost is low.

12. Specifically, a bracket is arranged in the water receiving tray, and the heating component is installed on the bracket, and the height of the bracket is set according to the first distance value, so that the heating component is located at the best installation position in the water receiving tray.

13. The distance between the heating component and the bottom wall of the water receiving tray is specifically the distance between the center line of the heating component and the bottom wall of the inner cavity of the water receiving tray. The depth of the water receiving tray is the height from the upper edge of the water receiving tray to the bottom wall of the inner cavity of the water receiving tray.

14. In addition, the refrigeration equipment in the above technical solution provided by the present utility model may also have the following additional technical features:

15. In a technical solution of the present invention, the heating component is an evaporation tube.

16. In this technical solution, the heating component is an evaporating tube, and the high temperature and high pressure refrigerant in the evaporating tube can release a large amount of heat, thereby realizing the heating of the water in the docking pan, effectively using the heat in the refrigeration system, and improving the refrigeration The energy utilization of the system.

17. In addition, the evaporating tube is used to heat the water in the water tray. The specific heat capacity of the water is large, which can effectively absorb the heat carried by the high temperature and high pressure refrigerant, thereby improving the heat exchange efficiency of the high temperature and high pressure refrigerant, thereby enhancing the refrigeration system of the refrigeration system. The effect is to reduce the energy consumption of the refrigeration system.

18. After the evaporator tube heats the accumulated water in the water receiving tray, the accumulated water will evaporate into water vapor. During the vaporization of the accumulated water, the surrounding heat will be absorbed, so that the high temperature and high pressure refrigerant can be faster at the evaporator tube. Heat dissipation further improves the heat exchange efficiency of the high temperature and high pressure refrigerant, thereby improving the cooling effect of the refrigeration system and reducing the energy consumption of the refrigeration system.

19. In a technical solution of the present invention, the refrigeration equipment further includes a compressor and a condenser; the exhaust port of the compressor is connected to one end of the evaporating pipe; the condenser is connected to the other end of the evaporating pipe.

20. In this technical solution, one end of the evaporating pipe is connected to the exhaust port of the compressor, and the other end is connected to the condenser, so that the refrigerant in the refrigeration system will pass through after being compressed into a high temperature and high pressure liquid refrigerant by the compressor. The evaporator tube enters the condenser, so that the high-temperature and high-pressure liquid refrigerant can release heat when passing through the evaporator tube, so as to heat the water accumulated in the water collecting pan.

21. In a technical solution of the present invention, the heating component is an electric heating tube.

22. In this technical solution, the heating component is an electric heating tube. The heating efficiency of the electric heating tube is high, which is convenient for layout, and can be opened and closed according to the amount of water accumulated in the water collecting tray, and the control is more flexible.

23. In a technical solution of the present invention, the first distance value is less than the first depth value.

24. In this technical solution, the first distance value is less than the first depth value, that is, the distance between the heating part and the bottom wall of the water receiving tray is less than the depth of the water receiving tray, so that the heating part is closer to the water accumulation in the water receiving tray. The water surface, or part of the accumulated water in the water receiving tray, avoids the heating part to be far away from the water accumulated in the water receiving tray, and improves the heating efficiency of the water accumulated in the water receiving tray.

25. In a technical solution of the present invention, the ratio of the first distance value to the first depth value is greater than or equal to 0.35 and less than or equal to 0.85.

26. In this technical solution, the ratio of the first distance value to the first depth value is 0.35 to 0.85, so that the position of the heating element will not be submerged by accumulated water due to being too close to the bottom wall of the water receiving pan, nor Because it is too far away from the bottom wall of the water receiving tray, it will be far away from the water surface of the water receiving tray, so that the heating component heats the water more efficiently, improving the working efficiency of the heating component, and reducing energy waste.

27. Specifically, when the heating part is too close to the bottom wall of the drain pan, the accumulated water in the drain pan will pass the heating part. At this time, the heating part can only heat the accumulated water at the bottom of the drain pan, not directly. The stagnant water at a higher height or the water surface in the drain pan, and the fluidity of the stagnant water in the drain pan is poor, so when the heating part is too close to the bottom wall of the drain pan, it cannot be effectively Heat the standing water at the surface. When the ratio of the first distance value to the first depth value is set to be greater than or equal to 0.35, the heating part is made closer to the water surface, not only heating the water at the bottom of the water tray, but heating the water at the water surface more efficiently , Thereby increasing the temperature of the stagnant water on the water surface, speeding up the evaporation efficiency of the stagnant water, and increasing the stagnant water’s

Evaporation rate.

28. When the heating part is too far away from the bottom wall of the water receiving pan, the heating part is kept away from the water surface of the water, so that a large amount of heat generated by the heating part is dissipated in the surrounding environment, and the accumulation of the heating part on the water surface is reduced. The heating efficiency of the water. When the ratio of the first distance value to the first depth value is set to be less than or equal to 0.85, the heating element will not be far away from the water surface of the water, and the heating efficiency of the water on the water surface is improved, thereby increasing the temperature of the water on the water surface. Speed up the evaporation efficiency of stagnant water and increase the evaporation rate of stagnant water.

29. In a technical solution of the present invention, the ratio is proportional to the volume of the refrigeration equipment.

30. In this technical solution, the ratio of the first distance value to the first depth value is proportional to the volume of the refrigeration equipment. When the volume of the refrigeration equipment is larger, the ratio of the first distance value to the first depth value is larger. When the volume of the refrigeration equipment is small, the ratio of the first distance value to the first depth value is small.

31. Specifically, when the volume of the refrigeration equipment is large, the heat load of the refrigeration equipment is relatively large, and this type of refrigeration equipment is often equipped with multiple evaporators, and the frost capacity of the multiple evaporators will be greatly increased. , The single defrosting water volume will also be significantly increased, so the ratio of the first distance value to the first depth value is set to be relatively large, which can make the heating part relatively far from the bottom wall of the drain pan, thereby avoiding A large amount of defrosting water floods the heating components, making the heating components closer to the water surface, heating the water on the water surface more efficiently, thereby increasing the temperature of the water on the water surface, accelerating the evaporation efficiency of the water, and increasing the evaporation speed of the water.

32. When the volume of the refrigeration equipment is small, the overall heat load of the refrigeration equipment is relatively small, and the volume and frost capacity of the evaporator are relatively low, so that the single defrost water volume of the evaporator is relatively small. The ratio of a distance value to the first depth value is set to be relatively small, so that the heating part is relatively close to the bottom wall of the water receiving pan, avoiding the heating part to be far away from the water surface of the water, and improving the efficiency of heating the water on the water surface. In turn, the temperature of the stagnant water on the water surface is increased, the evaporation efficiency of the stagnant water is accelerated, and the evaporation rate of the stagnant water is increased.

33. In a technical solution of the present invention, when the volume of the refrigeration equipment is less than or equal to 300 liters, the ratio is greater than or equal to 0.35 and less than or equal to 0.6.

34. In this technical solution, when the volume of the refrigeration equipment is less than or equal to 300 liters, the overall heat load of the refrigeration equipment is relatively small, and the volume and frost capacity of the evaporator are relatively low, which makes the evaporator single defrost The amount of water is relatively small, and the ratio of the first distance value to the first depth value is set to 0.35 to 0.6, so that the heating part is closer to the bottom wall of the water receiving pan, and the heating efficiency of the water on the water surface is improved.

35. In a technical solution of the present invention, when the volume of the refrigeration equipment is greater than 300 liters, the ratio is greater than or equal to 0.6 and less than or equal to 0.85.

36. In this technical solution, when the volume of the refrigeration equipment is greater than or equal to 300 liters, the heat load of the refrigeration equipment is relatively large, and the single defrosting water volume is also large. Set the ratio of the first distance value to the first depth value It is 0.6 to 0.85, which makes the heating part relatively far away from the bottom wall of the water receiving tray, avoids flooding the heating part with a large amount of defrosting water, makes the heating part closer to the water surface, and heats the water on the water surface more efficiently, thereby improving the water retention on the water surface. Temperature, speed up the evaporation efficiency of stagnant water, and increase the evaporation rate of stagnant water.

37. In a technical solution of the present invention, the refrigeration equipment further includes a drain pipe, which is connected to the water receiving pan.

38. In this technical scheme, the refrigeration equipment is provided with a drain pipe, and the distilled water or defrost water produced by the evaporator can flow into the water receiving tray through the drain pipe, thereby realizing the connection of the distilled water or defrost water produced by the evaporator. Take it to prevent the distilled water or defrosting water produced by the evaporator from polluting the environment around the refrigeration equipment.

39. In a technical solution of the present invention, the refrigeration equipment is a refrigerator, a freezer, a wine cabinet or an air conditioner.

40. The refrigerator, freezer, wine cabinet or air conditioner provided by this utility model is provided with a water receiving tray and a heating component. The heating component is arranged inside the water receiving tray, and the water contained in the water receiving tray can be heated by the components Heating, thereby speeding up the evaporation efficiency of the water in the water receiving pan, increasing the evaporation speed of the water in the water receiving pan, thereby avoiding excessive water accumulation in the water receiving pan, and preventing the water accumulation in the water receiving pan from overflowing the water receiving pan.

41. And, since the distance between the heating component and the bottom wall of the water receiving tray is the first distance value, the depth of the water receiving tray is the first depth value, and the first distance value is adapted to the first depth value, so that the heating The position of the components matches the depth of the water tray, and makes the position of the heating component closer to the water surface position of the water in the water tray, raises the temperature of the water surface, and then improves the evaporation efficiency of the water in the water tray, and speeds up the connection. The evaporation speed of the accumulated water in the drip pan to avoid excessive water accumulation in the drip pan and prevent the accumulated water in the drip pan from overflowing the drip pan.

42. Because the position of the heating part matches the depth of the drain pan, it can avoid excessive water accumulation in the drain pan, thereby avoiding the heating part due to excessive water accumulation in the drain pan, making the heating part Heat water on the water surface more efficiently, improve the working efficiency of heating components, and reduce energy waste.

43. Since the position of the heating component matches the depth of the drain pan, the best installation position of the heating component in the drain pan can be effectively judged, which can not only guarantee the evaporation efficiency of the defrosting water in the drain pan to the greatest extent, but also It can achieve the best design of the size of the docking water tray, and improve the design accuracy and level of the product.

44. Since the evaporation efficiency of the accumulated water in the drip tray can be improved without any additional equipment, the structure of the drip tray is simple, the manufacturing is convenient, and the cost is low.

45. Specifically, a bracket is arranged in the water receiving tray, and the heating component is installed on the bracket. The height of the bracket is set according to the first distance value, so that the heating component is located at the best installation position in the water receiving tray.

46. The additional aspects and advantages of the present utility model will be partly given in the following description, and some will become obvious from the following description, or be understood through the practice of the present utility model.

Description of the drawings

47. The above and/or additional aspects and advantages of the present utility model will become obvious and easy to understand from the description of the embodiments in conjunction with the following drawings.

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