A light-sensing based laundry cleaning feedback device and method

Abstract

The application discloses a laundry cleaning feedback device and method based on light sensing, and relates to the technical field of laundry cleaning. The specific operation steps are as follows: a plurality of groups of laundry with different cleaning degrees are soaked for the same time; after soaking, the light transmittance of the soaking sewage is calculated by a measuring feedback device, and then the laundry detergent input amount is determined; the laundry detergent input amount determines the cleaning time; after the laundry detergent is put in, the cleaning device starts to clean the laundry according to the laundry time; after cleaning, the light transmittance of the soaking sewage is measured again, the laundry reaching the cleaning standard is stopped from cleaning, and the laundry not reaching the requirement continues to calculate the light transmittance; after the laundry time and the laundry detergent input amount are determined, the laundry continues to be cleaned until the laundry is clean. The application solves the problem that the existing washing machine cannot accurately determine the laundry detergent input amount, which causes sewage pollution and resource waste.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of clothes cleaning, in particular to a laundry cleaning feedback device and method based on light sensing. BACKGROUND

[0002] At present, the user of the washing machine on the market can only know the remaining cleaning time, cannot know the cleaning effect, and can only check the cleaning degree after the cleaning is completed, and people put laundry detergent without knowing the required amount of laundry detergent, too much laundry detergent will cause sewage pollution and resource waste, and too little laundry detergent will not meet the cleaning requirements of the clothes.

[0003] Some existing self-suction washing machines can control the water level to improve the washing quality, but the water consumption is large, the mode is less, and it is difficult to meet the cleaning requirements in different occasions; some full-automatic washing machines can automatically put laundry detergent according to the weight of the clothes, but the amount of laundry detergent is not accurate, and the waste is serious. Although the optimized washing machine on the market solves some problems, it still has certain defects. SUMMARY

[0004] In view of the problem that the existing washing machine cannot accurately determine the amount of laundry detergent, which causes sewage pollution and resource waste, the present application is proposed.

[0005] Therefore, the present application aims to provide a laundry cleaning feedback method based on light sensing, which aims to determine the amount of water and laundry detergent by judging the turbidity of sewage, so as to solve the problem of water resource waste.

[0006] To solve the above technical problems, the present application provides the following technical scheme: a laundry cleaning feedback method based on light sensing, the specific operation steps are as follows:

[0007] S1: Soak clothes with different cleaning degrees in multiple groups for the same time;

[0008] S2: After soaking, calculate the light transmittance of the soaking sewage through the feedback device, and then determine the amount of laundry detergent;

[0009] S3: The amount of laundry detergent determines the cleaning time;

[0010] S4: After the laundry detergent is put in, start cleaning the clothes through the cleaning device according to the cleaning time;

[0011] S5: After the cleaning is completed, the light flux of the soaking sewage needs to be measured again, the clothes that meet the cleaning standard stop cleaning, and the clothes that do not meet the requirements continue to calculate the light flux, determine the cleaning time and the amount of laundry detergent, and then continue to clean until the clothes are clean.

[0012] To solve the above technical problems, the application provides the following technical solutions: a laundry cleaning feedback device based on light sensing, comprising a cleaning device, an external box and a cleaning barrel, the cleaning barrel is arranged in the external box; a measurement feedback device, comprising a water storage box, a light source and a light flux meter, the water storage box, the light source and the light flux meter are arranged in the external box, and the light source and the light flux meter are arranged at the bottom and the top of the water storage box respectively; a water drainage connecting device, comprising a first connecting end and a second connecting end, one end of the first connecting end is connected with the cleaning barrel, the other end is connected with the second connecting end, and the other end of the second connecting end is connected with the water storage box.

[0013] As a preferred scheme of the laundry cleaning feedback device based on light sensing, the top of the external box is connected with a feeding box and a control device, and the light flux meter is electrically connected with the feeding box and the control device.

[0014] As a preferred scheme of the laundry cleaning feedback device based on light sensing, the first connecting end comprises a first shell, a self-sealing piece and an auxiliary sealing piece; a drainage channel is formed in the first shell, a cross ring is connected in the drainage channel, and one end of the cross ring close to the second connecting end is fixedly connected with a sliding cylinder; the self-sealing piece comprises a blocking cover and a sliding sleeve, the blocking cover is fixedly connected in the middle of the sliding sleeve, the sliding sleeve is slidingly sleeved on the sliding cylinder, and a first spring is sleeved between the blocking cover and the cross ring; the auxiliary sealing piece comprises a movable sealing cylinder, a push plate and an auxiliary sealing ring, the push plate is connected in a circumferential and perpendicular manner at one end of the movable sealing cylinder, the other end of the movable sealing cylinder is fixedly connected with the auxiliary sealing ring, and the movable sealing cylinder is slidingly inserted into one end of the drainage channel close to the second connecting end.

[0015] As a preferred scheme of the laundry cleaning feedback device based on light sensing, the drainage channel is sequentially divided into a water inlet channel, a blocking channel, a self-sealing channel and a drainage channel, the water inlet channel, the blocking channel, the self-sealing channel and the drainage channel are communicated one by one, the self-sealing piece is located in the blocking channel, and the movable sealing cylinder is slidingly inserted into the drainage channel; a water sealing table is formed between the self-sealing channel and the drainage channel.

[0016] As a preferred scheme of the laundry cleaning feedback device based on light sensing, the movable sealing cylinder comprises a first cylinder and a second cylinder, the outer diameter of the second cylinder is smaller than that of the first cylinder, and the two ends of the second cylinder are fixedly connected with the push plate and the first cylinder respectively; a second spring is sleeved on the second cylinder, and the two ends of the second spring are connected with the water sealing table and the first cylinder respectively; a drainage groove is formed between the push plates, and one end of the push plate away from the second cylinder is in contact with the blocking cover.

[0017] As a preferred scheme of the laundry cleaning feedback device based on light sensing, the second connecting end comprises a second shell, an auxiliary pushing piece and a filtering piece, a water inlet channel is formed in the second shell, the water inlet channel is divided into a connecting channel, an accumulation channel and a dirt inlet channel in sequence, an auxiliary table is connected between the connecting channel and the accumulation channel, and a sliding hole is formed in the auxiliary table in a circumferential direction.

[0018] As a preferred scheme of the laundry cleaning feedback device based on light sensing, the auxiliary sealing ring is connected with a anti-dropping ring at one end, and a sealing gasket is connected between the anti-dropping ring and the side wall of the auxiliary sealing ring.

[0019] As a preferred scheme of the laundry cleaning feedback device based on light sensing, a containing groove is formed in the inner wall of the connecting channel, and a sliding rod is symmetrically connected in the containing groove, a fourth spring is sleeved on the sliding rod, and an anti-dropping strip is slidingly inserted into the containing groove, an inclined surface is formed at one end of the anti-dropping strip close to the first connecting end, and the other end of the anti-dropping strip is capable of abutting against the anti-dropping ring.

[0020] As a preferred scheme of the laundry cleaning feedback device based on light sensing, a second butt joint plate is further connected to the outer wall of the second connecting end close to the first connecting end, not less than one group of pressing grooves are formed in the circumferential outer wall of the second butt joint plate, a lower sliding hole is further formed at one end of the second butt joint plate close to the first connecting end, a locking column is slidingly inserted into the pressing groove, a pressing plate is fixedly connected to the outer wall of the locking column, the pressing plate is capable of being inserted into the L-shaped locking groove from the lower sliding hole, a fifth spring is further sleeved on the locking column, and the two ends of the fifth spring are respectively connected with the bottom of the pressing plate and the groove bottom of the pressing groove.

[0021] The beneficial effects of the present application are as follows:

[0022] The control device opens the control valve on the first connecting end after starting the washing, and the water storage box is filled with water from the water drainage connecting device below the washing barrel until it is full, the control device is composed of a control system and a control panel, the working main body of the measurement feedback device is a light flux meter, the light flux meter is composed of a transmitter, a receiver, a detection circuit, a light intensity sensor and an integrating sphere, the change of the optical signal is converted into the change of the electrical signal, and finally the light flux is determined, and then transmitted to the control panel in the control device, and finally the washing liquid pouring amount and the washing time are determined through the relationship among the light flux, the washing liquid pouring amount and the washing time arranged in the control device. The pouring box is controlled to open and close by the electrical signal sent by the control panel, and the washing liquid is added into the washing barrel, the light flux meter can quickly detect the change of the water quality and output the detection result in real time, the clothes cleaning state is controlled and understood in real time, the problems of sewage pollution and resource waste caused by improper pouring of washing liquid are solved, and the functions of real-time detection of clothes cleaning degree, intelligent adjustment of washing liquid usage, accurate control of washing time, energy saving and water resource saving are realized.

[0023] During the process of storing water in the water storage box, long-term use can cause dirt accumulation in the water storage box, which can reduce the transparency of the transparent water storage box, and over a long period of time, the detection accuracy of the light flux meter can be greatly reduced. Considering the cost, the water storage box needs to be disassembled and cleaned, so the water storage box and the washing barrel need to be frequently disassembled and installed, the first connecting end and the second connecting end are connected as connecting heads, which can effectively solve the problem that the water storage box and the washing barrel need to be frequently disassembled and installed, and can realize quick connection and disconnection, and collect the wool and other impurities in the soaked sewage, thereby reducing the influence of these factors on the light flux meter. BRIEF DESCRIPTION OF DRAWINGS

[0024] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the following will briefly introduce the drawings needed in the embodiment description. Obviously, the drawings in the following description are only some embodiments of the present application, and those skilled in the art can also obtain other drawings according to these drawings without creating any creative labor. Among them:

[0025] Figure 1 The whole step diagram of the laundry cleaning feedback method based on light sensing of the present application.

[0026] Figure 2 The light flux and cleaning degree relationship diagram of the laundry cleaning feedback method based on light sensing of the present application.

[0027] Figure 3 The working flow chart of the laundry cleaning feedback device based on light sensing of the present application.

[0028] Figure 4A vertical view of the laundry cleaning feedback device based on light sensing of the present application.

[0029] Figure 5 A horizontal view of the laundry cleaning feedback device based on light sensing of the present application.

[0030] Figure 6 A structure view of the hydrophobic connecting device of the laundry cleaning feedback device based on light sensing of the present application.

[0031] Figure 7 A sectional view of the hydrophobic connecting device of the laundry cleaning feedback device based on light sensing of the present application.

[0032] Figure 8 A local enlarged view of the second connecting end of the laundry cleaning feedback device based on light sensing of the present application.

[0033] Figure 9 A partial sectional view of the first connecting end of the laundry cleaning feedback device based on light sensing of the present application.

[0034] Figure 10 An external view of the first connecting end of the laundry cleaning feedback device based on light sensing of the present application.

[0035] Figure 11 A structure view of the filter of the laundry cleaning feedback device based on light sensing of the present application.

[0036] Figure 12 A structure view of the second docking plate of the laundry cleaning feedback device based on light sensing of the present application. DETAILED DESCRIPTION

[0037] In order to make the above objectives, features and advantages of the present application more clear and comprehensible, the specific embodiments of the present application will be described in detail below with reference to the accompanying drawings.

[0038] In the following description, a lot of specific details are set forth in order to provide a thorough understanding of the present application, however, the present application can be practiced in other different manners than those described herein, and those skilled in the art can make similar generalization without departing from the spirit and scope of the present application, therefore, the present application is not limited to the specific embodiments disclosed below.

[0039] Secondly, the "one embodiment" or "embodiment" referred to herein can include specific features, structures or characteristics contained in at least one implementation of the present application. The "in one embodiment" appearing in different places in the specification does not mean the same embodiment, nor is it an independent or alternative embodiment mutually exclusive with other embodiments.

[0040] Thirdly, the present application is described in detail in combination with the schematic diagram, in the detailed description of the embodiments of the present application, for the convenience of description, the cross-sectional view of the device structure will be partially enlarged without the general proportion, and the schematic diagram is only an example, which should not limit the scope of protection of the present application. In addition, the three-dimensional spatial dimensions of length, width and depth should be included in actual production.

[0041] Embodiment 1

[0042] Reference Figures 1-2 For the first embodiment of the present application, a laundry cleaning feedback method based on light sensing is provided, and the operation steps of the method are as follows:

[0043] S1: Soak a plurality of groups of clothes with different cleaning degrees for the same time.

[0044] Specifically, some dirty clothes, such as pens, oil, and stained clothes, are collected, and then divided into 11 groups according to different cleaning degrees, and the cleaning degrees are 1%, 5%, 15%, 25%, 35%, 45%, 55%, 65%, 75%, 85%, and 95%, and the mass of each group of clothes is about 1 kg.

[0045] Put each group of clothes into 11 same type of barrels respectively, and add 10 liters of water to each barrel respectively for soaking for five minutes.

[0046] Further, stir the clothes soaking water (simulate the dehydration of a washing machine), and take out 1 liter of water from each barrel as a sample detection water during stirring and put it into a transparent plastic container.

[0047] S2: After a period of soaking, the light transmittance of the soaking sewage is calculated by the measuring feedback device 200 to determine the amount of laundry detergent to be added.

[0048] Reference Figure 2 Specifically, the sample water is irradiated by an LED lamp with a power of 0.1 W, and the light flux is 9-10 Lm, and then the light flux is received by a light flux meter to measure the light flux of different cleaning degrees.

[0049] The above experiment is repeated 11 times, and the results are recorded, and according to the observation results, it is determined which light flux is most suitable for each cleaning degree, and is recorded.

[0050] Specifically, the mass of the above-mentioned 11 groups of clothes is about 1 kg, and according to the above experiment, the 11 groups of clothes with different cleaning degrees respectively represent light fluxes of 0.2 Lm, 1.3 Lm, 2.4 Lm, 3.5 Lm, 4.6 Lm, 5.7 Lm, 6.8 Lm, 7.6 Lm, 8 Lm, 8.3 Lm and 8.35 Lm.

[0051] Further, 8 groups of different amounts of laundry detergent are prepared, and the amounts are 5ml, 10ml, 15ml, 20ml, 25ml, 30ml, 35ml, and 40ml respectively. Different amounts of laundry detergent are put into clothes of each cleaning degree, for example, dirty clothes of the same cleaning degree are taken, and 5ml, 10ml, 15ml, 20ml, 25ml, 30ml, 35ml, and 40ml of laundry detergent are put into them respectively.

[0052] Preferably, the above 11 groups of clothes are put into the washing machine together with the soaking water and the laundry detergent respectively, the washing machine is set to the direct cleaning mode, and then started.

[0053] Further, after the washing is completed, all the washed clothes are dried, and then the cleaning degree of each sample is observed. According to the observation result, it is determined which amount of laundry detergent is most suitable for clothes of each cleaning degree, and recorded.

[0054] Referring to the following table: relationship table of light flux and laundry detergent amount

[0055]

[0056] Through the experimental data, it can be found that for clothes with light flux of 0-4Lm, 30ml of laundry detergent can achieve satisfactory washing effect; for clothes with light flux of 4-6Lm, 20ml of laundry detergent is enough to clean; for clothes with light flux of 6-8Lm, 15ml of laundry detergent can achieve clean effect; and for clothes with light flux greater than 8Lm, there is no need to clean.

[0057] S3: The amount of laundry detergent determines the cleaning time.

[0058] Referring to the following table: cleaning time determination table

[0059]

[0060] For light flux of 0-2Lm, 30ml of laundry detergent is put in, and the washing time is 55min; for light flux of 2-4Lm, 30ml of laundry detergent is put in, and the washing time is 45min; for light flux of 4-6Lm, 20ml of laundry detergent is put in, and the washing time is 30min; for light flux of 6-8Lm, 15ml of laundry detergent is put in, and the washing time is 15min.

[0061] S4: After the laundry detergent is put in, the clothes are cleaned by the cleaning device 100 according to the washing time.

[0062] S5: After the cleaning is completed, the light flux of the soaking sewage is measured again, the clothes that meet the cleaning standard are stopped from cleaning, and the clothes that do not meet the requirement continue to calculate the light flux, determine the washing time and the amount of laundry detergent, and continue to clean until the clothes are clean.

[0063] Embodiment 2

[0064] With reference to Figures 3-5 For the second embodiment of the present application, which is different from the first embodiment, a laundry cleaning feedback device based on light sensing is provided, which is based on the laundry cleaning feedback method based on light sensing of the above embodiment, and further comprises: a cleaning device 100 comprising an external box 101 and a cleaning barrel 102, the cleaning barrel 102 being arranged in the external box 101, the cleaning device 100 adopting an existing structure of a washing machine, and the clothes to be cleaned only need to be put into the cleaning barrel 102.

[0065] The measuring feedback device 200 comprises a water storage box 201, a light source 202 and a light flux meter 203, the water storage box 201, the light source 202 and the light flux meter 203 are all arranged in the external box 101, the light source 202 and the light flux meter 203 are arranged at the bottom and the top of the water storage box 201 respectively, the water storage box 201 is made of transparent material, and when the light source 202 irradiates upward, it can irradiate into the light flux meter 203 through the water storage box 201.

[0066] The hydrophobic connecting device 300 comprises a first connecting end 301 and a second connecting end 302, one end of the first connecting end 301 is connected with a water pipe, a control valve is installed on the water pipe, the water pipe is connected with the cleaning barrel 102, the other end is connected with the second connecting end 302, the other end of the second connecting end 302 is connected with the water storage box 201, the other end of the water storage box 201 is also connected with a sewage pipe, and a control valve is connected on the sewage pipe.

[0067] The top of the external box 101 is connected with a putting box 101a and a control device 101b, the light flux meter 203 is electrically connected with the putting box 101a and the control device 101b, the control valves on the first connecting end 301 and the second connecting end 302 are connected with the control device 101b.

[0068] Compared with embodiment 1, specifically, the water storage box 201 is opened by the control device 101b to store water in the water storage box 201 through the water drainage connection device 300 below the washing barrel 102 until the water storage box 201 is full after starting washing. The control device 101b is composed of a control system and a control panel. The light flux meter is composed of a transmitter, a receiver, a detection circuit, a light intensity sensor and an integrating sphere. The change of the optical signal is converted into the change of the electrical signal, and the light flux is finally determined. Then the light flux, the washing liquid dispensing amount and the washing time are transmitted to the control panel in the control device. Finally, the washing liquid dispensing amount and the washing time are determined. The dispensing box 101a is controlled to open and close by the electrical signal sent by the control panel. The washing liquid is added into the washing barrel 102. The light flux meter 203 can quickly detect the change of the water quality and output the detection result in real time. The clothes cleaning state is controlled and understood in real time. The problems of sewage pollution caused by improper washing liquid dispensing and resource waste are solved. The functions of real-time detection of clothes cleaning degree, intelligent adjustment of washing liquid usage, precise control of washing time, energy saving and water resource saving are realized.

[0069] In the process of storing water in the water storage box 201, long-term use will cause dirt accumulation in the water storage box 201. This will reduce the transparency of the transparent water storage box 201. In the long run, the detection accuracy of the light flux meter 203 will be greatly reduced. Considering the cost problem, the water storage box 201 needs to be disassembled and cleaned. Therefore, the water storage box 201 and the washing barrel 102 need to be frequently disassembled and installed. The first connecting end 301 and the second connecting end 302 serve as connecting heads connected to each other, which can effectively solve the problem that the water storage box 201 and the washing barrel 102 need to be frequently disassembled and installed. Rapid connection and disconnection can be realized. The wool and other impurities in the sewage are collected, and the influence of these factors on the light flux meter 203 is reduced.

[0070] The remaining structure is the same as that of embodiment 1.

[0071] Embodiment 3

[0072] Refer to Figures 1-5 This is the third embodiment of the present application. The difference between this embodiment and the second embodiment is that the washing machine adopts a vertical drum washing machine and a horizontal drum washing machine. The operation steps are as follows:

[0073] Refer to Figure 6 and Figure 7 First, the clothes are put into the washing barrel 102 and the switch is turned on. The washing barrel 102 starts to fill water. The water filling time is one minute to ensure that all the clothes are submerged in water.

[0074] Then the control valve on the first connecting end 301 opens, the water in the washing barrel 102 soaked by the clothes will enter the water storage box 201, the control valve on the second connecting end 302 closes to make the water in the water storage box 201 full, the water storage box 201 uses the size of 50*100*50mm, and other appropriate sizes can also be used.

[0075] Further, the water in the water storage box 201 is full, the light source 202 is turned on, the water storage box 201 full of water can prevent the liquid flow from affecting the detection result of the light flux meter 203, the water storage box 201 uses polyethylene terephthalate material, and other transparent materials can also be used; the light source 202 uses a 0.1W led lamp, the light flux is 9-10Lm, and other small power light sources can also be selected, but the selection of the light flux meter must be changed according to the light flux, and the light flux meter 203 selects a TEMT6000 ambient light sensor;

[0076] Further, the light flux meter 203 determines the cleaning degree of the water quality according to the measurement of light, which will be described in detail with reference to Figure 2 Finally, the amount of laundry detergent and the washing time are determined, which will be described in detail with reference to 3 and Figure 4 .

[0077] Further, the control valve on the first connecting end 301 is closed, and the control valve on the second connecting end 302 is opened, so that the water in the water storage box 201 is discharged.

[0078] Further, the laundry detergent is added according to the result, and then the washing time is determined; the control panel displays the result that the light flux received by the light flux meter 203, the light flux is 0-4Lm, the laundry detergent is 30ml, the light flux is 5-6Lm, the laundry detergent is 20ml, the light flux is 6-8Lm, and the laundry detergent is 15ml; the control panel opens the dispensing box 101a, and the laundry detergent will flow into the washing barrel 102 from the dispensing box 101a, and is closed after reaching the quantitative amount.

[0079] Further, the washing barrel 102 starts washing, after the washing is completed, the control valve on the first connecting end 301 and the control valve on the second connecting end 302 are opened at the same time, the control valve on the second connecting end 302 is closed after the washing water is completely discharged, and the washing barrel 102 is continuously injected with clean water, at this time the water in the water storage box 201 will be full, the light source 202 is turned on, and the light flux meter 203 determines the cleaning degree of the water quality according to the measurement of light.

[0080] Further, the light flux meter 203 judges the cleaning degree of the water to be above 80% (the light flux of the light flux meter is above 8 Lm), if the cleaning degree of the water reaches the requirement, the washing barrel 102 will be dehydrated; if the cleaning degree of the water does not reach the requirement, the washing barrel 102 will close the control valve on the first connecting end 301, the washing barrel 102 starts to fill water, and then restarts the cleaning according to the above steps until the cleaning degree of the water reaches the requirement.

[0081] With reference to Figure 2 When the cleaning degree is between 0-60%, the cleaning efficiency of the washing barrel 102 is very high; when the cleaning degree is between 60%-80%, the cleaning degree of the washing barrel 102 decreases; when the cleaning degree is above 80%, the cleaning efficiency of the washing barrel 102 is low. Therefore, the laundry is stopped when the cleaning degree of the water is above 80%, which not only guarantees the cleaning of the clothes, but also reduces the resource waste caused by the low efficiency when the laundry continues.

[0082] The rest of the structure is the same as that of example 2.

[0083] Example 4

[0084] With reference to Figures 1-12 For the fourth embodiment of the application, the difference between this embodiment and the third embodiment is that the first connecting end 301 includes a first shell 301a, a self-sealing piece 301b and an auxiliary sealing piece 301c; a drainage channel A is formed in the first shell 301a, and a cross ring 301a-1 is connected in the drainage channel A, and one end of the cross ring 301a-1 close to the second connecting end 302 is fixedly connected with a sliding cylinder 301a-1a.

[0085] The self-sealing piece 301b includes a blocking cover 301b-1 and a sliding sleeve 301b-2, the blocking cover 301b-1 is fixedly connected in the middle of the sliding sleeve 301b-2, and the sliding sleeve 301b-2 is slidingly sleeved outside the sliding cylinder 301a-1a, and a first spring T1 is sleeved between the blocking cover 301b-1 and the cross ring 301a-1, both ends of the first spring T1 are connected with the cross ring 301a-1 and the blocking cover 301b-1, and in the initial state, the first spring T1 pushes the self-sealing piece 301b to the end of the sliding cylinder 301a-1a.

[0086] The auxiliary sealing piece 301c includes a moving sealing cylinder 301c-1, a push plate 301c-2 and an auxiliary sealing ring 301c-3, the push plate 301c-2 is circumferentially and perpendicularly connected to one end of the moving sealing cylinder 301c-1, the other end of the moving sealing cylinder 301c-1 is fixedly connected with the auxiliary sealing ring 301c-3, and the moving sealing cylinder 301c-1 is slidingly inserted into one end of the drainage channel A close to the second connecting end 302.

[0087] The drainage channel A is sequentially divided into a water inlet channel A1, a blocking channel A2, a self-sealing channel A3 and a drainage channel A4, the water inlet channel A1, the blocking channel A2, the self-sealing channel A3 and the drainage channel A4 are sequentially communicated, the self-sealing piece 301b is located in the blocking channel A2, and the movable sealing cylinder 301c-1 is slidingly inserted into the drainage channel A4; a water sealing table 301a-2 is formed between the self-sealing channel A3 and the drainage channel A4, and the blocking cover 301b-1 in the initial state blocks the opening of the self-sealing channel A3.

[0088] The movable sealing cylinder 301c-1 comprises a first cylinder 301c-1a and a second cylinder 301c-1b, the second cylinder 301c-1b has a smaller outer diameter than the first cylinder 301c-1a, and the second cylinder 301c-1b is fixedly connected to the push plate 301c-2 and the first cylinder 301c-1a at two ends thereof; the second cylinder 301c-1b is sleeved with a second spring T2, and the second spring T2 is connected to the water sealing table 301a-2 and the first cylinder 301c-1a at two ends thereof; a drainage groove 301c-2a is formed between the push plate 301c-2, and one end of the push plate 301c-2, which is away from the second cylinder 301c-1b, is in contact with the blocking cover 301b-1.

[0089] In use, when the movable sealing cylinder 301c-1 moves into the drainage channel A4, the push plate 301c-2 pushes the blocking cover 301b-1 to move and extrudes the first spring T1 to contract, so that the opening of the self-sealing channel A3 is unblocked.

[0090] The second connecting end 302 comprises a second shell 302a, an auxiliary pushing piece 302b and a filtering piece 302c, the second shell 302a is provided with a water inlet channel B, the water inlet channel B is sequentially divided into a connecting channel B1, an accumulation channel B2 and a sewage inlet channel B3, the connecting channel B1 and the accumulation channel B2 are connected with an auxiliary table 302a-1, and the auxiliary table 302a-1 is provided with a sliding hole 302a-1a in the circumferential direction.

[0091] The auxiliary pushing piece 302b comprises a sliding insertion rod 302b-1, a hinged rod 302b-2 and a vertical spring plate 302b-3, one end of the sliding insertion rod 302b-1 is slidingly inserted into the sliding hole 302a-1a, and the other end is hingedly connected to the hinged rod 302b-2.

[0092] The vertical spring plate 302b-3 is provided with a perforation 302b-3a, one end of the perforation 302b-3a, which is away from the inner wall of the second shell 302a, is perpendicularly connected with a stabilizing column 302b-3b, the stabilizing column 302b-3b is sleeved with a third spring T3, and one side of the vertical spring plate 302b-3, which is close to the inner wall of the second shell 302a, is connected with a convex column 302b-3c.

[0093] The filter 302c comprises a connecting ring 302c-1 and a filter screen 302c-2, the connecting ring is located in the inlet channel B3, a mounting hole 302c-1a is formed in the side of the connecting ring close to the vertical elastic plate 302b-3 in a circumferential direction, the convex column 302b-3c can be inserted into the mounting hole 302c-1a in a matching mode, the filter screen 302c-2 is connected in the connecting ring 302c-1 in a sliding mode, one side of the filter screen 302c-2 is connected with a stabilizing block 302c-2a in a vertical mode, the stabilizing block 302c-2a can be sleeved on the stabilizing column 302b-3b in a sliding mode, and the end, away from the filter screen 302c-2, of the stabilizing block 302c-2a is hinged with the hinged rod 302b-2.

[0094] One end of the auxiliary sealing ring 301c-3 is connected with an anti-disengagement ring 301c-3a, and a sealing pad 301c-3b is connected to the side wall of the auxiliary sealing ring 301c-3 between the anti-disengagement ring 301c-3a and the first barrel 301c-1a.

[0095] The outer wall of the first shell 301a corresponding to the drainage channel A4 is fixedly connected with a circular-arc convex block 301a-3, and a clamping groove 301a-3a is formed in the middle of the circular-arc convex block 301a-3.

[0096] The outer wall of the first shell 301a corresponding to the self-sealing channel A3 is fixedly connected with a first butt joint plate 301a-4, and an L-shaped locking groove 301a-4a is formed in the end of the first butt joint plate 301a-4 close to the second connecting end 302 in a circumferential direction.

[0097] The inner wall of the connecting channel B1 is provided with an accommodating groove 302a-2, and symmetrical sliding rods 302a-2a are connected in the accommodating groove 302a-2, the sliding rods 302a-2a are sleeved with fourth springs T4, and an anti-disengagement strip 302a-3 is also inserted in the accommodating groove 302a-2 in a sliding mode, the end of the anti-disengagement strip 302a-3 close to the first connecting end 301 is provided with an inclined surface X, and the other end of the anti-disengagement strip 302a-3 can abut against the anti-disengagement ring 301c-3a.

[0098] The outer wall of the second connecting end 302 close to the first connecting end 301 is also connected with a second butt joint plate 302d, and not less than one group of downward pressing grooves 302d-1 are formed in the circumferential outer wall of the second butt joint plate 302d, and a downward sliding hole 302d-2 is also formed in the end of the second butt joint plate 302d close to the first connecting end 301, a locking column 302d-3 is inserted in the downward pressing groove 302d-1 in a sliding mode, a pressing plate 302d-3a is fixedly connected to the outer wall of the locking column 302d-3, the pressing plate 302d-3a can be inserted into the L-shaped locking groove 301a-4a from the downward sliding hole 302d-2 in a matching mode, the locking column 302d-3 is also sleeved with a fifth spring T5, and the two ends of the fifth spring T5 are connected with the bottom of the pressing plate 302d-3a and the groove bottom of the downward pressing groove 302d-1 respectively.

[0099] The remaining structure is the same as that of the embodiment 3.

[0100] In use, when the water storage box 201 needs to be connected with the cleaning barrel 102, the first shell 301a is inserted into the second shell 302a, in the process, the auxiliary sealing ring 301c-3 abuts against the inclined surface X, the anti-extraction strip 302a-3 is extruded by the auxiliary sealing ring 301c-3 and shrinks into the accommodating groove 302a-2 until the end faces of the first abutting plate 301a-4 and the second abutting plate 302d are completely attached.

[0101] Further, at this time, the anti-extraction strip 302a-3 is no longer extruded by the auxiliary sealing ring 301c-3 and pops out of the accommodating groove 302a-2, the end away from the inclined surface X abuts against the anti-extraction ring 301c-3a and cannot move outward any more, at the same time, the auxiliary sealing ring 301c-3 abuts against the end of the auxiliary platform 302a-1 and pushes the sliding plug rod 302b-1 to slide, the hinged rod 302b-2 hinged thereto pushes the filter screen 302c-2 to shrink and slide to the center through the stabilizing block 302c-2a, and finally blocks the opening between the accumulation channel B2 and the sewage inlet channel B3.

[0102] Further, when the end faces of the first abutting plate 301a-4 and the second abutting plate 302d are about to be attached, the locking column 302d-3 is pressed, at this time, the pressing plate 302d-3a moves downward and inserts into the horizontal end of the L-shaped locking groove 301a-4a in the first abutting plate 301a-4, then slightly rotates the second abutting plate 302d, and then releases the locking column 302d-3, at this time, the pressing plate 302d-3a moves upward under the rebounding action of the fifth spring T5 and is clamped in the vertical end of the L-shaped locking groove 301a-4a, the locking of the pressing plate 302d-3a and the L-shaped locking groove 301a-4a prevents the locking of the anti-extraction strip 302a-3 and the anti-extraction ring 301c-3a, so that the first connecting end 301 and the second connecting end 302 are completely connected.

[0103] Further, if it is desired to unlock the connection state, the locking column 302d-3 is pressed again, the pressing plate 302d-3a slides to the vertical end of the L-shaped locking groove 301a-4a, the L-shaped locking groove 301a-4a is reversely rotated, the pressing plate 302d-3a is rotated in the horizontal end of the L-shaped locking groove 301a-4a, at this time, the arc-shaped inclined surface of the circular arc protrusion 301a-3 pushes the anti-extraction strip 302a-3 upward, so that it shrinks into the accommodating groove 302a-2, when the anti-extraction strip 302a-3 is rotated to the corresponding position of the clamping groove 301a-3a, the anti-extraction strip 302a-3 is slightly inserted into the clamping groove 301a-3a, then the first shell 301a is pulled out of the second shell 302a, and the separation is completed.

[0104] It should be noted that the above examples are only used to illustrate the technical solutions of the present application but not limit the present application. Although the present application is described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present application can be modified or equivalently replaced, without departing from the spirit and scope of the technical solutions of the present application, which should be covered in the scope of the claims of the present application.

Claims

1. A light-sensing based laundry cleaning feedback device, characterized by: The utility model relates to a laundry cleaning feedback device and laundry cleaning feedback method, and belongs to the field of laundry cleaning. The laundry cleaning feedback device comprises an external box (101) and a cleaning barrel (102), the cleaning barrel (102) is arranged in the external box (101); The measuring feedback device (200) comprises a water storage box (201), a light source (202) and a light flux meter (203), the water storage box (201), the light source (202) and the light flux meter (203) are all arranged in the external box (101), and the light source (202) and the light flux meter (203) are respectively arranged at the bottom and the top of the water storage box (201); The hydrophobic connecting device (300) comprises a first connecting end (301) and a second connecting end (302), one end of the first connecting end (301) is connected with the cleaning barrel (102), the other end of the first connecting end (301) is connected with the second connecting end (302), and the other end of the second connecting end (302) is connected with the water storage box (201); The laundry cleaning feedback device realizes the following laundry cleaning feedback method, which comprises the following steps: Clothes are put into the cleaning device (100) and a switch is turned on; The cleaning device (100) is filled with water to soak the clothes; The water storage box (201) is filled with soaking water; The light source (202) is turned on, and the light flux meter (203) measures the light flux; The amount of laundry detergent is determined according to the light flux; The washing time is determined according to the amount of laundry detergent; The control panel displays the washing time; The control device cuts off the connection state of the cleaning device (100) and the water storage box (201), and the water storage box (201) is emptied; Washing of clothes is started; Washing of clothes is completed; The washing water in the cleaning device (100) is drained; Water is refilled into the cleaning device (100), and the water storage box (201) is filled; The light flux meter (203) detects the light flux; The light flux meter (203) judges the cleaning degree of water; If the cleaning degree of water reaches the requirement, the cleaning barrel (102) is dehydrated; If the cleaning degree of water does not reach the requirement, the control valve on the first connecting end (301) is closed, the cleaning barrel (102) starts to fill water, and then the above steps are restarted until the cleaning degree of water reaches the requirement.

2. The light-sensing based laundry cleaning feedback device of claim 1, wherein: The external box (101) is connected with a dispensing box (101a) and a control device (101b) at the top, and the light flux meter (203) is electrically connected with the dispensing box (101a) and the control device (101b).

3. A light-sensing based laundry cleaning feedback device according to claim 1 or 2, characterized in that: The first connecting end (301) comprises a first shell (301a), a self-sealing piece (301b) and an auxiliary sealing piece (301c); A drain channel (A) is formed in the first shell (301a), a cross ring (301a-1) is connected in the drain channel (A), and a sliding cylinder (301a-1a) is fixedly connected to one end of the cross ring (301a-1) close to the second connecting end (302). The self-sealing piece (301b) comprises a sealing cover (301b-1) and a sliding sleeve (301b-2), the sealing cover (301b-1) is fixedly connected in the middle of the sliding sleeve (301b-2), and the sliding sleeve (301b-2) is slidingly sleeved outside the sliding cylinder (301a-1a), and a first spring (T1) is further sleeved between the sealing cover (301b-1) and the cross ring (301a-1); The auxiliary sealing piece (301c) comprises a moving sealing tube (301c-1), a push plate (301c-2) and an auxiliary sealing ring (301c-3), the push plate (301c-2) is connected in a circumferential and perpendicular manner at one end of the moving sealing tube (301c-1), the other end of the moving sealing tube (301c-1) is fixedly connected with the auxiliary sealing ring (301c-3), and the moving sealing tube (301c-1) is slidingly inserted into one end of the drainage channel (A) close to the second connecting end (302).

4. The light-sensing based laundry cleaning feedback device of claim 3, wherein: The drainage channel (A) is sequentially divided into a water inlet channel (A1), a sealing channel (A2), a self-sealing channel (A3) and a drainage channel (A4), the water inlet channel (A1), the sealing channel (A2), the self-sealing channel (A3) and the drainage channel (A4) are sequentially communicated, the self-sealing piece (301b) is located in the sealing channel (A2), and the moving sealing tube (301c-1) is slidingly inserted into the drainage channel (A4); The self-sealing channel (A3) and the drainage channel (A4) form a water sealing platform (301a-2).

5. The light-sensing based laundry cleaning feedback device of claim 4, wherein: The moving sealing tube (301c-1) comprises a first tube (301c-1a) and a second tube (301c-1b), the outer diameter of the second tube (301c-1b) is smaller than that of the first tube (301c-1a), and the two ends of the second tube (301c-1b) are fixedly connected with the push plate (301c-2) and the first tube (301c-1a) respectively; the second tube (301c-1b) is sleeved with a second spring (T2), and the two ends of the second spring (T2) are connected with the water sealing platform (301a-2) and the first tube (301c-1a) respectively; The push plate (301c-2) forms a drainage groove (301c-2a), and one end of the push plate (301c-2) away from the second tube (301c-1b) is in contact with the sealing cover (301b-1).

6. A light-sensing based laundry cleaning feedback device according to claim 4 or 5, characterized in that: The second connecting end (302) comprises a second housing (302a), an auxiliary push piece (302b) and a filter piece (302c), The second housing (302a) is provided with a water inlet channel (B) therein, the water inlet channel (B) is sequentially divided into a connecting channel (B1), an accumulation channel (B2) and a pollution inlet channel (B3), the connecting channel (B1) and the accumulation channel (B2) are connected with an auxiliary platform (302a-1), and a sliding hole (302a-1a) is circumferentially formed in the auxiliary platform (302a-1); The auxiliary pushing piece (302b) comprises a sliding insertion rod (302b-1), a hinged rod (302b-2) and a vertical elastic plate (302b-3), one end of the sliding insertion rod (302b-1) is slidingly inserted into a sliding hole (302a-1a), and the other end is hinged to the hinged rod (302b-2); The vertical elastic plate (302b-3) is internally provided with a through hole (302b-3a), one end of the through hole (302b-3a) away from the inner wall of the second shell (302a) is vertically connected with a stabilizing column (302b-3b), the stabilizing column (302b-3b) is externally sleeved with a third spring (T3), and one side of the vertical elastic plate (302b-3) close to the inner wall of the second shell (302a) is connected with a convex column (302b-3c); The filter piece (302c) comprises a connecting ring (302c-1) and a filter screen (302c-2), the connecting ring is located in the pollution inlet channel (B3), a mounting hole (302c-1a) is formed in the side of the connecting ring (302c-1) close to the vertical elastic plate (302b-3) in a circumferential direction, the convex column (302b-3c) can be fitted into the mounting hole (302c-1a), the filter screen (302c-2) is slidingly connected in the connecting ring (302c-1), one side of the filter screen (302c-2) is vertically connected with a stabilizing block (302c-2a), the stabilizing block (302c-2a) can be slidingly sleeved on the stabilizing column (302b-3b), and one end of the stabilizing block (302c-2a) away from the filter screen (302c-2) is hinged to the hinged rod (302b-2).

7. The light-sensing based laundry cleaning feedback device of claim 6, wherein: One end of the auxiliary sealing ring (301c-3) is connected with an anti-dropping ring (301c-3a), and a sealing gasket (301c-3b) is connected between the side wall of the auxiliary sealing ring (301c-3) and the anti-dropping ring (301c-3a); The outer wall of the first shell (301a) corresponding to the drainage channel (A4) is fixedly connected with a circular-arc convex block (301a-3), and the circular-arc convex block (301a-3) is provided with a clamping groove (301a-3a) in the middle part; The outer wall of the first shell (301a) corresponding to the self-sealing channel (A3) is fixedly connected with a first butt joint plate (301a-4), and the first butt joint plate (301a-4) is provided with an L-shaped locking groove (301a-4a) in a circumferential direction at one end close to the second connecting end (302).

8. The light-sensing based laundry cleaning feedback device of claim 7, wherein: The inner wall of the connecting channel (B1) is provided with an accommodating groove (302a-2), and the accommodating groove (302a-2) is symmetrically connected with a sliding rod (302a-2a), the sliding rod (302a-2a) is externally sleeved with a fourth spring (T4), and the accommodating groove (302a-2) is also slidingly inserted with an anti-dropping strip (302a-3), one end of the anti-dropping strip (302a-3) close to the first connecting end (301) is provided with an inclined surface (X), and the other end can abut against the anti-dropping ring (301c-3a).

9. The light-sensing based laundry cleaning feedback device of claim 8, wherein: The second connecting end (302) is also connected with a second butt plate (302d) on the outer wall close to the first connecting end (301), a plurality of pressing grooves (302d-1) are arranged on the circumferential outer wall of the second butt plate (302d), a slide hole (302d-2) is arranged on one end of the second butt plate (302d) close to the first connecting end (301), a locking column (302d-3) is slidably inserted into the pressing groove (302d-1), a pressing plate (302d-3a) is fixedly connected to the outer wall of the locking column (302d-3), the pressing plate (302d-3a) can be inserted into the L-shaped locking groove (301a-4a) from the slide hole (302d-2), and a fifth spring (T5) is sleeved on the outer wall of the locking column (302d-3), and the two ends of the fifth spring (T5) are connected with the bottom of the pressing plate (302d-3a) and the groove bottom of the pressing groove (302d-1) respectively.

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