CN216585704U - Drum washing machine with heat pump drying function - Google Patents

Abstract

The utility model discloses a drum washing machine with heat pump drying function, comprising: an outer cylinder; a housing, the outer cylinder being disposed in an inner space of the housing; the heat pump module comprises two device boxes and two device modules which are arranged in the two device boxes and are formed by integrating a condenser and an evaporator into a whole, wherein the two device boxes are provided with two device box air inlets which are obliquely arranged relative to the horizontal direction; the inclination direction of the air inlets of the two device boxes is inclined towards the direction of a connecting line between two points which are close to the windward heat exchange surfaces of the two device modules and are farthest away. The utility model ensures the consistency of the flow direction of the damp and hot drying airflow towards the windward heat exchange surface of the two device modules, avoids the channeling of the drying airflow flowing from the air inlet of the two device boxes towards the windward heat exchange surface of the two device modules, and improves the drying heat exchange efficiency.

Description

Drum washing machine with heat pump drying function

Technical Field

The utility model relates to the technical field of washing equipment, in particular to a drum washing machine with a heat pump drying function.

Background

The washing machines with drying function sold in the market at present are mainly divided into two types: the first is heat pump drying, and the second is electric heating drying. The drying principle of the heat pump type is that moist air firstly passes through an evaporator, and water vapor in the moist air is condensed into liquid and then flows into a drainage system along a two-unit box, so that the aim of drying the air in a barrel is fulfilled. Then the air after drying process absorbs the heat generated by the compressor through the condenser, and the high temperature drying gas is formed and enters the cylinder for drying. The clothes drying effect is achieved by circulating and reciprocating.

However, because the two containers are large in size and the upper end of the outer drum of the washing machine is a cambered surface, in order to avoid collision between a washing machine drum which shakes during operation of the washing machine and the two containers, the positions of the two containers need to be increased so as to avoid the highest point of the outer drum of the washing machine, and because the upper surface of the outer drum of the washing machine is cambered, the situation of space waste between the lowest point and the highest point is caused. And the outer cylinder is connected with the rack by a hanging spring, the hanging spring is just positioned at the two device boxes, and the space occupied by the two device boxes is also required to be enlarged for avoiding the interference between the two device boxes and the hanging spring. Therefore, the condition that the existing heat pump drying type washing machine is too high or too wide is caused, and the internal space is seriously wasted.

Therefore, the present invention is directed to solve the following technical problems of the conventional laundry treating apparatus having a heat pump drying function:

1. the problem of longitudinal space waste caused by avoidance of the outer drum of the washing machine by the two machine boxes is solved;

2. the problem of transverse space waste caused by avoiding hanging springs of the two device boxes is solved;

3. the problem of wind guiding in two device boxes in the avoiding structure is solved;

4. the problem of condensation and drainage in two device boxes in the avoiding structure.

In view of the above, the present invention is particularly proposed.

SUMMERY OF THE UTILITY MODEL

In view of the above, the present invention provides a drum washing machine with a heat pump drying function on the premise of reducing space waste, reducing washing machine volume and ensuring drying performance, and specifically, the technical scheme adopted is as follows:

a drum washing machine having a heat pump drying function, comprising:

an outer cylinder;

a housing, the outer tub being provided in an inner space of the housing;

the heat pump module comprises two device boxes and two device modules which are arranged in the two device boxes and are formed by integrating a condenser and an evaporator into a whole, wherein the two device boxes are provided with two device box air inlets which are obliquely arranged relative to the horizontal direction;

the inclination direction of the air inlets of the two device boxes is inclined towards the direction of a connecting line between two points which are close to the windward heat exchange surfaces of the two device modules and are farthest away.

As an optional embodiment of the present invention, the two-device box includes a box peripheral side wall and a box bottom wall, the box peripheral side wall and the box bottom wall enclose an open accommodating space for accommodating the two-device module, the box bottom wall is opposite to the outer cylinder and has a gap, and the air inlet of the two-device box is disposed on the box peripheral side wall facing the drying air flow and is close to the box bottom wall.

As an optional embodiment of the present invention, the two cases include a first case side wall facing the drying airflow and a second case side wall opposite to the first case side wall, and the case bottom wall is an inward concave arc surface that is inward concave toward the internal accommodation space of the two cases;

the air inlets of the two boxes are arranged on the side wall of the first box and close to the bottom wall of the first box, and the two boxes are also provided with air outlets of the two boxes arranged on the side wall of the second box.

As an optional embodiment of the present invention, the two-unit module has a first heat exchanging portion near the casing side in the vertical direction and a second heat exchanging portion near the outer cylinder side, the first heat exchanging portion is formed by inserting a first heat exchanging pipe of a first length into a first fin, the second heat exchanging portion is formed by inserting a second heat exchanging pipe of a second length into a second fin, and the length of the first heat exchanging pipe is greater than that of the second heat exchanging pipe;

and the projection of the air inlets of the two-device boxes on a projection plane vertical to the central axis obliquely crosses the projection of a diagonal line of the two-device module on the projection plane vertical to the central axis.

As an optional embodiment of the present invention, the two-unit box air inlet faces the evaporator heat exchange surface of the two-unit module, and a distance is provided between the two-unit box air inlet and the evaporator heat exchange surface, and the range of the distance is 20mm to 80 mm.

As an optional embodiment of the present invention, each of the first heat exchanging portion and the second heat exchanging portion has a heat exchanging main body and a heat exchanging pipe joint located at one end of the heat exchanging main body, and an air deflector for guiding the drying air to flow to the heat exchanging surface main body is disposed in one side of the air inlets of the two boxes.

As an optional embodiment of the present invention, the heat pump module includes a compressor disposed on the casing behind the outer cylinder, the compressor is connected to the two modules through a heat pump medium pipeline, a pipeline channel is formed between the air deflector and the two box bodies, and the heat pump medium pipeline passes through the pipeline channel and is connected to the heat exchange pipe joint.

As an optional embodiment of the present invention, a first support plate for supporting a first heat exchanging portion of an evaporator and a second support plate for supporting a second heat exchanging portion of the evaporator, a third support plate for supporting a first heat exchanging portion of a condenser and a fourth support plate for supporting a second heat exchanging portion of the condenser, and a separating clamping plate for separating the evaporator and the condenser are disposed on an inner wall surface of the bottom wall of the box, the first support plate and the second support plate are both located on one side of the separating clamping plate, and the third support plate and the fourth support plate are both located on the other side of the separating clamping plate;

optionally, a ladder supporting table is further arranged on the inner wall surface of the bottom wall of the box, the separating clamping plate comprises a first separating clamping plate and a second separating clamping plate which are arranged on the ladder supporting table, a first heat exchanging part and a second heat exchanging part, close to one end of the evaporator and the condenser, of the evaporator and the condenser are respectively abutted to the ladder supporting table, the first separating clamping plate is inserted between the first heat exchanging part of the evaporator and the first heat exchanging part of the condenser in a clamped mode, and the second separating clamping plate is inserted between the second heat exchanging part of the evaporator and the second heat exchanging part of the condenser in a clamped mode.

In an alternative embodiment of the present invention, a condensed water drain joint for draining condensed water is provided at the bottom wall of the two cases, and the water outlet direction of the condensed water drain joint is consistent with the flowing direction of the drying air in the two cases.

As an optional embodiment of the utility model, a supporting plate for supporting the two-unit module is arranged on the inner wall of the bottom of the two-unit box, and one end of the supporting plate close to the condensate water drainage joint is provided with a condensate water diversion arc surface bent towards the condensate water drainage joint.

Has the advantages that:

the inclination direction of the air inlets of the two device boxes is inclined towards the connecting line direction between two points which are close to the windward heat exchange surfaces of the two device modules and are farthest away, so that the consistency of the flow direction of the damp and hot drying air flow towards the windward heat exchange surfaces of the two device modules is ensured, the drying air flow flowing from the air inlets of the two device boxes towards the windward heat exchange surfaces of the two device modules is avoided, and the drying heat exchange efficiency is improved.

The drum washing machine with the heat pump drying function has the following beneficial effects:

1. by applying the principle that hot air rises, the air inlets of the two boxes are arranged at the bottoms of the two boxes to enable damp and hot drying air to rise to be in more sufficient contact with the two components, so that the drying efficiency is improved.

2. In the projection direction of the front surface of the whole machine, the air inlets of the two device boxes which are obliquely arranged cross the diagonal direction of the two device modules, so that the consistency of the flow direction of the damp and hot drying air flow is ensured, and the cross flow is avoided;

3. the two device assemblies are arranged in a certain distance range from the air inlets of the two device boxes, so that the wind resistance can be reduced, the smooth flowing of drying airflow is ensured, and the load of a fan is reduced;

4. the outlet direction of the condensed water drainage joint is consistent with the flowing direction of the drying airflow, the condensed water can be discharged by means of wind power, and the problem that the drying efficiency is reduced due to the accumulation of the condensed water is avoided.

Drawings

The above and other objects, features and advantages of the present disclosure will become more apparent by describing in detail exemplary embodiments thereof with reference to the attached drawings. The drawings described below are merely exemplary embodiments of the present disclosure, and other drawings may be derived by those skilled in the art without inventive effort.

FIG. 1 shows a perspective view of the washing machine (with the top deck removed) in the embodiment;

fig. 2 shows a front view of the washing machine (with the front panel assembly removed) in the embodiment;

FIG. 3 shows an exploded view among the outer tub, the two-unit assembly, and the blower assembly in the embodiment;

FIG. 4 illustrates an assembly view between the two-unit assembly and the fan assembly in the first embodiment;

FIG. 5 is a schematic perspective view of a two-device module according to one embodiment;

FIG. 6 shows a front view of a two device module in accordance with one embodiment;

FIG. 7 is a schematic diagram showing the structure of a third heat exchange tube of a two-device module in the first embodiment;

FIG. 8 is a schematic perspective view of a two-part cartridge according to a first embodiment;

FIG. 9 illustrates an assembly view between the two-unit assembly and the fan assembly in the first embodiment;

FIG. 10 is a schematic view showing the assembly of the blower assembly and the two assemblies in the second embodiment with respect to the outer cylinder;

FIG. 11 is an exploded view of the two-unit assembly and the blower assembly of the second embodiment in relation to the outer tub;

FIG. 12 is a partial perspective view of the two-part case according to the second embodiment;

FIG. 13 is a front view of the two-part case according to the second embodiment;

FIG. 14 is an exploded view showing the assembly of the blower unit with the two units and the outer tub in the third embodiment;

FIG. 15 is an exploded view of the fan assembly and the two assemblies of the third embodiment;

FIG. 16 is an assembly view of the fan assembly and the frame assembly with the fan assembly and the frame assembly of the third embodiment;

FIG. 17 is an exploded view showing the assembly of the blower fan assembly and the outer tub in the third embodiment;

FIG. 18 is an exploded view of a fan assembly according to the third embodiment;

FIG. 19 is a schematic view showing the assembly of the compressor and the two-unit module according to the fourth embodiment;

FIG. 20 is a schematic view showing the assembly of the compressor with the frame assembly according to the fourth embodiment;

fig. 21 is an exploded view showing a compressor mounted on a fixed base plate in the fourth embodiment;

FIG. 22 is a schematic diagram showing the connection between the compressor and the heat pump medium pipeline between the two units in the fourth embodiment;

FIG. 23 is a schematic diagram showing the connection position of the compressor and the heat pump medium pipeline between the two units of the fourth embodiment relative to the position of the installation through hole;

FIG. 24 is a schematic view (direction one) showing the connection of the heat pump medium pipeline between the compressor and the two units of the fourth embodiment through a soft rubber pipe;

fig. 25 shows a schematic diagram (direction two) of the connection of the heat pump medium pipeline between the compressor and the two units of the fourth embodiment through the soft rubber pipe.

Detailed Description

In order to make the objects, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are some, but not all, embodiments of the present invention. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

The terminology used in the embodiments of the utility model is for the purpose of describing particular embodiments only and is not intended to be limiting of the utility model. As used in the examples of the present invention and the appended claims, the singular forms "a", "an", and "the" are intended to include the plural forms as well, and "a" and "an" generally include at least two, but do not exclude at least one, unless the context clearly dictates otherwise.

It should be understood that the term "and/or" as used herein is merely one type of association that describes an associated object, meaning that three relationships may exist, e.g., a and/or B may mean: a exists alone, A and B exist simultaneously, and B exists alone. In addition, the character "/" herein generally indicates that the former and latter related objects are in an "or" relationship.

It is also noted that the terms "comprises," "comprising," or any other variation thereof, are intended to cover a non-exclusive inclusion, such that a good or system that comprises a list of elements does not include only those elements but may include other elements not expressly listed or inherent to such good or system. Without further limitation, an element defined by the phrase "comprising an … …" does not exclude the presence of other like elements in a commodity or system that includes the element.

To further illustrate the technical solution of the present invention, the following specific examples are provided with reference to fig. 1 to 25.

Referring to fig. 1 and 2, the present embodiment provides a drum washing machine with a heat pump drying function, including a housing 1, an inner drum 3 and an outer drum 2 coaxially installed in the housing 1, the outer drum 2 installed in the housing 1 through a vibration damping module; the inner cylinder 3 is driven by a driving motor and is rotatably arranged in the outer cylinder 2.

During the washing process of the drum washing machine, washing water enters the outer barrel 2 through the water inlet pipeline, water stops entering after reaching a set water level, the inner barrel 3 is driven to rotate in the outer barrel 2 through the driving motor, and clothes are beaten through lifting in the rotating process of the inner barrel 2 to wash the clothes.

As shown in fig. 1, the drum washing machine is vertically placed on a horizontal ground, a panel assembly 8 is arranged in front of a casing 1 of the drum washing machine, a feeding opening is formed in the panel assembly 8, and a door assembly 9 is mounted on the feeding opening of the panel assembly 8 and used for opening/closing the feeding opening. Referring to the orientation marks in fig. 1, the present invention is illustrated with reference to the upper, lower, front, rear, left and right direction definitions, so as to better explain the technical solution of the present invention.

Further, the drum washing machine of the present embodiment has a drying function, and is a heat pump type drying method implemented by a heat pump system. In view of the problem of the working efficiency of the heat pump, the existing drum washing machine generally needs to reserve enough space in the shell for installing the heat pump system, thereby leading to the increase of the shell of the washing machine.

Therefore, the drum washing machine with the heat pump drying function provided by the utility model comprises an evaporator, a condenser, a compressor and a fan assembly, wherein the fan assembly conveys the damp and hot drying air in the outer drum to the evaporator, the evaporator exchanges heat with the damp and hot drying air to condense moisture in the damp and hot drying air into dry and cold drying air, the dry and cold drying air is conveyed to the condenser to be subjected to heat exchange and heated to be changed into dry and hot drying air, and the dry and hot drying air is guided into the outer drum to dry clothes and is changed into the damp and hot drying air again to circulate again. And a refrigerant serving as a working medium of the heat pump system circulates among the condenser, the throttling device, the evaporator and the compressor, the refrigerant absorbs heat in the evaporator to cool and dehumidify the damp and hot drying air led out from the outer cylinder, and the heat is released in the condenser to heat the dry and cold drying air led out from the evaporator.

The utility model aims to provide a drum washing machine with a heat pump drying function, which fully utilizes the internal space of a shell of the drum washing machine in consideration of the internal space layout of the shell, realizes the arrangement of a heat pump system, ensures the drying efficiency and the drying effect, and keeps the same size of the shell of the drum washing machine with the heat pump drying function as that of the shell of a common corresponding kilogram-level drum washing machine.

Example one

This embodiment carries out structural design and installation overall arrangement to evaporimeter and condenser to ensure that evaporimeter and condenser can be adapted to the inside space installation of casing, improved the inside space utilization of casing, can effectively control the complete machine height, specific technical scheme as follows:

referring to fig. 1 to 9, a drum washing machine with a heat pump drying function of the present embodiment includes:

a housing 1 forming an inner space;

an outer cylinder 2 provided in an inner space of the housing 1;

the heat pump module comprises two assemblies, wherein the two assemblies comprise an evaporator 441 and a condenser 442, the evaporator 441 and/or the condenser 442 are arranged in the upper left space or the upper right space of the inner barrel 2 of the shell 1, and the heat exchange main body of the evaporator 441 and/or the condenser 442 has an outer contour which is matched with the upper left space or the upper right space where the heat exchange main body is arranged.

The present embodiment is directed to the structural features of the upper left space or the upper right space in the casing of the laundry treatment device, and specifically, for the drum washing machine, a detergent dispensing device is generally required to be disposed in the upper left space, and a certain free space exists in the upper right space opposite to the upper left space, so that the laundry treatment device of the present embodiment arranges the two components in the upper left space or the upper right space of the inner drum 2 of the casing 1 according to the features of the inner space of the casing. Further, since the upper left space or the upper right space of the inner and outer drums 2 of the casing 1 is limited, and at the same time, in order to ensure that the height dimension of the whole laundry treatment apparatus is maintained, and in order to improve the heat exchange efficiency as much as possible and ensure the drying effect, the heat exchange main bodies of the two units need to be enlarged as much as possible, the heat exchange main bodies of the evaporator 441 and/or the condenser 442 of the present embodiment have an outer contour adapted to the upper left space or the upper right space where the heat exchange main bodies are located. Specifically, the heat exchange main body of the evaporator 441 and/or the condenser 442 of the present embodiment has an external contour adapted to the left upper space or the right upper space where the heat exchange main body is located, which means that the heat exchange main body adopts an irregular layout manner, but is adapted to the installation space, so as to ensure the drying efficiency.

As an alternative embodiment of this embodiment, a cross section of the heat exchange body of the evaporator 441 and/or the condenser 442 perpendicular to the axis of the outer cylinder has a shape that is wide at the top and narrow at the bottom. This is because the outer tub 2 has a cylindrical structure, the casing 1 has a rectangular parallelepiped structure, the upper left space or the upper right space between the casing 1 and the outer tub 2 has a shape that is wide at the top and narrow at the bottom, and the heat exchange bodies of the evaporator 441 and/or the condenser 442 are adapted to have a shape that is wide at the top and narrow at the bottom in order to make the best use of the space.

As an alternative embodiment of this embodiment, the cross section has a shape similar to a step surface or a shape similar to an inverted L, so that not only the installation space in the housing 1 can be fully utilized, but also the processing and manufacturing of the evaporator 441 and/or the condenser 442 can be facilitated.

The present embodiment arranges the evaporator 441 and the condenser 442 in the upper left or right space of the inner and outer cylinders 2 of the casing 1 in conjunction with the spatial layout in the casing 1, mainly in view of the arrangement of the structural components in the casing 1. Specifically, since the detergent dispenser is generally disposed at the upper left of the inner and outer drums 2 of the casing 1 of the conventional laundry treating apparatus, the evaporator 441 and the condenser 442 may be disposed at the upper right space of the inner and outer drums 2 of the casing 1; if it is considered that the detergent dispenser box is disposed at the upper right of the inner tub 2 of the cabinet 1, the evaporator 441 and the condenser 442 may be disposed at the upper left space of the inner tub 2 of the cabinet 1.

In order to ensure the drying efficiency and drying effect of the evaporator 441 and the condenser 442, the evaporator 441 and the condenser 442 having regular rectangular or square shapes are not suitable for fully utilizing the space inside the casing 1, and cannot satisfy the drying efficiency.

Therefore, the shape of the heat exchange body of the evaporator 441 and/or the condenser 442 of the present embodiment is adapted to the space between the housing 1 and the outer tub 2, that is, the overall structure of the evaporator 441 and/or the condenser 442 is adapted according to the installation space, and is not a regular rectangle, so that the installation space in the housing can be fully utilized, and the heat exchange efficiency can be ensured.

As an alternative embodiment of this embodiment, the heat exchange main body of the evaporator 441 and/or the condenser 442 in this embodiment has a first horizontal side close to the top wall of the housing 1 and a second horizontal side far from the top wall of the housing 1, and a first vertical side close to the side wall of the housing 1 on the side where the heat exchange main body is located and a second vertical side far from the side wall of the housing 1 on the side where the heat exchange main body is located, the length of the second horizontal side is greater than that of the first horizontal side, and the height of the first vertical side is greater than that of the second vertical side. Because the cylindrical structure of the outer cylinder 2, the casing is a planar structure, so that the horizontal length of the space at the upper left or upper right part of the outer cylinder 2 in the casing 1 is gradually reduced from top to bottom in the vertical direction, therefore, the heat exchange main body of the evaporator 441 and/or the condenser 442 of the present embodiment is smaller than the horizontal distance of the first horizontal side close to the outer cylinder 2 than the horizontal distance of the second horizontal side far from the outer cylinder 2 for adapting the installation space.

In order to facilitate the assembly of the condenser and the evaporator, as an alternative embodiment of this embodiment, referring to fig. 5, the condenser 442 and the evaporator 441 described in this embodiment are integrated to form the two-unit module 44, and the heat exchange bodies of the condenser 442 and the evaporator 441 include a first heat exchange portion 4421 and a second heat exchange portion 4421, which both have different horizontal lengths, so that the heat exchange bodies of the two-unit module 44 have a stepped surface, in which the horizontal length far from the outer cylinder side is greater than the horizontal length near the outer cylinder side. In order to better utilize the space, the cross section of the heat exchange body of the two-unit module 44 is set to be a non-rectangular structure, that is, in the space, the cross section of the heat exchange body of the two-unit module 44 is set to be "L" shaped, "7" shaped, and the like, and is placed in the space, so that the cross section area of the heat exchange body of the two-unit module 44 is maximized, and the heat pump drying effect is improved.

Referring to fig. 5, as an alternative embodiment of the present embodiment, the evaporator 441 and the condenser 442 each have a first heat exchange portion 4451 distant from the outer tub 2 and a second heat exchange portion 4452 close to the outer tub 2, the first heat exchange portion 4451 is formed by a first heat exchange tube 4453 of a first length inserted in a first fin, the second heat exchange portion 4452 is formed by a second heat exchange tube 4455 of a second length inserted in a second fin, and the length of the first heat exchange tube 4453 is greater than that of the second heat exchange tube 4455.

The first heat exchanging part 4453 and the second heat exchanging part 4455 described in this embodiment are communicated with each other through a third heat exchanging tube 4454, and the third heat exchanging tube 4454 includes a first tube section which is inserted into the first fin and has the same length as the first heat exchanging tube 4453, a second tube section which is inserted into the second fin and has the same length as the second heat exchanging tube 4455, and a third tube section which is communicated with the first tube section and the second tube section.

The two-unit module 44 of the present embodiment includes a condenser 441 and an evaporator 442, both of which are formed by inserting fins through copper pipes, and are used to generate heat and absorb heat, respectively; the cross-sectional area of the heat exchange body of the two-device module 44 is maximized by utilizing the space enclosed by the outer cylinder 2 and the shell 1, and the heat exchange body is placed in the space; the heat exchange bodies of the evaporator 441 and the condenser 442 are in a step shape, copper pipe flow paths are inserted in the fins, the step sections are connected through long and short U-shaped third heat exchange pipes 4454, the copper pipe flow paths on the step surfaces are communicated, and the evaporator 441 and the condenser 442 are structurally integrated and are easy to assemble; meanwhile, the penetration of the copper pipe flow path is realized to be single-in and single-out, and the utilization rate of the refrigerant medium of the heat pump is improved.

Further, the two-component assembly of the present embodiment includes a two-component box, and the two-component module 44 is disposed in the two-component box; the two-component box is fixed on the shell 1 and positioned at the upper left or right of the outer cylinder 2, and a space is formed between the two-component box and the peripheral wall of the outer cylinder 2. The two-device case of the present embodiment includes a two-device case 443 and a two-device case lid 444, the two-device case 443 has an internal receiving cavity with an open end inside, the two-device case lid 444 covers the open end of the two-device case 443 to form a closed space, the two-device module 44 is placed in the internal closed space of the two-device case, the space between the outer cylinder 2 and the housing 1 is also used, and is referred to as an effective space, and certain safety gaps are respectively reserved between the outer cylinder 2 and the housing 1.

As an optional implementation manner of this embodiment, an outer wall surface of one side of the two cases opposite to the outer cylinder peripheral wall is an inner concave arc surface 4434, the inner concave arc surface 4434 and the outer cylinder peripheral wall share a common central axis, and a space is provided between the inner concave arc surface 4434 and the outer cylinder peripheral wall. This makes it possible to increase the inner space of the two cases as much as possible and to maintain a safe interval between the two cases and the outer cylinder 2.

Specifically, the two-chamber box of the present embodiment has a first chamber on the side close to the housing 1 and a second chamber on the side close to the outer cylinder 2, and the length of the first chamber in the horizontal direction is greater than that of the second chamber in the horizontal direction; the first heat exchanging part 4451 is disposed in the first chamber, and the second heat exchanging part 4452 is disposed in the second chamber.

In the clothes processing device with the heat pump drying function of the embodiment, the peripheral wall of the outer cylinder 2 is hung in the housing 1 through the vibration reduction hanging spring 53, and the side wall surface of the two boxes opposite to the vibration reduction hanging spring 53 is provided with the concave avoiding structure 4435 for avoiding and installing the vibration reduction hanging spring 53. Specifically, the concave avoiding structure 4435 is a concave structure formed by locally inward concave side wall surfaces of the two cases opposite to the vibration reduction hanging spring 53.

In the clothes treatment device with the heat pump drying function of the embodiment, the heat pump module includes the fan assembly 43, the fan assembly 43 is fixed on the housing 1 and located at the upper left or upper right of the outer cylinder, a space is provided between the fan assembly 43 and the outer cylinder peripheral wall of the outer cylinder 2, the two assemblies are arranged at the side close to the cylinder opening of the outer cylinder 2, and the fan assembly 43 is arranged at the side close to the cylinder bottom of the outer cylinder 2. The top of the peripheral wall of the outer cylinder is provided with an air outlet 22, and the fan assembly 43 is communicated with the air outlet 22 through an air outlet duct 41; the two-machine box is provided with two-machine box air inlets, and the fan air outlet of the fan assembly 43 is directly connected with the two-machine box air inlets; the barrel mouth of the outer barrel 2 is provided with a door seal 24, the two-barrel box is provided with two-barrel box air outlets, and the two-barrel box air outlets are communicated with the door seal 24 through an air inlet duct 511.

As an alternative embodiment of this embodiment, in the clothes treating apparatus with a heat pump drying function of this embodiment, a position opposite to the two cartridges on the peripheral wall of the outer drum 2 of the outer drum has an outer drum escape area 231 for escaping the two cartridges. Specifically, the outer cylinder escape area 231 is formed by reducing the height of the bead at a position on the outer circumferential wall of the outer cylinder 2 opposite to the two cartridges, or removing the bead, thereby reducing the mounting height of the two cartridges.

Example two

The embodiment is directed at the two-device box in the first embodiment, and the two-device box is specifically designed for installation of two-device components, circulation optimization of drying airflow and the like.

Referring to fig. 1 to 3 and 10 to 13, a drum washing machine with a heat pump drying function of the present embodiment includes:

an outer cylinder 2;

a housing 1, the outer cylinder 2 being provided in an inner space of the housing 1;

and a heat pump module including a two-tank and a two-tank module 445 disposed in the two-tank 447 and integrally formed by integrating the condenser 442 and the evaporator 441, wherein the two-tank 447 has a two-tank intake 4431, and the two-tank intake 4431 is disposed to be inclined with respect to a horizontal direction.

Specifically, the air inlet 4431 forms an acute angle with the horizontal direction; the two-tank intake port 4431 is preferably in an approximately rectangular shape having upper and lower long sides and left and right short sides.

The inclination direction of the two-device box air inlet 4431 is inclined towards a connecting line direction between two points which are farthest away on the windward heat exchange surface close to the two-device module 445, or the inclination direction of the two-device box air inlet 4431 is consistent with the connecting line direction between two points which are farthest away on the windward heat exchange surface of the two-device module 445.

The inclination direction of the two-device box air inlet 4431 of this embodiment is inclined toward the connecting line between the two points which are farthest away on the windward heat exchange surface close to the two-device module 445. Therefore, the included angle between the inclination direction of the two-device box air inlet 4431 and the connecting line direction between the two points which are farthest away from the windward heat exchange surface is made to be as small as possible, the consistency of the flow direction of the damp and hot drying air flow towards the windward heat exchange surface of the two-device module 445 is ensured, the drying air flow channeling caused by the two-device box air inlet 4431 flowing towards the windward heat exchange surface of the two-device module 445 is avoided, and the drying heat exchange efficiency is improved.

Optionally, the inclination direction of the two-device box air inlet 4431 is consistent with the connecting line direction between the two points farthest away on the windward heat exchange surface of the two-device module 445, so that the included angle between the inclination direction of the two-device box air inlet 4431 and the connecting line direction between the two points farthest away on the windward heat exchange surface is 0, and thus, the two-device box air inlet 4431 can completely cover the whole windward heat exchange surface of the two-device module 445, so that the wet and hot drying air flow is ensured to completely face the windward heat exchange surface of the two-device module 445, and the drying heat exchange efficiency is improved to the maximum.

Further, the two-device box 447 in this embodiment includes a box peripheral side wall and a box bottom wall, the box peripheral side wall and the box bottom wall enclose an open accommodating space for accommodating the two-device module, the box bottom wall is opposite to the outer tub 2 and has an interval arrangement, and the two-device box air inlet 4431 is arranged on the box peripheral side wall facing the drying air flow and is close to the box bottom wall. In this embodiment, the hot air rising principle is applied, and the two-device box air inlet 4431 is arranged at the bottom of the two-device box, so that the hot and humid drying air flow rises to be in more sufficient contact with the two-device module 445, and the drying efficiency is improved.

Specifically, the two boxes described in this embodiment include a first box side wall facing the drying airflow and a second box side wall opposite to the first box side wall, and the box bottom wall is an inward concave arc surface that is concave toward the accommodating space inside the two boxes; the two-box air inlet 4431 is formed in the side wall of the first box and is close to the bottom wall of the first box, and the two-box air outlet is formed in the side wall of the second box.

As an alternative embodiment of this embodiment, the two-device module 445 has a first heat exchange portion 4451 near the housing side and a second heat exchange portion 4452 near the outer cylinder side in the vertical direction, the first heat exchange portion 4451 is formed by inserting a first heat exchange tube 4453 of a first length into a first fin, the second heat exchange portion 4452 is formed by inserting a second heat exchange tube 4455 of a second length into a second fin, the length of the first heat exchange tube 4453 is greater than that of the second heat exchange tube 4455; the projection of the two-tank air inlet 4431 on the projection plane perpendicular to the central axis crosses the projection of the diagonal line of the two-tank module 445 on the projection plane perpendicular to the central axis.

As an optional implementation manner of this embodiment, the two-unit inlet 4431 faces the evaporator heat exchange surface of the two-unit module 445, and a distance is provided between the two-unit inlet 4431 and the evaporator heat exchange surface, where the distance is in a range from 20mm to 80 mm. The two-device module 445 is arranged at a distance range from the two-device box air inlet 4431, so that the wind resistance can be reduced, the smooth flow of drying air flow is ensured, and the load of a fan assembly is reduced.

As an optional implementation manner of this embodiment, each of the first heat exchanging portion 4451 and the second heat exchanging portion 4452 has a heat exchanging main body and a heat exchanging pipe joint located at one end of the heat exchanging main body, and an air deflector 4433 for guiding the drying air to flow to the heat exchanging surface main body is disposed inside the two boxes and located at one side of the two box air inlet 4431. When the avoidance design is adopted, the two devices also need to be an avoidance structure, and pipelines are arranged on two sides of the two devices, so that the L shape is the best scheme, the two device boxes are avoided, and a space is provided for the condensation pipe, but a gap exists in the L-shaped two device module, and the wind shielding plate is used as a wind shielding plate to ensure that wind energy completely passes through the two devices, the wind shielding plate 4433 of the embodiment is an L-shaped plate which is the same as the L-shaped two device module, so that the drying airflow entering the air inlets 4431 of the two device boxes can be better guided to the windward heat exchange surface of the two device modules, the drying airflow is blocked to the heat exchange pipe joint, the wind resistance of the drying airflow at the heat exchange joint is smaller, and the heat exchange effect is poorer.

Meanwhile, the heat pump module of this embodiment includes a compressor disposed on the casing behind the outer cylinder, the compressor is connected to the two-device module 445 through a heat pump medium pipeline, a pipeline channel is formed between the air deflector 4433 and the two-device box 443, and the heat pump medium pipeline passes through the pipeline channel and is connected to the heat exchange pipe joint. The air deflector 4433 of the present embodiment is also used to configure a piping channel for arrangement and communication of the heat pump medium piping between the compressor and the two unit modules.

Referring to fig. 12, in order to implement the installation of the two-device module 445, the two-device cartridge 443 of the present embodiment has a specific structure: the inner wall surface of the bottom wall of the box is provided with a first support plate 4434 for supporting the first heat exchange part 4451 of the evaporator 441 and a second support plate 4437 for supporting the second heat exchange part 4452 of the evaporator 441, a third support plate 44314 for supporting the first heat exchange part 4451 of the condenser 442 and a fourth support plate 44310 for supporting the second heat exchange part 4452 of the condenser 442, and a separating clamp plate for separating the evaporator 441 and the condenser 442, wherein the first support plate 4434 and the second support plate 4437 are positioned on one side of the separating clamp plate, and the third support plate 44314 and the fourth support plate 44310 are positioned on the other side of the separating clamp plate. The first and second support plates 4434 and 4437 of the present embodiment support and mount the evaporator 441, the third and fourth support plates 44314 and 44310 support and mount the condenser 442, and the separation plate is inserted between the evaporator 441 and the condenser 442 by means of clamping to separate the evaporator 441 and the condenser 442.

Optionally, a step support table 4436 is further disposed on the inner wall surface of the bottom wall of the case, the separating clamp plate includes a first separating clamp plate 4435 and a second separating clamp plate 4439 disposed on the step support table 4436, a first heat exchanging portion 4451 and a second heat exchanging portion 4452 at ends of the evaporator 441 and the condenser 442 close to each other are respectively abutted on the step support table 4436, the first separating clamp plate 4435 is inserted and clamped between the first heat exchanging portion of the evaporator 441 and the first heat exchanging portion of the condenser 442, and the second separating clamp plate 4439 is inserted and clamped between the second heat exchanging portion of the evaporator 441 and the second heat exchanging portion of the condenser 442.

In addition, two corner stoppers 44311 for circumferentially restricting the installation of two modules are provided on the inner peripheral wall of the two-device case 443 of this embodiment, and the two corner stoppers 44311 abut against the corners of the two modules to circumferentially restrict the installation of the two modules, thereby preventing circumferential movement.

The two-cartridge body 443 of the present embodiment is further provided with two-cartridge studs 44312 for realizing the fixed connection assembly with the two-cartridge cover 444.

As an alternative embodiment of this embodiment, the bottom wall of the two-tank 447 according to this embodiment is provided with a condensed water drain joint 44313 for draining condensed water, and the water outlet direction of the condensed water drain joint 44313 is consistent with the circulation direction of the drying air in the two-tank 447. Therefore, the condensed water can be discharged by means of the drying wind power, and the problem that the drying efficiency is reduced due to the accumulated condensed water is avoided.

Further, a support plate for supporting the two-device module 445 is disposed on an inner wall of the bottom of the two-device box 447, and one end of the support plate close to the condensed water drain joint 44313 is provided with a condensed water guide arc surface 4438 bent toward the condensed water drain joint, so that the condensed water of the two-device module 445 can be guided to the condensed water drain joint 44313.

The structural design of the two-device box 447 of the present embodiment has the following beneficial effects:

1. the principle that hot air rises is utilized, the air inlets of the two device boxes are arranged at the bottoms of the two device boxes, so that damp and hot drying air flow rises to be in more sufficient contact with the two device modules, and the drying efficiency is improved.

2. In the front projection direction of the whole machine, the obliquely arranged air inlet obliquely spans the opposite angle direction of the two modules, so that the consistency of the flow direction of the damp and hot drying air flow is ensured, and the cross flow is avoided.

3. The two modules are arranged at a certain distance range from the air inlets of the two devices, so that the wind resistance can be reduced, the smooth flow of drying air flow is ensured, and the load of a fan is reduced.

4. The outlet direction of the condensed water drainage joint is consistent with the flowing direction of the drying airflow, the condensed water can be discharged by means of wind power, and the problem that the drying efficiency is reduced due to the accumulation of the condensed water is avoided.

EXAMPLE III

This embodiment carries out specific optimal design to the assembly that the fan subassembly of heat pump module advances and institutional advancement, and the inside space of better utilization casing assembles, promotes casing space utilization ratio, ensures drying efficiency, simplifies the installation procedure simultaneously, and concrete scheme is as follows:

referring to fig. 1 to 3 and 14 to 18, the drum washing machine with a heat pump drying function of the present embodiment includes:

the top of the outer cylinder 2 is provided with an outer cylinder air outlet 22;

a housing 1, the outer cylinder 2 being provided in an inner space of the housing 1;

and the heat pump module comprises an evaporator, a condenser, a heat exchange air channel and a fan assembly 43 which are arranged in the space between the upper part of the outer barrel 2 and the shell 1, wherein the evaporator and the condenser are arranged in the heat exchange air channel, a fan air inlet of the fan assembly 43 is communicated with an outer barrel air outlet 22 on the outer barrel 2, a fan air outlet of the fan assembly 43 is fixedly connected with an air channel air inlet of the heat exchange air channel directly to form an integrated connecting structure, and an air channel air outlet of the heat exchange air channel is communicated with the inner part of the outer barrel 2.

The heat pump module described in the embodiment comprises two components, a heat exchange air duct, a fan component and an air guide component; the two assemblies comprise a condenser and an evaporator which are respectively used for generating heat and absorbing heat and are obtained by inserting fins through copper pipes; and the two assemblies are connected to the compressor through copper pipes, so that a complete two-unit flow path is formed.

The heat exchange air duct component is internally provided with a supporting rib capable of placing the two components, the two components are completely placed in the heat exchange air duct component, the ventilation area is ensured not to be influenced, the movement of the two components is limited by the surrounding ribs and the sponge strips, and the degree of freedom of the two components is completely limited; meanwhile, the heat exchange air channel assembly is connected with the air guide assembly 446 and the fan assembly 43 and communicated with the outer barrel, so that a complete heat pump drying circulation air path is formed; meanwhile, the heat exchange air duct is used as a circulating channel of the air path.

The two components are positioned between the outer barrel and the shell, the outer barrel is of a cylindrical structure, the shell is of a planar structure, and the space structure where the two components are placed is a space formed by the cambered surface and the plane; under the prerequisite of ensuring the complete machine height, use this space as the basis, two wares subassemblies of maximize set up to promote heat pump stoving effect.

Meanwhile, a safety gap is reserved between the heat exchange air duct assembly and the outer barrel, and two assemblies are arranged in an effective space between the outer barrel and the shell in a maximized mode, so that the heat exchange area of the fins is increased, and the drying efficiency is improved.

Correspondingly, the evaporator in the two evaporator assemblies is positioned behind the fan assembly, the fan assembly can blow damp and hot air in the outer barrel into the evaporator and the condenser, condense water in the air after passing through the evaporator, flow to the bottom of the heat exchange air duct along the fins under the action of gravity, and discharge the condensed water through ribs arranged at the bottom of the heat exchange air duct; when the air passes through the condenser, the condenser generates heat, so that cold dry air flowing through the condenser is converted into hot dry air and enters the outer cylinder again through the first connecting piece;

the heat pump module is attached to the shell and fixed on the shell, so that the heat pump module is not influenced by vibration of the outer barrel.

The fan subassembly 43 of this embodiment is provided with the heat transfer wind channel fixed connection of evaporimeter, condenser as integral structure with inside, when the integral module integral erection that assembles evaporimeter, condenser and fan subassembly was in casing 1 again, avoids evaporimeter, condenser, heat transfer wind channel and fan subassembly 43 to install the loaded down with trivial details assembly that leads to the fact in the casing separately respectively separately, and assembles the problem that the required precision is high. Moreover, the integral module installation can reduce the required internal installation space of the shell 1, improve the utilization rate of the internal space of the shell 1 and reduce the overall height of the washing machine.

Referring to fig. 15, in the present embodiment, a first fastening structure 431 and a first assembly hole 432 are disposed on an outer periphery of the fan outlet, a second clamping structure 44315 and a second assembly hole 44316 are disposed on an outer periphery of the air duct inlet of the heat exchange air duct, the fan outlet and the air duct inlet are pre-fixed by fastening the first fastening structure 431 and the second clamping structure 44315, and then the fan outlet and the air duct inlet are fixedly connected by penetrating through the first assembly hole 432 and fastening the first fastening structure on the second assembly hole 44316 through a connector, so that the evaporator, the condenser, the heat exchange air duct and the fan assembly are assembled into an integrated module.

This embodiment is through the mode that buckle and screw combined together, and the design buckle structure is convenient for assemble in advance fixed, and the rethread screw fastens.

Further, in order to improve the sealing performance of the connection between the fan air outlet and the air inlet of the air duct and prevent air leakage, a sealing ring 46 is arranged between the fan air outlet and the air inlet of the air duct, and an annular sealing groove for assembling the sealing ring is arranged in the fan air outlet and/or the air inlet of the air duct.

As an optional implementation manner of this embodiment, in order to solve the problem of the fixed installation of the fan assembly 43 in the casing, referring to fig. 15, 16 and 18, the fan assembly includes a volute, a fan impeller 4310 and a fan motor 438, the fan impeller 4310 is disposed in the volute, the fan motor 438 is disposed on the volute, a motor shaft of the fan motor 4310 extends into the volute and is connected to the fan impeller 4310, the fan inlet is disposed on the volute, the fan inlet and the fan impeller share a central axis, the fan outlet is disposed on the volute, and the central axis of the fan outlet is perpendicular to the central axis of the fan impeller; the volute is fixedly arranged on the shell 1, and the fan assembly 43 is eccentrically arranged at the upper right of the outer barrel 2. In this embodiment, the fan assembly 43 is fixedly mounted on the housing 1, and the fan assembly, the evaporator, the condenser and the heat exchange air duct are assembled into an integrated module, so that the evaporator, the condenser and the heat exchange air duct are also fixedly mounted on the housing 1.

Further, the housing 1 includes a frame assembly 11, the frame assembly includes a rear frame plate 111 and a left frame plate 113 and a right frame plate 112 fixed at two ends of the rear frame plate 111 and disposed oppositely, the volute is at least fixedly mounted on the rear frame plate 111 and the right frame plate 112, the present embodiment realizes the fixed mounting of the fan assembly 43 in at least two directions through the rear frame plate 111 and the right frame plate 112, and ensures the stability of the assembly.

Specifically, the volute includes an upper volute 434 and a lower volute 4311, the upper volute 434 and the lower volute 4311 are fixedly connected to enclose a volute chamber in which the fan impeller 4310 is disposed, the upper volute 434 is provided with a landing, the lower volute 4311 is provided with a fixing column 435 having a threaded hole therein, and the landing and the fixing column 435 are arranged along the circumferential direction of the volute; the abutment is fixedly lapped on the right frame plate 112/the rear frame plate 111, and the fixing column 435 is fixed on the rear frame plate 111/the right frame plate 112 through a connecting piece.

In this embodiment, the upper volute casing 434 is provided with a first platform 433 and a second platform 434, the frame assembly includes a corner frame plate 114 bridging the right frame plate 112 and the rear frame plate 111, the first platform 433 is fixedly lapped on the right frame plate 112, the second platform 434 is fixedly lapped on the corner frame plate 114, and the fixing column 435 is fixed on the rear frame plate 111 through a connecting member. The corner frame plate 114 of the embodiment not only realizes the fixed installation of the fan assembly 43, so that the installation of the fan assembly 43 is more stable, but also increases the overall strength of the frame assembly, and ensures the stability of the whole washing machine.

In the embodiment, multidirectional fixing structures such as a platform and a fixing column are designed on the structure of the fan assembly, and the multidirectional fixing structures such as the platform and the fixing column need to be arranged in a position range not less than one third of the diameter of the fan assembly through analysis of fixing stability and a stress angle; and the box body is fixed on the whole machine box body through a screw fastener. When the outer barrel is washed or dehydrated to cause the vibration of the whole box body, the multi-directional fixing structure effectively ensures the stability of the fan assembly.

In the drying process, the fan motor 4310 drives the fan impeller 4310 to rotate at a certain speed, and the fan impeller 4310 operating at a high speed drives the internal circulation motion of the drying air flow, so that the air flow is sucked into the fan assembly 43 from the outer cylinder 2 and then flows to the heat exchange module at a certain speed to form the air flow in the drying air duct.

The drying process described in this embodiment means that, during drying, the fan assembly 43 is rotated at a high speed by the fan motor 4310, and the air flow in the loop is sucked into the fan assembly 43 through the air outlet of the outer cylinder in the outer cylinder 2, and then enters the heat exchange air duct through centrifugal movement at a certain speed under the driving of the fan motor 4310 at which the fan assembly 43 rotates at a high speed. Then enters the outer cylinder 2 again, and is continuously sucked into the drying loop by the fan assembly 43, and the circulation is continuous.

Referring to fig. 18, in the present embodiment, the blower inlet communicates with the outer cylinder outlet 22 on the outer cylinder 23 of the outer cylinder 2 through the flexible adapter 41. Because the fan component 43 is fixed on the frame component 11, the outer cylinder 23 can vibrate in the operation process of the washing machine, so that the outer cylinder 23 is communicated with the fan component 43 through the flexible adapter 41, and the damage caused by the interaction force generated by the vibration of the outer cylinder 23 and the fan component 43 is avoided.

Further, in this embodiment, the air outlet 22 is centrally disposed on the top of the outer cylinder 23 near the rear cylinder, the flexible adapter 41 has a first connection port connected to the outer cylinder air outlet 22 and a second connection port connected to the blower inlet, and an eccentric distance is formed between the central axis of the first connection port and the central axis of the second connection port.

In this embodiment, the first connection port and the outer barrel air outlet are fastened and connected through a first fastening clamp 437, and the second connection port and the fan air inlet are fastened and connected through a second fastening clamp 436.

Specifically, the embodiment provides a flexible adapter 41 of a fan assembly, which uses a rubber adapter to connect a drying air duct and an outer cylinder, and utilizes the stretchability and ductility of the rubber adapter, so that when the outer cylinder is vibrated or pulled by multi-directional stress due to washing, dehydration and other program operations, the drying air duct is not affected by vibration, and a complete and closed circulation air duct system is maintained.

The rubber adaptor is arranged at the top of the outer barrel and used for connecting the fan assembly and the outer barrel; the position connected with the top of the outer cylinder is called an outer cylinder air outlet, wherein the fan assembly is placed in a mode of forming a certain included angle (within 90 degrees) with the horizontal plane; the first connecting piece 511 is arranged at the front position of the outer barrel and is used for connecting the air guide assembly 446 with the outer barrel; in the assembly, the rubber adaptor and the first connecting piece are both flexible structures and materials capable of generating movement strokes.

Correspondingly, the outer barrel air outlet is arranged at the top of the outer barrel, so that the length of the air path circulation path is reduced, the resistance of the drying circulation air path is reduced, the drying efficiency is improved, and the effect of the circulation air path is achieved.

The outer barrel air outlet needs to be provided with a first filter screen 411 at the outer barrel air outlet for filtering the flock generated in the drying process.

Example four

The assembly that the compressor unit of this embodiment goes into to heat pump module and institutional advancement carry out specific optimal design, and the inside space of better utilization casing assembles, promotes casing space utilization ratio, ensures drying efficiency, simplifies the installation procedure simultaneously, and concrete scheme is as follows:

referring to fig. 1 to 3 and 19 to 21, a drum washing machine with a heat pump drying function of the present embodiment includes:

an outer cylinder 2;

the frame component 11, the said outer cylinder 2 is set up in the inner space of the frame component 11;

and the heat pump module comprises an evaporator, a condenser and a compressor 451, the condenser and the evaporator are integrated into a whole to form a two-device module 44, the two-device module 44 is arranged above the outer cylinder 2, the compressor 451 is arranged on the frame component 11, and the compressor 451 is connected with the two-device module 44 through a heat pump medium pipeline.

The drum washing machine of the embodiment arranges the two modules 44 above the outer drum 2, the compressor 451 is arranged on the frame assembly 11 and behind the outer drum 2, the reasonable position layout among the modules reduces the production cost, reasonably utilizes the inner space of the washing machine and reduces the height of the whole machine.

Referring to fig. 20, the frame assembly 11 of the present embodiment includes a rear frame plate 111, and a left frame plate 113 and a right frame plate 112 fixed to both ends of the rear frame plate 111 and disposed opposite to each other, the left frame plate 113 having a left bottom plate 118 at a bottom thereof, and the right frame plate 112 having a right bottom plate 117 at a bottom thereof; the compressor 451 is fixedly installed on the fixed base plate 116, and both ends of the fixed base plate 116 are respectively fixed to one end of the left base plate 118 close to the rear frame plate 111 and one end of the right base plate 117 close to the rear frame plate 111.

In the embodiment, the compressor 451 is fixed on the frame assembly 11 through the fixed bottom plate 116, so that the displacement of the compressor 451 caused by vibration during operation is reduced, the working condition resonance of the compressor 451 is reduced, and the operation of the whole machine is stable.

Referring to fig. 21, the compressor 451 according to the present embodiment is fixed to the fixed base plate 116 by a mounting assembly; the assembly component comprises an assembly bolt 4511 and a fastening nut 458, the fixing bottom plate 116 is provided with an assembly through hole, the casing of the compressor 451 is provided with a fixing foot 459, the assembly bolt 4511 sequentially penetrates through the assembly through hole and the fixing foot 459 from bottom to top, and the fastening nut 458 is fastened on one end, extending out of the fixing foot 459, of the assembly bolt 4511.

Further, the assembling component further includes a pre-tightening elastic washer 4510, and the pre-tightening elastic washer 4510 is sleeved on the assembling bolt 4511 and is located between the fixing foot 459 and the fixing bottom plate 116.

Further, an assembling profiling 1161 is arranged on the fixed bottom plate 116, the assembling profiling 1161 matches with the shape of the end portion of the shell of the compressor 451, after the compressor 451 is fixedly installed on the fixed bottom plate 116, the end portion of the shell of the compressor 451 abuts against the assembling profiling 1161.

Further, the assembling through holes include a plurality of through holes uniformly distributed along the periphery of the assembling die 1161, and the fixing pins 459 include a plurality of through holes uniformly distributed along the periphery of the casing of the compressor 451, and are arranged in one-to-one correspondence to the assembling through holes.

During the installation, the assembly through-hole with the assembly of fixed foot 459 one-to-one, assembly bolt 4511 from down up passing in proper order assembly through-hole, pretension elastic washer 4510, fixed foot 459 on the PMKD 116 are locked through set up in fastening nut 458 above fixed foot 459, when the assembly targets in place, compressor 451 bottom with assembly die 1161 butt, pretension elastic washer 4510 provides the pretightning force of bolt locking, and can absorb certain vibration energy, thereby reduce because of the vibration that produces during the compressor operation makes the risk of bolt locking inefficacy, the assembly die mould gives the locking of compressor provides the locking feedback, and forms certain structure spacing on the horizontal direction, has improved compressor locking intensity.

Referring to fig. 20, a heat dissipation fan 453 is disposed on the left frame plate and/or the right frame plate, and an air outlet direction of the heat dissipation fan 453 faces the compressor 451 to dissipate heat of the compressor. As shown in fig. 24, a heat radiation hole 119 for allowing the radiation wind blown by the radiation fan 453 to flow out of the inside of the case 1 is provided in the rear frame plate 111.

The heat pump module of this embodiment further includes two device boxes for installing the two device modules, the two device boxes have two device box air outlets, and the two device box air outlets are communicated with the inside of the outer barrel 2 through the air inlet duct 511.

Further, the heat pump module described in this embodiment includes a fan assembly 43, the outer cylinder 2 is provided with an outer cylinder air outlet 22, the fan assembly 43 is communicated with the outer cylinder air outlet 22 through an air outlet duct 41, the two cylinders are provided with two cylinder air inlets, and the two cylinder air inlets are communicated with the air outlet of the fan assembly.

In the drum washing machine of the embodiment, the two-device module and the fan assembly are eccentrically arranged above the peripheral wall of the outer cylinder, the two-device module is arranged at one end close to the cylinder opening of the outer cylinder, and the fan assembly is arranged at one end close to the cylinder bottom of the outer cylinder.

The pipeline connection mode among the compressor, the evaporator and the condenser of the embodiment is as follows:

referring to fig. 22 to 25, the compressor 451 according to the present embodiment is connected to a first heat pump medium pipe 455 and a second heat pump medium pipe 454, the evaporator is connected to a third heat pump medium pipe 456 detachably connected to the first heat pump medium pipe 455, and the condenser is connected to a fourth heat pump medium pipe 457 detachably connected to the second heat pump medium pipe 454.

The compressor, the evaporator and the condenser of the embodiment are respectively connected with the heat pump medium pipelines, when the independent components are assembled in the shell, the components do not interfere with each other, the assembly is easier, and after the compressor, the evaporator and the condenser are respectively assembled, the corresponding heat pump medium pipelines are connected, so that the heat pump medium pipelines among the components can be communicated. Therefore, the heat pump pipeline of the embodiment is in a separated connection mode, the assembly sequence of parts is simplified, and the production cost is reduced.

As an alternative embodiment of the present embodiment, the frame assembly 11 of the present embodiment includes a rear frame plate, and a left frame plate 113 and a right frame plate 112 fixed to both ends of the rear frame plate 111 and disposed oppositely; the rear frame plate 111 is provided with a mounting through hole 115, and the connecting position of the first heat pump medium pipeline 455 and the third heat pump medium pipeline 456 and the connecting position of the second heat pump medium pipeline 454 and the fourth heat pump medium pipeline 457 correspond to the mounting through hole 115. Thus, the installation through holes 115 on the frame assembly 11 are used for pipeline connection and disassembly and maintenance, the assembly is simplified, and the production and after-sale maintenance cost is reduced.

As an optional implementation manner of this embodiment, the evaporator and the condenser of this embodiment are both fixedly mounted on the frame assembly 11 and located above the outer tub 2; the first heat pump medium pipeline 455 and the third heat pump medium pipeline 456, and the second heat pump medium pipeline 454 and the fourth heat pump medium pipeline 457 are all fixedly connected relatively. Because the evaporator and the condenser are fixedly arranged on the frame component 11, and the compressor is also fixedly arranged on the frame component 11, relative displacement among the evaporator, the condenser and the compressor can not occur, and a relatively fixed hard connection mode can be adopted among the heat pump medium pipelines.

Specifically, the first heat pump medium pipeline 455 and the third heat pump medium pipeline 456 are both hard pipes, and the first heat pump medium pipeline 455 and the third heat pump medium pipeline 456 are fixedly connected through a first hard pipe joint; the second heat pump medium pipeline 454 and the fourth heat pump medium pipeline 457 are both hard pipes, and the second heat pump medium pipeline 454 and the fourth heat pump medium pipeline 457 are fixedly connected through a second hard pipe joint. Specifically, the first heat pump medium pipeline 455, the third heat pump medium pipeline 456, the second heat pump medium pipeline 454 and the fourth heat pump medium pipeline 457 are all made of copper or aluminum metal pipes, and the first hard pipe joint and the second hard pipe joint are made of copper or aluminum pipe joints.

Meanwhile, the heat pump module of the embodiment includes a fan assembly 43 and an air outlet duct 41, wherein the fan assembly 43 is communicated with the inside of the outer cylinder 2 through the air outlet duct 41 and is used for driving drying air to circulate between the outer cylinder 2 and the evaporator and the condenser; the fan assembly 43 is installed on the frame assembly 11, and the air outlet duct 41 is a flexible deformation duct. Since the blower assembly 43 is fixedly installed on the frame assembly 11, the tub vibrates during the operation of the washing machine, and thus needs to be communicated through the flexible deformation duct.

As an optional implementation manner of this embodiment, the evaporator and the condenser in this embodiment are both fixedly mounted on the top of the circumferential wall of the outer cylinder 2, and the first heat pump medium pipeline 455 and the third heat pump medium pipeline 456, and the second heat pump medium pipeline 454 and the fourth heat pump medium pipeline 457 are connected through flexible deformation pipes. Because the evaporator and the condenser are both arranged on the outer cylinder, the compressor is fixedly arranged on the frame component 11, and the outer cylinder can vibrate in the operation process of the washing machine, relative displacement can occur among the evaporator, the condenser and the compressor, and a soft connection mode of relative motion is adopted among the heat pump medium pipelines.

Specifically, the first heat pump medium pipeline and the third heat pump medium pipeline are both hard pipes, the flexible deformation pipe comprises a first soft connection rubber pipe, and the first heat pump medium pipeline and the third heat pump medium pipe can be connected in a relative motion mode through the first soft connection rubber pipe;

the second heat pump medium pipeline and the fourth heat pump medium pipeline are both hard pipes, the flexible deformation pipe comprises a second soft connection rubber pipe, and the second heat pump medium pipeline and the fourth heat pump medium pipeline can be connected in a relative motion mode through the second soft connection rubber pipe.

Meanwhile, the heat pump module of the embodiment includes a fan assembly 43, the fan assembly 43 is fixedly installed on the top of the peripheral wall of the outer cylinder 2, and the top of the outer cylinder 2 is provided with an outer cylinder air outlet 22; the air inlet of the fan assembly 43 is directly and fixedly connected to the outer barrel air outlet 22, or the air inlet of the fan assembly 43 is fixedly connected to the outer barrel air outlet 22 through an air outlet duct and used for driving drying air to circulate between the outer barrel and the evaporator and the condenser. The fan assembly 43 is fixed on the outer cylinder and moves synchronously with the outer cylinder, and the fan assembly 43 and the outer cylinder are relatively static, so the air path connection between the fan assembly 43 and the outer cylinder 2 can be a hard connection.

The condenser and the evaporator are integrated into a whole to form a two-unit module, the heat pump module further comprises two unit boxes for arranging the two-unit module, the two unit boxes are provided with two unit box air inlets, and an air outlet of the fan assembly is fixedly connected with the two unit box air inlets.

In the embodiment, a door seal is installed at a cylinder opening of the outer cylinder, the two device boxes are provided with two device box air outlets, and the two device box air outlets are communicated with the door seal through an air inlet duct.

In the embodiment, the two parts of the heat pump module and the compressor part are arranged in the whole machine in an open mode, when the whole machine is assembled, the heat pump medium pipelines between the two parts are respectively welded, and the two parts are connected through the middle pipeline A after being assembled in place respectively.

Through the utility model discloses gain following beneficial effect:

(1) the two devices and the press are separately arranged, so that the height of the whole machine is reduced, and the miniaturization of the heat pump type clothes treatment device is realized;

(2) the compressor is placed behind the barrel and fixed on the bottom plate, and the internal space of the whole machine is reasonably utilized;

(3) the heat pump pipeline is welded separately, so that the assembly sequence of parts is simplified, and the production cost is reduced;

(4) the installation through holes on the frame are used for pipeline connection, so that assembly is simplified, and production and after-sale maintenance cost is reduced.

Exemplary embodiments of the present disclosure are specifically illustrated and described above. It is to be understood that the present disclosure is not limited to the precise arrangements, instrumentalities, or instrumentalities described herein; on the contrary, the disclosure is intended to cover various modifications and equivalent arrangements included within the spirit and scope of the appended claims.

Claims (10)

1. A drum washing machine with a heat pump drying function, characterized by comprising:

an outer cylinder;

a housing, the outer cylinder being disposed in an inner space of the housing;

the heat pump module comprises two device boxes and two device modules which are arranged in the two device boxes and are formed by integrating a condenser and an evaporator into a whole, wherein the two device boxes are provided with two device box air inlets which are obliquely arranged relative to the horizontal direction;

the inclination direction of the air inlets of the two device boxes inclines towards the direction of a connecting line between two points which are farthest away and close to the windward heat exchange surfaces of the two device modules.

2. A drum washing machine with heat pump drying function according to claim 1, characterized in that the two-unit box comprises a box peripheral side wall and a box bottom wall, the box peripheral side wall and the box bottom wall enclose an open accommodating space for accommodating the two-unit module, the box bottom wall is opposite to the outer tub and has a spacing arrangement, and the two-unit box air inlet is arranged on the box peripheral side wall facing the drying air flow and is close to the box bottom wall.

3. A drum washing machine with heat pump drying function as claimed in claim 2, characterized in that the two boxes comprise a first box side wall facing the drying air flow and a second box side wall opposite to the first box side wall, and the box bottom wall is an inward concave arc surface concave towards the inner accommodating space of the two boxes;

the air inlets of the two boxes are arranged on the side wall of the first box and close to the bottom wall of the first box, and the two boxes are also provided with air outlets of the two boxes arranged on the side wall of the second box.

4. A drum washing machine with a heat pump drying function according to claim 2, wherein the two-machine module has a first heat exchanging part adjacent to the side of the casing in the vertical direction and a second heat exchanging part adjacent to the side of the outer tub, the first heat exchanging part being formed by first heat exchanging pipes of a first length being inserted in the first fins, the second heat exchanging part being formed by second heat exchanging pipes of a second length being inserted in the second fins, the length of the first heat exchanging pipes being greater than that of the second heat exchanging pipes;

and the projection of the air inlet of the two-device box on the projection plane vertical to the central axis obliquely crosses the projection of the diagonal line of the two-device module on the projection plane vertical to the central axis.

5. A drum washing machine with heat pump drying function as claimed in claim 4, characterized in that the two-unit box air inlet faces the evaporator heat exchange surface of the two-unit module, and a space is provided between the two-unit box air inlet and the evaporator heat exchange surface, the space is in the range of 20mm to 80 mm.

6. The drum washing machine with the heat pump drying function as claimed in claim 4, wherein the first heat exchanging part and the second heat exchanging part are both provided with a heat exchanging main body and a heat exchanging pipe joint positioned at one end of the heat exchanging main body, and an air deflector for guiding the drying air to flow to the heat exchanging surface main body is arranged at one side of the air inlets of the two machine boxes.

7. The drum washing machine with the heat pump drying function as claimed in claim 6, wherein the heat pump module comprises a compressor disposed on the casing behind the outer tub, the compressor is connected to the two modules through a heat pump medium pipeline, a pipeline channel is formed between the air deflector and the two casing bodies, and the heat pump medium pipeline passes through the pipeline channel and is connected to the heat exchange pipe joint.

8. A drum washing machine with heat pump drying function as claimed in claim 4, characterized in that the inner wall of the bottom wall of the box is provided with a first supporting plate for supporting the first heat exchanging part of the evaporator and a second supporting plate for supporting the second heat exchanging part of the evaporator, a third supporting plate for supporting the first heat exchanging part of the condenser and a fourth supporting plate for supporting the second heat exchanging part of the condenser, and a separating clamp plate for separating the evaporator and the condenser, wherein the first supporting plate and the second supporting plate are located on one side of the separating clamp plate, and the third supporting plate and the fourth supporting plate are located on the other side of the separating clamp plate.

9. A drum washing machine with heat pump drying function as claimed in claim 1, characterized in that the bottom wall of the two boxes is provided with a condensed water drain joint for draining condensed water, and the water outlet direction of the condensed water drain joint is consistent with the circulation direction of the drying air in the two boxes.

10. A drum washing machine with heat pump drying function as claimed in claim 9 wherein the inner wall of the bottom of the two-tank is provided with a support plate for supporting the two-tank module, and one end of the support plate near the condensate water drain joint is provided with a condensate water guide arc surface bent toward the condensate water drain joint.

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