CN210506865U

CN210506865U - Washing machine

Info

Publication number: CN210506865U
Application number: CN201921174177.8U
Authority: CN
Inventors: 闫卓; 石伟泽; 薛威海; 石小超; 汪庆波
Original assignee: Hisense Shandong Refrigerator Co Ltd
Current assignee: Hisense Refrigerator Co Ltd
Priority date: 2019-07-24
Filing date: 2019-07-24
Publication date: 2020-05-12
Anticipated expiration: 2029-07-24

Abstract

The utility model provides a washing machine, an outer cylinder; an air inlet is formed in the rear wall of the outer barrel; the front end of the outer barrel is provided with an exhaust port, and the air inlet and the exhaust port are communicated with each other in the outer barrel; the drying air duct is arranged at the upper part of the outer barrel and is connected with the air inlet and the air outlet; a condensed water inlet column fixed to a rear upper center position of the outer tub and configured to inject condensed water toward an inner rear wall of the outer tub; and the flow guide ribs are arranged on the inner rear wall of the outer barrel and are configured to guide a flow path of the condensed water so as to increase the flow area of the condensed water on the inner rear wall of the outer barrel. Washing machine has the stoving function concurrently when having washing machine's laundry function, and has effectively improved drying efficiency to ensure the stoving effect, improved user experience effect.

Description

Washing machine

Technical Field

The utility model belongs to the washing machine field especially relates to a washing machine of utensil stoving function.

Background

Currently, laundry treating apparatuses having a drying function are classified into a drying dedicated apparatus having only a drying function and a drying dual-purpose drying apparatus having a laundry washing function. The drying machine is classified into a drum type drying machine that dries laundry by turning the laundry using a rotatable drum, and a cabinet type drying machine that dries laundry by hanging the laundry, according to the structure and shape of the drying machine.

Generally, a conventional washing and drying apparatus includes an outer tub for storing washing water. The outer tub has a rotatable drum with washings. The drum is connected to a rotating shaft, and a motor is used to rotate the rotating shaft. The rotation shaft is rotatably supported by a bearing seat provided on a rear wall of the tub. The tub is connected to the suspension, and the vibration of the drum and the tub is buffered by the suspension.

For the drying function, a drying duct and a condensing duct are included. The drying pipeline is arranged at the upper part of the outer barrel and is internally provided with a hot air heater and a fan. One end of the condensing pipeline is connected with the outer barrel, and the other end of the condensing pipeline is connected with the drying pipeline. In order to condense moisture contained in the humid air, cooling water is supplied to the inside of the condensing duct. The wet air flows in the condensing duct, contacts the cooling water, is condensed, and then flows into the drying duct. In this way, the hot air returned to the drying duct is reheated by the hot air heater and is resupplied to the washing drum.

Disclosure of Invention

The utility model aims at the above-mentioned technical problem, a washing machine is proposed.

In order to achieve the above object, the utility model discloses a technical scheme be:

a washing machine, comprising:

an outer tub for containing washing water; an air inlet is formed in the rear wall of the outer barrel; the front end of the outer barrel is provided with an exhaust port, and the air inlet and the exhaust port are communicated with each other in the outer barrel;

a drying air duct which is arranged at the upper part of the outer barrel and is connected with the air inlet and the air outlet; airflow forms circulation in the drying air duct and the outer barrel;

a condensed water inlet column fixed to a rear upper center position of the outer tub and configured to inject condensed water toward an inner rear wall of the outer tub;

and the flow guide ribs are arranged on the inner rear wall of the outer barrel and are configured to guide a flow path of the condensed water so as to increase the flow area of the condensed water on the inner rear wall of the outer barrel.

Preferably, the water conservancy diversion muscle is including preventing the suck-back muscle, prevent that the suck-back muscle sets up along the border that is close to comdenstion water inflow column one side on the air inlet.

Preferably, the water conservancy diversion muscle includes first water conservancy diversion muscle, first water conservancy diversion muscle includes that one end links to each other the first muscle and the second of the other end separation props up the muscle, first muscle and second prop up the muscle junction and set up the comdenstion water inflow column on the urceolus periphery wall corresponding.

Preferably, the first support rib is curved and extends to the lower part of the outer cylinder.

Preferably, the second supporting rib extends towards one side close to the anti-suck-back rib and is separated from the anti-suck-back rib.

Preferably, a second guide rib is arranged on one side, away from the condensed water inlet column, of the first guide rib; the second flow guide rib comprises a third supporting rib and a fourth supporting rib, one end of the third supporting rib is connected with the other end of the fourth supporting rib, and the other end of the third supporting rib is separated from the fourth supporting rib; and the joint of the third supporting rib and the fourth supporting rib corresponds to the joint of the first supporting rib and the second supporting rib.

Preferably, the second flow guide rib comprises a fifth branch rib positioned below the fourth branch rib; in the vertical direction, the upper end of the fifth supporting rib is at least partially overlapped with the lower end of the fourth supporting rib.

Preferably, the upper end of the fifth supporting rib and the lower end of the second supporting rib are at least partially stacked in the vertical direction.

Preferably, in the horizontal projection, the lower end projection of the second diversion rib is located between the lower end projection of the fourth branch rib and the projection of the condensed water inlet column.

Preferably, the fifth rib extends downward to a lower portion of the outer cylinder.

Compared with the prior art, the utility model discloses an advantage lies in with positive effect:

the utility model provides a washing machine, washing machine has the stoving function concurrently when having washing machine's laundry function, and has effectively improved drying efficiency to ensure the stoving effect, improved user experience effect.

Drawings

FIG. 1 is an exploded view of an outer tub and an air flow part of a washing machine according to the present invention;

FIG. 2 is a cross-sectional view of the outer tub of the washing machine of the present invention;

FIG. 3 is a top view of the outer tub and the drying duct of the washing machine of the present invention;

FIG. 4 is a first oblique view of the outer tub and the drying duct of the washing machine of the present invention;

FIG. 5 is a partial schematic view of the connection structure of the outer tub and the drying duct of the washing machine of the present invention;

FIG. 6 is a partial schematic view of the connection structure of the outer tub and the drying duct of the washing machine of the present invention;

FIG. 7 is a partial schematic view of the connection structure of the outer tub and the drying duct of the washing machine according to the present invention;

FIG. 8 is a top view of the outer tub of the washing machine of the present invention;

fig. 9 is a schematic structural view of an adapter of the washing machine of the present invention;

FIG. 10 is a schematic view of the connection structure between the outer tub and the adaptor of the washing machine of the present invention;

FIG. 11 is a schematic structural view of the inner rear wall of the outer tub of the washing machine of the present invention;

FIG. 12 is a second oblique view of the outer tub and the drying duct of the washing machine of the present invention;

FIG. 13 is a schematic structural view of an outer tub and a condensate water feeding device in a first embodiment of the washing machine of the present invention;

FIG. 14 is a first schematic structural view of a transfer member in the washing machine of the present invention;

fig. 15 is a second schematic structural view of the adaptor of the washing machine of the present invention;

FIG. 16 is a schematic structural view of an outer tub and a condensate water feeding device in a third embodiment of the washing machine of the present invention;

fig. 17 is a schematic view of an assembly structure of a water dividing plate and a gas collecting channel in the fourth embodiment of the washing machine of the present invention;

FIG. 18 is a schematic view of an assembly structure of a filter net and an outer tub in a fifth embodiment of the washing machine of the present invention;

FIG. 19 is a first schematic view of an assembly structure of a six-way adapter and a filter nozzle of an embodiment of the washing machine of the present invention;

FIG. 20 is a second schematic view of an assembly structure of a sixth adaptor and a filter nozzle of the embodiment of the washing machine of the present invention;

FIG. 21 is a schematic view of a six-filings nozzle according to an embodiment of the present invention;

FIG. 22 is a schematic view showing the relative position of the six-filings-filtering nozzle and the air inlet of the embodiment of the washing machine of the present invention;

FIG. 23 is a schematic diagram of a second embodiment of the present invention showing the relative positions of the six filter bits nozzles and the air inlet;

fig. 24 is a partial sectional view of a sixth embodiment of the washing machine of the present invention;

fig. 25 is a first schematic structural view of a filter residue nozzle of a seventh embodiment of the washing machine of the present invention;

fig. 26 is a first schematic view of a connection structure of a filter dust nozzle and an adaptor according to a seventh embodiment of the present invention;

fig. 27 is a second schematic structural view of a filter residue nozzle of a seventh embodiment of the washing machine of the present invention;

fig. 28 is a schematic view of a connection structure between the filter nozzle and the adaptor according to a seventh embodiment of the present invention;

fig. 29 is a graph showing a drum cleaning process of the washing machine according to the present invention.

In the above figures: an outer cylinder 1; an inner rear wall 11; an outer peripheral wall 12; a front end portion 13; an upper portion 14; a condensed water inlet column 15; the condensed water inlet passage 151; a recessed portion 16; a gas collection channel 17; an air inlet 171; an air outlet 172; a first fixing post 173; fixing holes 1731; a fixing boss 18; a second fixing column 181; a bump 182; a front outer cylinder 19; an inlet port 191; a rear outer cylinder 10; a front temperature sensor 31; a temperature limiter 32; a rear temperature sensor 33; a drum 2; an outer rear wall 21; a water flow hole 22; an air flow portion 4; a drying air duct 41; an exhaust port 411; a fan 42; a first fixing plate 412; the first reinforcing plate 413; a heater 43; an upper duct case 44; a lower duct shell 45; an adaptor 5; a top wall 51; a through hole 511; a front side wall 52; a connection port 53; a second fixing plate 531; a connection hole 5311; a clean water inlet column 54; a water distribution plate 50; a cleaning water inlet passage 541; a conduit connecting column 542; a nozzle docking post 543; a first screw post 55; a second screw post 56; a connecting plate 57; a second reinforcing plate 58; a screw 59; a first seal ring 512; a second seal ring 500; a filter dust nozzle 6; a fixed portion 60; a base plate 61; the first screw hole 611; a second screw hole 612; a water spray bar 62; a first water spray surface 621; a second water spray surface 622; an opening 63; a first nozzle 631; the first nozzle hole 6311; the second nozzle hole 6312; the third nozzle hole 6313; a second jet 632; third nozzle 633; a condensed water supply device 7; a main line 72; a condensate water line 721; a cleaning water line 722; a three-way valve 73; a flow guiding rib 8; a first flow guide rib 81; the first ribs 811; a second stiffener 812; a second flow guiding rib 82; the third stiffener 821; a fourth stiffener 822; a fifth stiffener 823; an anti-suck back rib 83; a filter screen 9.

Detailed Description

The present invention is specifically described below by way of exemplary embodiments. It should be understood, however, that elements, structures and features of one embodiment may be beneficially incorporated in other embodiments without further recitation.

In the description of the present invention, it should be noted that the terms "inside", "outside", "upper", "lower", "front", "rear", "left", "right", and the like indicate orientations or positional relationships based on positional relationships shown in the drawings, and are only for convenience of description and simplification of description, but do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and thus, should not be construed as limiting the present invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance.

Example one

A washing machine having a drying function, as shown in fig. 1 to 13, includes a cabinet (not shown) having a tub 1 therein, the tub 1 being fixedly supported in the cabinet; a roller 2 is arranged in the outer cylinder 1, and the roller 2 is rotatably arranged in the outer cylinder 1; the axis of the outer cylinder 1 is provided with a rotating shaft which penetrates through the rear part of the outer cylinder 1 and is connected with the roller 2.

The casing is formed with a front plate having an opening for putting in the laundry. The opening part of the front plate is provided with a door body, and the door body is used for sealing the opening part. The outer cylinder 1 includes a front outer cylinder 19 forming a front portion and a rear outer cylinder 10 forming a rear portion. The front outer cylinder 19 and the rear outer cylinder 10 are assembled by a combination of screws or the like, and a space for accommodating the drum 2 is formed inside the front outer cylinder 19 and the rear outer cylinder 10. The end of the front outer cylinder 19 near the front side is referred to as a front end 19, and the front end 13 of the front outer cylinder 19 is formed with an inlet 191 into which laundry can be introduced; the input opening 191 is connected with the door body. The front side of the roller 2 is provided with an inner cylinder opening, and the inner cylinder opening corresponds to the input opening 191; the roller 2 is provided with a water flow hole 22 to communicate the roller 2 and the outer cylinder 1. A rim portion protruding forward of the outer tube 1 is formed on the inner circumferential surface of the inlet 191 of the outer tube 1. The rim is connected to the air outlet 411 of the drying duct 41. In addition, the rim portion has a gasket for maintaining airtightness between the rim and the opening portion in the front plate of the cabinet. The gasket also functions to prevent foreign materials from flowing between the outer tub 1 and the drum 2.

For realizing the stoving function, the utility model discloses a washing machine is equipped with air flow portion 4, and air flow portion 4 is fixed to be set up in the 1 outside of urceolus, and air flow portion 4 can heat the air and with 1 inside formation air cycle of urceolus. As shown in fig. 1-3, the air flowing portion 4 includes a gas collecting channel 17 and a drying air channel 41, and the drying air channel 41 is communicated with the gas collecting channel 17; the inner wall surface of the rear wall of the outer cylinder 1 is referred to as an inner rear wall 11, the circumferential side wall of the outer cylinder 1 is referred to as an outer peripheral wall 12, an air inlet 171 is arranged on the inner rear wall 11 of the outer cylinder 1, an air outlet 172 is arranged on the outer peripheral wall 12 of the outer cylinder 1, and the air inlet 171 is communicated with the air outlet 172 to form an air collecting channel 17. One end of the drying air duct 41 is connected with the air outlet 172 of the air collecting channel 17; the other end is an exhaust port 411, and the exhaust port 411 is communicated with the inside of the outer cylinder 1. The air passing through the air collecting channel 17 enters the drying air duct 41 through the air outlet 172, is heated in the drying air duct 41, and is then supplied to the inside of the tub 1 through the air outlet 411.

The inner rear wall 11 of the rear outer tub 10 is provided with a recess 16, the recess 16 is recessed rearward, an air inlet 171 of the air collecting channel 17 is formed on the inner rear wall 11 of the rear outer tub 10, and an air outlet 172 of the air collecting channel 17 is formed on the outer peripheral wall 12 of the rear outer tub 10. The air in the outer cylinder 1 is firstly concentrated by the air collecting channel 17 and then enters the drying air duct 41 for drying under the action of the air flowing part 4. The arrangement of the concave part 16 has the advantages of using air for concentration, being beneficial to moderating the flow rate of the air and reducing noise, so that silent drying is realized, and the user experience is improved.

A fixing bulge 18 is arranged on the peripheral wall 12 of the outer cylinder 1, and a threaded hole is formed in the fixing bulge 18; a plurality of first fixing plates 412 are arranged on the edge of the drying air duct 41, and holes are formed in the first fixing plates 412; the first fixing plate 412 on the drying air duct 41 corresponds to the fixing protrusion 18 on the outer peripheral wall 12 of the outer tub 1, the opening on the first fixing plate 412 corresponds to the threaded hole on the fixing protrusion 18, and the drying air duct 41 is fixed on the outer peripheral wall 12 of the outer tub 1 by a screw. The fixing protrusion 18 includes a second fixing column 181 and a protruding block 182, the protruding block 182 is disposed on the outer peripheral wall 12 of the outer tub 1 and is close to the rear wall, and the second fixing column 181 is disposed around the edge of the drying air duct 41. The drying air duct 41 is provided with a first reinforcing plate 413, and the first reinforcing plate 413 is connected to the first fixing plate 412 and the drying air duct 41, so as to effectively reinforce the connection strength between the first fixing plate 412 and the drying air duct 41.

The drying duct 41 is provided at the upper portion 14 of the tub 1, and the air flowing portion 4 circulates and heats air inside the tub 1 when the washing machine performs a drying process. That is, the drying duct 41 guides the air flow concentrated by the air collecting passage 17 out of the tub 1, heats the air flow, and then flows into the tub 1 to dry the laundry.

The drying air duct 41 is fixed on the upper part 14 of the outer barrel 1 and deviates by an angle of 8-25 degrees right above; in this embodiment, the drying air duct 41 is fixed on the upper portion 14 of the outer tub 1 and is located at a position inclined to the right by a certain angle; the arrangement enables the drying air duct 41 to play a role of counterweight so as to reduce the cost of the product; meanwhile, the weight distribution of the washing machine is balanced, so that the stability of the washing machine is improved; furthermore, the drying air duct 41 is fixed on the casing, and a rubber pipe is adopted to connect the outer cylinder 1 and the drying air duct 41; the movement of the rubber tube causes unstable changes of air pressure in the air duct and the air cylinder; because the outer cylinder 1 is a moving part, the drying air duct 41 is directly fixed on the outer cylinder 1 in the utility model, so that the outer cylinder 1 and the drying air duct 41 can be prevented from being connected by adopting a rubber tube, the product cost is reduced, and the risk of integral displacement of the washing machine caused by the vibration of the outer cylinder 1 transmitted to the casing is avoided; in addition, the drying air duct 41 in the embodiment is configured as a straight type, and the design of the straight type air duct can minimize the resistance of the air duct, reduce the requirement for the performance of the fan, and improve the drying efficiency.

The air flowing part 4 comprises an upper air duct shell 44 and a lower air duct shell 45, and the upper air duct shell 44 is connected with the lower air duct shell 45 through screws to form a drying air duct 41; a fan 42 is arranged in the drying air duct 41, the fan 42 is arranged at a position close to the air outlet 172 of the air collecting channel 17, and the fan 42 recovers and moves air by using the air collecting channel 17. A heater 43 is arranged in the drying air duct 41, and the heater 43 is positioned in the area close to the front side of the fan 42; the heater 43 heats air moved by the fan 42; the air heated by the heater 43 is introduced into the outer tub 1 through the air outlet 411, and thus the laundry in the drum 2 is dried.

The drying air duct 41 and the air collecting channel 17 can be directly connected, or connected through an adapter 5, one end of the adapter 5 is hermetically connected with the air outlet 172 of the air collecting channel 17, and the other end is fixedly connected with the drying air duct 41; the adapter 5 is arranged, so that the connection difficulty of the drying air channel 41 and the air collecting channel 17 can be effectively reduced, the installation is convenient, and the processing difficulty of the drying air channel 41 is reduced.

The adaptor 5 comprises a top wall 51 and a side wall arranged around the top wall 51; the side wall of the adaptor 5 positioned at the front side of the washing machine is marked as a front side wall 52; a through hole 511 is formed in the top wall 51 of the adapter 5, and a connecting port 53 is formed in the edge of the side wall of the adapter 5, which is arranged around the top wall 51; a plurality of first fixing columns 173 are arranged on the periphery of the air outlet 172 of the peripheral wall 12 of the outer barrel 1, and fixing holes 1731 are formed in the first fixing columns 173; the distribution path of the plurality of first fixing posts 173 corresponds to the shape of the connection port 53 on the adaptor 5.

A second fixing plate 531 is arranged at the edge of a connecting port 53 on the adapter 5, and a connecting hole 5311 is arranged on the second fixing plate 531; the second fixing plate 531 corresponds to the first fixing post 173 on the outer circumferential wall 12 of the outer cylinder 1, and the connecting hole 5311 on the second fixing plate 531 corresponds to the fixing hole 1731 on the first fixing post 173; screws are arranged in the connecting holes 5311 and the fixing holes 1731, and the adapter 5 is fixedly connected with the outer peripheral wall 12 of the outer cylinder 1; the connecting port 53 on the adapter 5 surrounds the air outlet 172 of the air collecting channel 17. The through hole 511 on the adaptor 5 corresponds to the air duct opening of the drying air duct 41, and the top wall 51 of the adaptor 5 is fixedly connected with the end part of the drying air duct 41; a first sealing ring 512 is arranged at the joint of the end part of the drying air duct 41 and the top wall 51 of the adaptor 5; a second sealing ring 500 is arranged at the joint of the connecting port 53 on the adaptor 5 and the peripheral wall 12 of the outer cylinder 1; the effective sealing connection part of the first sealing ring 512 and the second sealing ring 500 is arranged, so that air leakage is avoided, and the drying efficiency is improved.

Under the action of the fan 42 in the air flowing part 4, air passing through clothes in the washing machine is guided to the air collecting channel 17, enters from the air inlet 171 of the air collecting channel 17, enters into the adaptor 5 through the air outlet 172, enters into the drying air channel 41 through the through hole 511 on the top wall 51 of the adaptor 5, is heated by the heater 43 in the drying air channel 41, and enters into the outer barrel 1 through the air outlet 411 to dry the clothes, so as to form circulation.

A condensed water supply device 7 is arranged at the upper part of the inner side of the machine shell, the condensed water supply device 7 comprises a condensed water pipeline 721, and the condensed water pipeline 721 is communicated with the inside of the outer cylinder 1 so as to supply condensed water to the inside of the outer cylinder 1; the condensed water pipe 721 has one end connected to a water supply valve for controlling condensed water delivery, and the other end connected to the outer tub 1. A drain part (not shown) including a drain pipe and a drain pump is provided at a lower portion of the inside of the cabinet, and the drain part discharges washing water used for washing, rinsing, or the like, or condensed water during drying, to the outside.

The upper part 14 of the rear outer cylinder 10 is provided with a condensed water inlet column 15, and the condensed water inlet column 15 is close to the rear wall of the rear outer cylinder 10. The condensed water inlet column 15 is provided with a condensed water inlet channel 151, and the condensed water inlet channel 151 is communicated with the inside and the outside of the outer barrel 1 and can guide condensed water to the inner rear wall 11 of the rear outer barrel 10. The condensate pipe 721 of the condensate water supply device 7 is connected to the condensate water inlet column 15 of the upper portion 14 of the rear outer tub 10 to supply the condensate water to the inner rear wall 11 of the rear outer tub 10 through the condensate water inlet passage 151.

The condensed water inlet column 15 is arranged at the central position of the rear upper part of the outer barrel 1, the central position of the rear upper part of the outer barrel 1 is the highest position of the whole outer barrel 1, and the length of a flow path of the condensed water can be maximized by the arrangement. In addition, the condensed water inlet column 15 is integrally formed with the outer tub 1.

The lower part of the condensed water inlet channel 151 is provided with a flow guide rib 8 on the inner rear wall 11 of the rear outer cylinder 10, and the flow guide rib 8 extends from top to bottom and is bent. The diversion ribs 8 are divided into a left part and a right part by taking the vertical central line of the rear wall of the outer barrel 1 as a boundary, so that the retention time of condensed water on the inner rear wall 11 of the outer barrel 1 is prolonged as much as possible. The water conservancy diversion muscle 8 is shunted the comdenstion water that gets into by the comdenstion water post 15 and is intake, can effectively avoid the comdenstion water to get into 1 back of urceolus under the drive of self gravity, concentrate and flow along minimum route, setting up of water conservancy diversion muscle 8 makes the comdenstion water have bigger area of contact and surface tension, make the comdenstion water flow along the water conservancy diversion muscle 8 of design, longer flow path has formed the cooling surface of bigger area, make other regions of interior back wall 11 of urceolus 1 except that the air inlet 171 of gas collection passageway 17 all become the cooling wall of humid air. The air inlet 171 of the air collecting channel 17 is disposed on the rear wall of the tub 1 instead of the side wall, so that the humid air must bypass the rear portion of the drum 2 and pass through the inner rear wall 11 of the tub 1 before entering the air flowing portion 4, which is more beneficial to heat exchange between the humid air and the inner rear wall 11 of the tub 1 to which the condensed water is applied, thereby drying the air in time, accelerating the drying process and improving the drying efficiency.

The flow guiding ribs 8 comprise first flow guiding ribs 81, second flow guiding ribs 82 and anti-suck-back ribs 83. The anti-suck-back rib 83 is arranged at the air inlet 171 of the air collecting channel 17 and is positioned at one side of the air inlet 171 close to the condensed water inlet column 15; the anti-suck-back rib 83 is arranged along the edge of the air inlet 171, and the shape of the anti-suck-back rib is consistent with that of the air inlet 171; the anti-reverse absorption rib 83 can effectively prevent condensed water from being absorbed into the gas collecting channel 17 in the drying process to cause secondary wetting of clothes.

First water conservancy diversion muscle 81 includes that one end is connected the first muscle 811 and the second muscle 812 of other end separation, first muscle 811 and second muscle 812 are extended by the junction to the both sides of first muscle 811 and second muscle 812 junction on the urceolus diapire respectively, are "people" font setting promptly. In this embodiment, the first supporting rib 811 and the second supporting rib 812 are located on a perpendicular bisector of the bottom wall of the outer barrel at a joint, and the first supporting rib 811 and the second supporting rib 812 respectively extend leftward and leftward. The joint of the first branch rib 811 and the second branch rib 812 corresponds to the condensed water inlet channel 151 of the condensed water inlet column 15 disposed on the outer peripheral wall of the outer tub 1, so as to receive the condensed water introduced from the condensed water inlet channel 151 first and divide the condensed water. The first rib 811 and the second rib 812 are separated by a joint and extend to both sides, in this embodiment, to the left and right sides. The first supporting rib 811 is curved and extends to the lower portion of the outer tub 1 to guide the condensed water to the drain part; the second ribs 812 extend a partial length toward a side close to the suck back prevention rib 83, and are separated from the suck back prevention rib 83.

The second flow guiding rib 82 comprises a third supporting rib 821, a fourth supporting rib 822 and a fifth supporting rib 823; one end of the third rib 821 is connected with the other end of the fourth rib 822, and the connection part of the third rib 821 and the fourth rib 822 corresponds to the connection part of the first rib 811 and the second rib 812; namely, the joint of the third stiffener 821 and the fourth stiffener 822, the joint of the first stiffener 811 and the second stiffener 812, and the water outlet of the condensed water inlet channel 151 are located on the same straight line; that is, the joint between the third stiffener 821 and the fourth stiffener 822 is located directly below the joint between the first stiffener 811 and the second stiffener 812. The third ribs 821 are consistent with the first ribs 811 in shape; the fourth stiffener 822 is in accordance with the second stiffener 812; the third stiffener 821 and the fourth stiffener 822 extend downward for a distance; the fifth supporting rib 823 is located below the fourth supporting rib 822; preferably, the upper end of the fifth stiffener 823 is at least partially overlapped with the lower end of the fourth stiffener 822 in the vertical direction. Optionally, the upper end of the fifth stiffener 823 and the lower end of the second stiffener 812 are also at least partially stacked in the vertical direction, so that the fifth stiffener 823 can receive the condensed water guided by the second stiffener 812 and the fourth stiffener 822, and a moving path of the condensed water guided by the second stiffener 812 and the fourth stiffener 822 is extended.

The fifth stiffener 823 avoids the air inlet 171 and extends downward to the lower portion of the outer tub 1 to guide the condensed water to the drain; the fifth supporting rib 823, the second supporting rib 812 and the fourth supporting rib 822 are arranged in a segmented manner, so that on one hand, the flow direction of the condensed water can be effectively guided to the discharge part; on the other hand, the flow path of the condensed water can be extended while avoiding the air inlet 171. In horizontal projection, the lower end projection of the second flow guide rib 82 is positioned between the lower end projection of the fourth supporting rib 822 and the projection of the condensed water inlet column 15; the water shunted by the second diversion rib 82 is downwards firstly received by the fourth supporting rib 822 and then guided to the fifth supporting rib 823 by the fourth supporting rib 822. The condensed water supply device 7 supplies cold water to the inner rear wall 11 of the outer cylinder 1. When the washing machine performs the drying process, as the condensed water supply device 7 supplies cold water, the supplied cold water flows along the inner surface of the outer tub 1. At the same time, the damp air after drying the laundry moves toward the air collecting passage 17, thereby forming condensed water at the condensing surface (inner rear wall) of the outer tub 1 through which the cold water flows. Compared with the existing structure for generating condensed water by using a condensing pipe, the structure for generating condensed water by using the inner surface of the outer cylinder 1 fully utilizes the existing structure of the washing machine on one hand, and reduces the thickness increase caused by an additional structure; on the other hand, since the condensed water can be generated in a larger area, the efficiency of generating the condensed water can be improved.

The air inside the outer tub 1 flows into the drying air duct 41 as the fan 42 is driven, and moves toward the heater 43. The heater 43 heats air moved by the fan 42 to generate hot air. The air heated in the heater 43 is supplied to the inside of the outer tub 1 through the air outlet 411 to dry the laundry.

In the embodiment, a front temperature sensor 31 is arranged at the front end of the outer cylinder 1 near the drying air duct 41 to detect the temperature of the heated air; a temperature limiter 32 is arranged on the side wall of the drying air duct 41 corresponding to the position of the heater to limit the heating temperature; a rear temperature sensor 33 is arranged on the adapter 5 to detect the air temperature in the gas collection channel 17; the temperature sensors are arranged to effectively detect the temperature of each part so as to control the drying program, improve the drying efficiency and drying effect and reduce the damage to clothes.

Example two

The principle of the present embodiment is the same as that of the first embodiment, and the main difference is that a cleaning water inlet column 54 is disposed on the top wall 51 of the adaptor 5, and a cleaning water inlet channel 541 is disposed on the cleaning water inlet column 54. The cleaning water inlet column 54 is a pipeline connecting column 54 at one end of the adaptor 5, namely the pipeline connecting column 54 and the side wall of the adaptor 5 are separated at two sides of the top wall 51. The cleaning water inlet column 54 is connected to a cleaning water line 722, the cleaning water line 722 is connected to the condensed water supply device 7, and the condensed water supply device 7 supplies the condensed water to the cleaning water line 722.

The cleaning water line 722 is connected to the cleaning water inlet column 54 on the top wall 51 to introduce the water from the condensed water supply means 7 into the recess 16 forming the gas collecting channel 17, and the water introduced into the gas collecting channel 17 through the cleaning water line 722 flushes the gas collecting channel 17 and supplies the condensed water to the rear wall in the outer tub.

The gas collecting channel 17 is provided with a recessed portion 16 for communicating the inner rear wall 11 of the outer tub 1 with the outer peripheral wall 12 of the outer tub 1, and the recessed portion is advantageous for collecting wind, but is likely to accumulate fiber flocks and the like, which tends to block the gas collecting channel 17. In the embodiment, the clean water inlet column 54 is arranged on the adaptor 5 to guide the condensed water into the gas collection channel 17, so as to flush the gas collection channel 17, remove fiber flock and the like accumulated in the gas collection channel 17, avoid the blockage of the gas collection channel 17 caused by long-term flock accumulation, and effectively ensure the smoothness of the gas collection channel 17; meanwhile, the bacteria are prevented from being bred due to the accumulation of the flock.

EXAMPLE III

The difference between this embodiment and the second embodiment is: as shown in fig. 13 to 16, the condensed water supply device 7 of the present embodiment includes a main pipeline 72, and a three-way valve 73 is provided at the other end of the main pipeline 72; the other two joints of the three-way valve 73 are respectively connected with a condensed water pipeline 721 and a cleaning water pipeline 722. The condensed water supply device 7 supplies condensed water to the main pipe 72, and the condensed water is led out from the main pipe 72 and is branched to the condensed water pipe 721 and the cleaning water pipe 722 by the three-way valve; the water enters the outer cylinder through a condensed water inlet channel 151 and a clean water inlet channel 541 in sequence; wherein the condensed water introduced from the condensed water pipe 721 is directly sprayed to the inner rear wall of the outer tub to cool the inner rear wall of the outer tub with a large area; the condensed water introduced from the clean water inlet 541 enters the gas collecting channel and then flows to the inner rear wall of the outer cylinder from the gas collecting channel to cool the inner rear wall of the outer cylinder close to the air inlet. Two condensed water paths are arranged in the embodiment, so that the contact area between the condensed water and the inner rear wall of the outer barrel is effectively increased, and the condensation heat exchange effect is maximized. Meanwhile, the condensed water introduced from the clean water inlet 541 can also clean the gas collecting channel.

Example four

The difference between this embodiment and the third embodiment is: as shown in fig. 17, a water diversion plate 50 is disposed in the gas collection channel 17, and the water diversion plate 50 corresponds to the cleaning water inlet channel 541 of the cleaning water inlet column 54 and is located below the cleaning water inlet channel 541. The water diversion plate 50 diverts the condensed water entering from the clean water inlet channel 541, so that the gas collecting channel can be flushed in multiple directions, the coverage area of the condensed water is increased, and on one hand, the condensation heat exchange effect is increased; on the other hand, the water flow speed shunted by the shunting plate 50 is increased, the impact force is increased, the gas collecting channel can be effectively washed, the washing effect is better, and the washing efficiency and the washing effect are effectively improved.

EXAMPLE five

The principle of the present embodiment is the same as that of the first embodiment to the second embodiment, and the main difference is that as shown in fig. 17, a filter screen 9 is disposed at the air inlet 171 of the air collecting channel 17 on the inner rear wall 11 of the outer cylinder, and the filter screen 9 covers the air inlet 171 to filter the air entering the air collecting channel 17; the filter net 9 filters air passing through the laundry to filter fiber lint and the like therein. The rivers that set up the clean water that clean water inlet column 54 on the roof 51 of adaptor 5 introduced in embodiment two at this moment can wash away filter screen 9 to through spraying clear water and removing the filterable fibre flock etc. of filter screen 9, avoid filter screen 9 to block up and lead to gas collection channel 17 air inlet 171 to block up, also avoid the flock to accumulate simultaneously and breed the bacterium.

EXAMPLE six

The present embodiment is the same as the third principle of the present embodiment, and the main difference is that, as shown in fig. 19-24, a dust filtering nozzle 6 is arranged in the gas collecting channel 17, and the dust filtering nozzle 6 corresponds to the gas inlet 171 and is connected with the clean water inlet column 54; since the drying duct 41 is disposed at a position offset from the right upper side by a certain angle with respect to the outer tub 1, the dust filter nozzle 6 is directed vertically downward in the present embodiment and corresponds to the air inlet 171; the washing water can be moved downward by its own weight effectively. The cleaning water inlet column 54 is positioned inside the adapter 5 and is a nozzle butt-joint column 543; nozzle butt joint post 543 both sides are equipped with first screw post 55 and second screw post 56 respectively, first screw post 55, nozzle butt joint post 543, second screw post 56 collineation. A connecting plate 57 is arranged among the first screw column 55, the nozzle butt-joint column 543 and the second screw column 56 to connect the three into a whole, so that the overall strength is effectively improved; be equipped with second reinforcing plate 58 between nozzle butt joint post 543 and the roof 51, second reinforcing plate 58 is connected as an organic whole nozzle butt joint post 543 and roof 51, effectively strengthens nozzle butt joint post 543's intensity.

The filter chip nozzle 6 comprises a fixing part 60 and a water spraying rod 62, the fixing part 60 is communicated with the water spraying rod 62, the fixing part 60 is connected with the nozzle butt-joint column 543, and the filter chip nozzle 6 faces downwards along the vertical direction; the water spray rod 62 is provided with a plurality of openings 63, and the openings 63 are used for spraying clean water. The side of the filter dust nozzle 6 facing the air inlet 171 of the air collecting channel 17 is referred to as a first water spray surface 621. A bottom plate 61 is arranged at one end of the fixing part 60 far away from the water spray rod 62, a first screw hole 611 is arranged at one side of the bottom plate 61, which is positioned at the fixing part 60, and a second screw hole 612 is arranged at the other side; the first screw hole 611 corresponds to the first screw column 55 on the adaptor 5, the second screw hole 612 corresponds to the second screw column 56 on the adaptor 5, and the bottom plate 61 is fixedly connected with the first screw column 55 and the second screw column 56 through screws 59; that is, the dust filter nozzle 6 is fixedly connected to the nozzle butt column 543 by the screw 59. The condensed water passing through the nozzle butt-joint column 543 enters the water spray bar 62 through the fixing portion 60 and is sprayed out through the opening 63.

The opening 63 includes a first spout 631; the first nozzle 631 is arranged on the first water spraying surface 621 of the filter dust nozzle 6; the first nozzle port 631 includes a first nozzle hole 6311; the first nozzle holes 6311 are disposed at the middle position of the first water spray surface 621 and distributed along the axial direction of the water spray rod 62; the first nozzle 6311 sprays water in a direction perpendicular to the first water spray surface 621 to clean the area of the filter screen 9 facing the first nozzle 631. The first water spray surface 621 is provided with second spray holes 6312, the second spray holes 6312 are disposed at the edge of the first water spray surface 621 and are disposed at two sides of the first spray holes 6311, and the filter screen 9 is cleaned comprehensively by spraying water at a predetermined angle within a cleaning range with a wider radius. The end of the water spraying rod 62 far away from the fixing part 60 is provided with a third spraying hole 6313, and the third spraying hole 6313 is strip-shaped, so that the water spraying amount and the water spraying range of the end of the debris filtering nozzle 6 are effectively ensured. The arrangement effectively ensures the cleaning range, and simultaneously ensures the pressure of water spraying, so that the filter screen 9 is effectively cleaned, and the cleaning efficiency is improved; in addition, the first nozzle holes 6311 and the second nozzle holes 6312 between two adjacent rows are disposed in a staggered manner, so as to reduce the interference of water spraying therebetween and ensure the cleaning effect.

In addition, the number of nozzles can be increased or decreased in proportion to the area of the filter screen 9. The above-mentioned spout quantity, spout aperture, spout interval etc. of change with multiple form, so do not restrict the utility model discloses a spout number, spout aperture, spout interval etc.

EXAMPLE seven

The present embodiment is the same as the sixth embodiment in principle, and the main difference is that, as shown in fig. 25-28, the second nozzle 632 is provided on the side of the top of the filter dust nozzle 6 facing away from the air inlet 171. The side of the filter dust nozzle 6 away from the air inlet 171 is marked as a second water spraying surface 622; the fixing portion 60 is provided with a second nozzle 632 on the second water spraying surface 622; the second nozzle 632 faces the rear portion of the outer tub 1 to wash lint accumulated in the air path turning area of the air collecting passage 17. The second spouting port 632 is formed in a bar shape to increase the cleaning of the rear wall of the outer tub 1. The second nozzle 632 extends downward along the circumferential surface of the fixing portion 60.

The fixing portion 60 is disposed on the first water spraying surface 621 and is provided with a third nozzle 633, and the third nozzle 633 faces the front side wall 52 of the adaptor 5 to clean up thread scraps and the like accumulated in the adaptor 5 in the drying process. The second spout 632 is bar-shaped to increase the cleaning of the front side wall 52 of the coupler 5. The third nozzle 633 extends downward along the circumferential surface of the fixing portion 60.

The arrangement of the second nozzle 632 and the third nozzle 633 effectively prevents the accumulated thread scraps and the like from blocking the gas collecting channel 17, so that the air volume is remarkably reduced, the drying effect is deteriorated, and the drying process cannot be carried out; meanwhile, when the rear temperature sensor 33 is arranged in the adapter 5, thread scraps and the like are easily accumulated on the surface of the rear temperature sensor in the adapter 5, so that the distortion of the temperature detected by the rear temperature sensor is caused, and the judgment of the drying process is influenced.

The air inlet 171 of the air collecting channel 17 is provided with the filtered dust nozzle 6, which can wash the inner back wall 11 of the outer cylinder 1 and the outer back wall 21 of the drum 2 during the washing and drying process. The drum 2 is controlled to rotate at a rotational speed during the washing process of washing and drying such that the directly impacted and sprayed water can cover the area of the drum 2 and the rear portion of the tub 1 to clean them.

The utility model discloses a washing machine has the stoving function concurrently when having washing machine's laundry function, and has effectively improved drying efficiency to ensure the stoving effect, improved user experience effect.

Based on the structure of the washing machine, the embodiment provides a barrel cleaning method of the washing machine, wherein the barrel comprises an inner barrel and an outer barrel of the washing machine, and the outer barrel and the inner barrel are cleaned by controlling water supply to a filter dust nozzle. Specifically, when the user selects the washing-drying course, the washing step of the drum may be performed before the laundry rinsing is performed to remove lint between the inner drum and the outer drum. This is because lint separated from the outer rear wall of the inner tub and the inner rear wall of the outer tub when the tub is cleaned can be discharged together with the rinsing water supplied for rinsing. When a user selects to independently execute a drying program, a step of cleaning the cylinder is carried out before drying is started, and fiber scraps in front of the inner cylinder and the outer cylinder are removed; the removed lint can be discharged by performing a drainage action to discharge lint separated from the outer rear wall of the inner tub and the inner rear wall of the outer tub.

The cleaning method of the cartridge is described in detail as follows:

the washing method of the drum body of the washing machine comprises the following steps: and the barrel cleaning program comprises an interval cleaning step of controlling the clearance of the cleaning water valve to be opened and closed to provide cleaning water for the debris filtering nozzle and a continuous cleaning step of controlling the cleaning water valve to be continuously opened after the interval cleaning step.

The cylinder cleaning program specifically comprises the following steps: and controlling the cleaning water valve to be opened and closed intermittently for 1 to 2 seconds respectively, opening the cleaning water valve after accumulating the time for 16 to 32 seconds, and closing the cleaning water valve after keeping the time for 5 to 20 seconds. This barrel cleaning procedure may be cycled 2 or 3 times.

Further, when the interval cleaning step is executed, the inner cylinder is controlled to rotate forwards and backwards, and the fan is started so as to clean the drying air duct by utilizing the suction force of the fan. And after the interval cleaning step is finished, controlling the fan to continuously run for a preset time, and simultaneously turning on the heater to heat and evaporate the water remained in the drying air duct.

As shown in fig. 29, the specific content of the barrel cleaning procedure is as follows:

when a user selects a washing-drying program, a cylinder cleaning program is executed before the rinsing process is started, a cleaning water valve is opened and closed at intervals, cleaning water is supplied to a cleaning water inlet column at intervals, the cleaning water is sprayed between an inner cylinder and an outer cylinder through a filter dust nozzle, the cleaning water valve is intermittently supplied for a certain time, and then the cleaning water valve is continuously opened for continuous cleaning for a certain time.

Here, the reason why the washing water is intermittently supplied is that when the pressure of the supplied washing water is low, the injection pressure of the washing water can be made temporarily higher in the case where the washing water is intermittently supplied than in the case where the washing water is continuously supplied. That is, the pressure of the washing water supplied by the washing water valve is controlled to be temporarily increased by closing the washing water valve, and the washing water supplied from the condensate water supply device is discharged at a pressure slightly higher than the supplied pressure as the washing water whose pressure is increased is intermittently supplied.

For example, the cleaning water is supplied to the debris nozzle at intervals of about 1 second. That is, the washing water valve was opened for 1 second to supply the washing water, and then closed for 1 second to stop the supply of the washing water. This process is repeatedly performed. Such a process of supplying the cleaning water intermittently is referred to as "intermittent cleaning". Preferably, the interval cleaning duration is 16s to 32 s; in this embodiment, the interval cleaning is performed for 20s by setting to control the cleaning water valve to be intermittently opened and closed for 1s, that is, the cleaning water valve is repeatedly opened and closed for 10 times. The interval cleaning can apply impact force to the fiber scraps tightly attached to the outer rear wall of the inner barrel and the inner rear wall of the outer barrel, so that the fiber scraps have fluidity.

In addition, when the cleaning water valve is opened for the first time, the fan is started, and the suction force of the fan is utilized to clean the fan blades and the fiber scraps on the surface of the air duct.

After the interval washing with the washing water is completed, the washing water valve is opened for a predetermined time to continuously supply the washing water. In this case, the supply of the washing water is continued for about 5 to 20 seconds. Here, the process of continuously supplying the washing water is referred to as "continuous washing". In this embodiment, the continuous cleaning is performed for 10 seconds to completely clean the outer rear wall of the inner cylinder and the inner rear wall of the outer cylinder. The continuous cleaning can separate the flowing fiber scraps from the outer rear wall of the inner cylinder and the inner rear wall of the outer cylinder.

When the cleaning water valve is opened for continuous cleaning, the inner cylinder keeps rotating speed within the range of 40-60rpm for positive and negative rotation. So as to drive the water to move, thereby enabling the water directly impacted or sputtered to clean and cover the outer rear wall area of the inner cylinder and the inner rear wall area of the outer cylinder.

In the above washing process, the drain pump does not operate, i.e., remains in a closed state.

The above barrel wash procedure was cycled 2 or 3 times as needed.

After the cleaning is finished, the fan continues to work for a certain time, and the heater is turned on to heat and evaporate the water remained in the air channel so as to keep the drying air channel free from water accumulation and avoid corrosion to the drying air channel.

Preferably, the above washing process is not performed simultaneously with the supply of the rinsing water or other water. That is, if the supply pressure of the washing water is lower than the normal pressure, if the rinsing or other water supply and the washing water supply are performed simultaneously, the pressure of the supplied washing water becomes lower.

The time and the times of opening and closing the cleaning water valve in the cleaning at the intervals and the time and the times of continuously cleaning can be matched by a user according to the user-defined selection according to the requirement, so that a better cleaning effect is realized.

When a user selects to independently execute the drying program, the cylinder cleaning program is executed before the drying program is started, the cleaning water valve is opened and closed at intervals, the cleaning water is supplied to the cleaning water inlet column at intervals, the cleaning water is sprayed between the inner cylinder and the outer cylinder through the filter dust nozzle, the cleaning water valve is intermittently supplied for a certain time, and then the cleaning water valve is continuously opened for continuous cleaning for a certain time.

During the execution of the drum washing and drying processes, the drain pump is kept open for 15-25 s within 2min to drain water, and washed lint and the like are discharged from the lint separated from the outer rear wall of the inner tub and the inner rear wall of the outer tub.

The above barrel wash procedure was cycled 2 or 3 times as needed.

The utility model provides a barrel cleaning method of a washing machine, which can clear fiber scraps and the like remained between an inner barrel and an outer barrel so as to prevent the fiber scraps and the like from easily entering gaps, thereby keeping the continuous good performance of the washing machine; and effectively prevent breeding details, improve user experience.

The above description is only a preferred embodiment of the present invention, and is not intended to limit the present invention in other forms, and any person skilled in the art may use the above-mentioned technical contents to change or modify the equivalent embodiment into equivalent changes and apply to other fields, but any simple modification, equivalent change and modification made to the above embodiments according to the technical matters of the present invention will still fall within the protection scope of the technical solution of the present invention.

Claims

1. A washing machine, characterized by comprising:

an outer tub (1) for containing washing water; an air inlet (171) is formed in the rear wall of the outer barrel (1); an air outlet (411) is formed in the front end of the outer barrel (1), and the air inlet (171) is communicated with the air outlet (411) in the outer barrel (1);

a drying air duct (41) which is provided at the upper part of the outer tub (1) and is connected to the air inlet (171) and the air outlet (411); the airflow forms circulation in the drying air duct (41) and the outer barrel (1);

a condensed water inlet column (15) fixed to a rear upper center position of the outer tube (1) and configured to inject condensed water toward an inner rear wall (11) of the outer tube (1);

a flow guiding rib (8) provided at an inner rear wall (11) of the outer tub (1) and configured to guide a flow path of the condensed water to increase a flow area of the condensed water on the inner rear wall of the outer tub.

2. The washing machine as claimed in claim 1, wherein: the flow guide ribs (8) comprise anti-reverse-suction ribs (83), and the anti-reverse-suction ribs (83) are arranged along the edge of one side, close to the condensate water inlet column (15), of the air inlet (171).

3. The washing machine as claimed in claim 2, wherein: the water conservancy diversion muscle (8) are including first water conservancy diversion muscle (81), first water conservancy diversion muscle (81) include that one end links to each other first muscle (811) and second that the other end separates prop up muscle (812), first muscle (811) and second prop up muscle (812) junction and set up the comdenstion water on urceolus (1) periphery wall and intake post (15) corresponding.

4. A washing machine as claimed in claim 3, wherein: the first support rib (811) is bent and extends to the lower part of the outer cylinder (1).

5. A washing machine as claimed in claim 3 or 4, characterized in that: the second supporting rib (812) extends towards one side close to the anti-suck-back rib (83) and is separated from the anti-suck-back rib (83).

6. A washing machine as claimed in claim 3, wherein: a second guide rib (82) is arranged on one side, away from the condensed water inlet column (15), of the first guide rib (81); the second flow guide rib (82) comprises a third rib (821) and a fourth rib (822) which are connected at one end and separated at the other end; the joint of the third supporting rib (821) and the fourth supporting rib (822) corresponds to the joint of the first supporting rib (811) and the second supporting rib (812).

7. The washing machine as claimed in claim 6, wherein: the second flow guide rib (82) comprises a fifth supporting rib (823) positioned below the fourth supporting rib (822); in the vertical direction, the upper end of the fifth supporting rib (823) is at least partially overlapped with the lower end of the fourth supporting rib (822).

8. The washing machine as claimed in claim 7, wherein: the upper end of the fifth supporting rib (823) and the lower end of the second supporting rib (812) are at least partially stacked in the vertical direction.

9. The washing machine as claimed in claim 7, wherein: and in horizontal projection, the lower end projection of the second flow guide rib (82) is positioned between the lower end projection of the fourth supporting rib (822) and the projection of the condensed water inlet column (15).

10. A washing machine according to any one of claims 7-9, characterized in that: the fifth supporting rib (823) extends downwards to the lower part of the outer cylinder (1).