KR20080000414A - Automatic excretion cleaner - Google Patents

Abstract

An automatic excretion cleaner is provided to be operated conveniently, to have a simple structure and to do correctly the actions of discharging and washing excrements in a special environment in which a patient disposes of his/her excrement in a lying condition. An automatic excretion cleaner includes a toilet case(A) and a detecting unit that is attached to the toilet case and detects excrements. The toilet case includes a support plate portion(100) and a lifted portion(200). The support plate portion includes an excretion channel(101) that forms a concave recess to receive the excretion, and a discharge portion. The lifted portion has a front concave portion to receive urine. The detecting portion has a urine detecting sensor, a current forming unit and a deciding unit. The urine detecting sensor has plural electrodes installed on the bottom surface of the excretion channel to transmit and receive currents.

Description

Automatic Excretion Cleaner

1 is a block diagram of a fecal automatic washing machine (K) showing an embodiment of the present invention.

2 is an external perspective view of the toilet bowl case.

3 is a front view of the toilet seat case.

4 is a side cross-sectional view of the toilet bowl case.

5 is an exploded perspective view of the automatic fixing device.

Figure 6 is a perspective view of the internal structure of the toilet bowl case.

7 is a perspective view of the butt cleaning nozzle and feces nozzle.

8 is a perspective view of a nozzle structure for a bidet.

9 is a perspective view of an anal nozzle structure;

10 is an experimental result of measuring the current value for various water and urine that can be used as the washing water using a urine detection sensor.

11 is an exploded perspective view of a weight sensor.

12 is an enlarged view showing the structure of a weight sensor.

13 is a state in which the hose connection portion is removed from the tank cover.

14 is a state in which the hose connection portion is connected to the tank cover.

15 is an external perspective view of the upper structure of the hose connecting portion.

Figure 16 is a side view of the top structure of the hose connection.

17 is an enlarged perspective view of the tank cover.

18 is a flow chart showing a processing sequence of the automatic fecal washing machine K in the automatic feces processing.

19 is a flow chart showing a processing procedure of a stool cleaning step.

20 is a flow chart showing a processing procedure of a urine washing process.

FIG. 21 is a flow chart showing a processing sequence of a drying step. FIG.

FIG. 22 is a flow chart showing a processing sequence of the automatic fecal washing machine in the manual defecation process. FIG.

Fig. 23 is a side cross-sectional view of the toilet bowl casing disclosed in the second embodiment.

24 is a perspective view of a fecal detection sensor;

25 is a cross-sectional view of the sensor unit.

FIG. 26 is a flow chart showing a procedure of automatic defecation processing mode trial processing of the automatic defecation processing apparatus disclosed in the second embodiment; FIG.

27 is a perspective view showing the structure of a massager.

28 is an exploded perspective view showing the structure of an embedded automatic locking device.

29 is a perspective view showing a state in which the pressed portion of the embedded automatic fixing device protrudes.

30 is a perspective view showing a state in which the pressing portion of the embedded automatic locking device is pressing the human abdomen.

31 is a perspective view showing the seat belt structure.

32 is a perspective view showing a method of fixing the human body and the toilet bowl (A) using a bag, magic tape, cover.

33 is a perspective view showing the structure of a suspender;

34 is a perspective view showing the structure of the front tube;

35 is a perspective view showing the structure of the rear tube;

36 is an explanatory diagram of a flow path for discharging air for expanding the front tube and the rear tube;

Fig. 37 is a side view showing the tip portion of the inclined state when the elastic material is interpolated inside the lifting portion;

38 is a perspective view for explaining a structure separated from the support plate portion and the lifting portion for fixing the human body and the toilet bowl (A).

FIG. 39 is a side view of FIG. 34; FIG.

40 is a schematic diagram showing a state in which a level of raw water in a raw water tank is detected by an ultraviolet LED and a port transistor.

Fig. 41 is a schematic view showing a state in which raw water is sterilized in a raw water tank with an ultraviolet LED.

Fig. 42 is a perspective view showing a state in which the toilet bowl case and the couch mat are used together.

Fig. 43 is a side sectional view showing the structure of a nozzle tube for dry air;

******* Explanation of the main signs in the drawings *******

Solenoid valve installed in nozzle tube 602 for bidet

2 Solenoid valve installed in the nozzle tube 603 for anal

3) Solenoid valve installed in the butt cleaning nozzle tube 604

4 Solenoid valve installed in the stool nozzle tube 605

1 to 4 unitized valve

Solenoid valve which is combined with air supply pipe 410b by 5 air discharge pipe 414

6 Solenoid valve which is discharged by the external air supply pipe 415 for the combined use of the suction pipe 401c.

100 Support Plate Part 101 Waste Flow Furnace

102 discharge part 103 sewage inlet pipe

104 Butt cleaning nozzle 105 Stool nozzle

104, 105, 202, 203 Cleaning means 106 Light emitting part

107 Receiver 108 Receiver

109 Electrode Pin 110 Waterproof Seal

111 External Hose 112 Ventilation Cylinder

113 Front yaw part

200 Lifted 201 Dry air nozzle tube

202 nozzles for bidet 203 nozzles for anal

204 Massage 205 Automatic Locking Device

300 Sewage tank 302 Weight sensor

303 hose connection port 304 tank cover

400 suction pump 404 external air supply filter

414 Air discharge line 407a Primary odor removal filter

407b 2nd odor removal filter 408 reducing section

409 Valve 410a Air supply line

410b air supply line 410c air supply line

411 check valve 412 T-shaped pipe

413 Pressure switch 414 Air exhaust line

415 External air supply pipe

500 Sea Water Tank 501 Hot Water Tank

503 solenoid valve

600 pressure pump 601 nozzle

602 nozzle nozzle tube 603 nozzle anal nozzle tube

604 nozzle nozzle pipe for buttocks cleaning

606 Solenoid Valve Unit 607 Filter Assembly

A toilet seat B toilet seat frame

B1 support frame B2

C main body D

E Washing water supply part F device control part

G stool detection sensor urine detection sensor

G detection means I urine detection sensor

K dung automatic washer s waste storage space

The present invention provides a fecal automatic cleaning device that can treat the stool without the attendance of others without waking up or sitting in the same state, including the sleeping or awake state of the patient or the elderly in the sick life. It is to.

Conventionally, a toilet bowl device has been devised so that a toilet disposed in a lying state of a sick patient or an elderly person can be treated without attendance. For example, Japanese Patent Laid-Open No. 2006-20683 discloses a technique in which an L-shaped vortex toilet case is provided with various nozzles together with a urine detection sensor.

The above technique is to place the waist seat on the toilet seat while keeping the lifting part of the toilet bowl close to the human body when it is stool.After the toilet, the urine detection sensor detects the resistance value between electrodes. Determination of the presence of urine, and automatically flushing the washing water from various nozzles to clean the area, or to wash the inside of the toilet bowl case, the waste is discharged from the waste suction hose to the outside method It is configured to handle the urine of the patient.

However, in the conventionally disclosed treatment technology, the urine detection sensor was not able to accurately distinguish urine and washing water, and sewage sludge was placed near the urine detection sensor in order to prevent malfunction by detecting the residual water remaining in the toilet bowl case. Although the urine detection sensor is configured to detect the excess amount of water from the sewage collecting part, the countermeasures have been prepared.However, when the toilet bowl is inclined, the sewage in the urine detection sensor is leaked and detected by the urine detecting sensor. There was a problem that the malfunction could not be prevented.

The present application recognizes the necessity of an improved technology for precisely discharging and cleaning the waste while operating in a special environment where the bowel movement should be performed in a sitting or lying position. In particular, the company started with the technical problem of providing an automatic feces cleaning device that can satisfy the various requirements required by the user.

Accordingly, an object of the present invention is to provide an automatic defecation processing apparatus capable of reliably discriminating urine and washing water, preventing malfunction, and realizing accurate waste discharge and cleaning operations.

As a technical configuration for achieving the above object,

The invention described in claim 1 of the present invention is an automatic defecation processing apparatus provided by a toilet bowl case mounted to surround an excretory part of a human body and a detection means attached to an electric toilet bowl case and detecting excretion, The main case has a support plate portion for mounting the buttocks, a lifting portion connected to and installed at the rear end of the support plate portion, and the support plate portion is a concave recessed recess to receive the feces to be excreted, and excrement in the waste passage It has a discharge portion for discharging to the outside of the case, the lifting portion has a concave front portion made concave to receive the urine that is connected to the dirt flow path, the detecting means has a urine detection sensor for detecting the excreted urine, urine The detection sensor is disposed on the bottom of the dirt flow path at a predetermined interval to transmit and receive current. And a current forming means for flowing a current between the plurality of electrodes and a judging means for detecting urine by whether or not the current value flowing between the plurality of electrodes is a predetermined value. A processing apparatus is disclosed.

According to the invention of claim 2, the dirt flow passage is installed in connection with the electrical discharge portion at a more concave position than the front yaw portion, the width gradually decreases toward the discharge portion, the storage container having the discharge portion side bottom And a plurality of electrodes disposed in the waste storage space. The invention according to claim 3 has at least a portion of the plurality of electrodes exposed to the soil flow path. The present invention according to claim 4 is characterized in that gold plating is performed, and the current flowing between the plurality of electrodes in the current forming means is characterized by using an alternating current whose pole is changed, and the invention according to claim 5 The detection means has a stool detection sensor for detecting the feces to be excreted, the stool detection sensor is the plurality And a temperature detecting means integrally provided with at least one of the electrodes of the sensor, wherein the determining means detects a predetermined temperature and detects it with urine when a current value flowing between the plurality of electrodes is a predetermined value, Disclosed is an automatic defecation processing apparatus including a technical configuration such that the temperature detecting means detects a predetermined temperature and detects feces when a current value flowing between a plurality of electrodes is not the predetermined value.

Hereinafter, embodiments of the present invention will be described with reference to the accompanying drawings in order to support the technical idea having the claims, and the technical idea of the present application will be described.

BRIEF DESCRIPTION OF THE DRAWINGS It is the block diagram of this application shown as (K) the excreta automatic washing machine which concerns on embodiment of this invention.

As shown in FIG. 1, the automatic excreta cleaner K includes a toilet bowl A mounted on a patient, a body part C for sucking and accumulating excrement or sewage inside the toilet bowl case A, and a main body part. (C) and the external appearance hose 111 which connects the toilet bowl case A is included. The dirt inlet pipe 103 for suction conveying the dirt and the various nozzle pipes 602, 603, 604, and 605 for pumping the wash water are inserted into the exterior treatment hose 111.

The excreta and sewage in the toilet bowl case A are sucked and accumulated by the body part C through the dirt inflow pipe 103 by the suction mechanism of the body part C.

The structure of the toilet seat case A is demonstrated. 2 is an external perspective view of the toilet bowl case A, FIG. 3 is a front view thereof, and FIG. 4 is a side cross-sectional view thereof. As shown in Figure 2, the toilet bowl case (A) is generally formed in a shape that wraps around the waist of the human body, specifically, the toilet bowl case (A) is an abbreviated portion of the support plate 100 and the rear end thereof. It is integrally formed so as to have a '자' shape when the overall shape is viewed from the side with 200.

The support plate portion 100 has a shape that gradually becomes a narrow width toward the rear portion. Lifting unit 200 is vertically formed from the rear end of the support plate portion 100 is formed to be gradually curved forward from the middle, and the upper portion is configured to be lifted forward or tilted, so that the patient supports the plate When performing a bowel movement or the like in a sitting position or lying down on the part 100, the lifting part 200 is lifted to the front and wraps upward from the thigh to the thigh.

The upper surface of the support plate 100 has a slightly concave shape so that the waist can be placed in close contact with the waist, and a dirt flow path 101 for collecting and cleaning the excrement toward the back from the anal position when the waist is placed at the center thereof. The recess is formed to form a recess.

As shown in Fig. 3, the dirt flow path 101 has a smooth curved surface such that the bottom surface 101a and the both side surfaces 101b forming the recessed portion have a predetermined curvature and become abbreviated U-shaped in cross section. . In addition, the lifting portion 200 is concave to form a concave portion 113 to be connected to the dirt flow path 101 to receive the excrement. At the periphery of the dirt flow path 101 and the front yaw portion 113, an oval annular shape is provided to provide a waterproof seal 110 that closely contacts the waist and the human knee. Waterproof seal 110 is configured to perform a close function between the toilet bowl case (A) and the human body using a material having elasticity, such as silicone.

The toilet bowl (A) is stored in the concave position of the discharge portion 102 side than the front yaw portion 113 to the end of the dirt flow path 101 and also to the lower portion of the lifting portion 200, as shown in FIG. A space s is formed and the discharge part 102 is connected to the end of the dirt storage space s. 3 and 4, the dirt storage space s is smoothly connected and disposed so that the end of the dirt flow path 101 and the curvature thereof coincide with each other so that the flow path width is gradually decreased toward the discharge part 102 so that the discharge part 102 is discharged. A tubular space with the bottom side is formed.

The lower edges of both sides of the lifting unit 200 are formed in a shape capable of being pinched between the human knees, and the patient is placed in the posture by placing the thighs on the rear surface of the support plate unit 100 while the patient is sandwiched between the knees. The waste storage space (s) is formed in the space from the anal to the lower discharge portion (102) of the lifting portion (200), and the waste storage space (s) is the front yaw portion (s) from the waste flow path (101). Since it is blocked by the waterproof seal 110 over 113, a space of a completely sealed state is formed between the human body.

Since the toilet bowl (A) is provided with a dirt flow path (101) at a position just below the anus of the human body, it is possible to secure a sufficient space to cope with a large amount of waste, and the toilet bowl (A) has a discharge part ( Since the dirt storage space (s) is provided until reaching 102, the cleaning effect in the toilet bowl case (A) can be improved by a cleaning process for cleaning each part of the human body or the inside of the toilet bowl case (A). The effect of the dirt storage space s in the following will be described later.

As shown in FIG. 5, the lifting unit 200 is detachably equipped with an automatic fixing device 205 for fixing the human body and the toilet bowl case A to the tip portion 200a. As shown in FIG. 2 or FIG. 5, the automatic fixing device 205 presses the excretory cover 205a for fastening the automatic fixing device 205 to the tip portion 200a and the abdomen of the human body and the toilet bowl case A. And a spring 205b for adjusting the pushing degree of the human body by the pressed portion 205c. The automatic fixing device 205 can be assembled by fitting the pressing portion 205c to the excretion cover 205a via a spring 205b. The automatic fixing device 205 is fixed by inserting the excretion hole 205d provided in the excretion cover 205a into the tip portion 200a. In order for the patient to wear the toilet bowl A, the pressing part 205c moves up and down in the direction of the arrow shown in the drawing based on the elastic force of the spring 205b. Automatic fixation is possible, and the pressing portion 205c is provided from a material having good feel and cushioning properties, for example, a material such as urethane.

The internal structure of the toilet bowl case A is explained in full detail. Fig. 6 is a detailed view showing the internal structure of the toilet bowl case A. The toilet bowl case A has a support frame B1 having an outline-shaped edge portion as shown in FIG. A vortex toilet frame B as a frame constituted by the frame B2 is provided therein. The support frame B1 has a predetermined stiffness so that the toilet bowl case A is not distorted by the weight of the patient, and the vertical frame B2 is vortexed by the inclined rotation of the lifting unit 200 (see FIG. 4). The sealing state between the base case A and the human body collapses, and thus has a predetermined rigidity so as to prevent inconvenience of leaking of excrement or washing water therein.

In the vortex bowl frame B, various nozzles 104, 105, 202, and 203 for spraying washing water are disposed at respective positions to clean respective parts of the human body. In addition, the toilet bowl (B) detects the stool, such as the feces discharged in the dirt flow path 101 to detect the stool, and the subsequent electrical control mechanism is intervened for various control operations, for example, the various nozzles ( Various sensors 106, 107, 108, and 109 are arranged at the respective positions for effecting the injection of the washing water from the 104, 105, 202, and 203, the discharge of the dirt, and the like.

In this way, the toilet bowl case A is subjected to processing after viewing the various toilet nozzles 104, 105, 202, 203, various sensors 106, 107, 108, 109, and other automatic feces on the toilet bowl frame B. After disposing the necessary electrical members and the like, the cover member is covered by a method of blowing and foaming a case material such as urethane to form an external appearance. In addition, the various nozzles 104, 105, 202, 203, various sensors 106, 107, 108, 109, and the like covered by the toilet bowl case A are configured to be exposed inside the toilet bowl case A. The details of the various sensors 106, 107, 108, and 109 will be described later. First, the various nozzles 104, 105, 202, and 203 will be described in detail.

As shown in FIG. 4, the toilet bowl case A includes an anal nozzle 203 disposed at the lower end of the bottom surface of the front yaw portion 113 and an anal nozzle at the bottom of the front yaw portion 113. A bidet nozzle 202 disposed above the position 203 is provided. In addition, the toilet bowl (A) is disposed at the end opposite to the discharge portion 102 of the feces nozzle 105 and the dirt passage 101 disposed at the end opposite to the discharge portion 102 of the dirt flow path 101. It has the buttocks cleaning nozzle 104 arrange | positioned at the position higher than the stool nozzle 105 to apply. As shown in FIG. 1, the various nozzles 104, 105, 202, and 203 each have a buttock cleaning nozzle tube 604, a stool nozzle tube 605, a bidet nozzle tube 602, and an anal nozzle tube 603. Is connected. Various nozzles 104, 105, 202, and 203 are configured such that the washing water is supplied from the main body portion C through the nozzle pipes 604, 605, 602, and 603, respectively.

As shown in FIG. 7, the buttock cleaning nozzle 104 is a nozzle for cleaning the excrement attached to the hip part of the patient with the washing water as the spraying range. The buttock cleaning nozzle 104 has a plurality of buttock spraying holes 104 a so that the spraying direction thereof is directed to the buttocks of the patient, so that a wider range of cleaning can be performed. It is excreted in the shape with curvature. The butt-cleaning jetting hole 104a is configured to gradually increase the diameter of the jetting hole toward the center in order to maximize the jetting pressure of the washing water sprayed on the central part of the buttocks of the patient with the most feces adhering thereto. In addition, the flow rate of the washing water injected from the buttock cleaning nozzle 104 is set to 4.68 l / min, and the average flow rate is 0.02 m / s.

The stool nozzle 105 is a process for causing the stool to flow from the dirt flow path 101 toward the discharge part 102 while mainly crushing the stool finely by the injection water pressure of the washing water (hereinafter referred to as stool grinding process). Is a nozzle for performing. The feces nozzle 105 is disposed on the bottom surface side of the lower dirt passage 101 of the nozzle 104. The feces nozzle 105 has a plurality of fecal crushing injection holes 105a such that the ejection direction is directed to the bottom surface of the dirt flow path 101 and directly below the anus of the human body where feces are most likely to collect. In order to maximize the injection pressure of the washing water sprayed toward the center of the dirt flow path 101, which is the point where feces are most likely to collect as the spraying range, the stool crushing injection hole 105a gradually increases the diameter of the injection hole toward the center. Consists of. In a related configuration, the stool deposited in the center of the dirt flow path 101 is first crushed to secure a flow path in which the washing water flows toward the discharge part 102. Therefore, the feces accumulated at the initial stage of starting the injection of the washing water from the feces nozzle 105 prevents the flow of the washing water, thereby preventing the washing water from overflowing from the dirt flow path 101. The flow rate of the washing water injected from the feces nozzle 105 is set to be 4.8 l / min, and the average flow rate is 0.013 m / s. In addition, the stool nozzle 105 communicates with a pressurized pump 600 to be described later, and sprays hot water from the hot water tank 501 as washing water of 3 L per minute and a water pressure of 1 kgf / cm 2 per minute from the stool nozzle 105. It is configured to do so.

The feces nozzle 105 is provided with a sensor cleaning hole 105b above the butt cleaning injection hole 104a above the feces crushing injection hole 105a. As shown in FIG. 4, the sensor cleaning hole 105b is configured such that its spraying direction is directed to the light receiving portion 107 of the infrared sensor described later disposed near the discharge portion 102. According to the constitution, the sensor cleaning hole 105b, in addition to the stool crushing process and finishes the stool crushing process, sprays the washing water onto the light receiving portion 107 disposed at the opposite position, and washes the surface thereof. It is possible to prevent the malfunction of the sensor.

The nozzle 202 for a bidet shown in FIG. 8 is a nozzle for cleaning the excretion of the human body as a main injection range, and is narrow and long so that it can wash | clean a pussy irrespective of a gender difference and a body shape. It is shaped. The bidet nozzle 202 has a plurality of bidet ejection holes 202a so that its ejection direction is directed to the patient's pussy. The bidet jetting hole 202a has a smaller hole diameter and a larger number of holes than the buttock jetting hole 104a of the buttock cleaning nozzle 104 and the fecal crushing jetting hole 105a of the feces nozzle 105. It consists. While performing a wide range of washings in the related constitution, the injection pressure of the washing water can be appropriately suppressed, and the washing can be performed smoothly on the particularly delicate part of the human body. The bidet nozzle 202 has a plurality of urine treatment injection holes 202b so as to surround the entire side portion in order to wash the urine scattering in the toilet bowl A. The flow rate of the washing water sprayed from the bidet nozzle 202 is set to 4.68 l / min, and the average flow rate is 0.010 m / s.

As shown in Fig. 9, the anal nozzle 203 is a nozzle for cleaning the excrement attached to the anus and the anus periphery of the patient as the spraying range, and the anus through the plurality of anal center spraying holes 203a disposed at the center thereof. It has the some anal periphery injection hole 203b arrange | positioned at the both sides of the center injection hole 203a. The anal central injection hole 203a is configured such that its spraying direction is directed to the patient's anus, and the anal peripheral spraying hole 203b is configured so that its spraying direction is directed to the periphery of the anus. The hole diameter of the anal central injection hole 203a is larger than that of the anal periphery injection hole 203b, while the hole diameter of the anal central injection hole 203a is substantially the same as the hole diameter of the stool crushing injection hole 105a and the buttock cleaning injection hole 104a. Consists of. In this configuration, it is possible to increase the injection pressure of the washing water sprayed from the anal central injection hole 203a and to wash deep into the anus of the human body. On the other hand, the injection pressure of the washing water sprayed from the anal periphery injection hole 203b can be appropriately suppressed, and the human body, among the delicate anal peripheries, can be gently washed. The flow rate of the washing water sprayed from the anal nozzle 203 is set to 4.08 l / min, and the average flow rate is 0.019 m / s.

In addition, in order to enable more effective washing | cleaning, you may employ | adopt an orifice structure with respect to the stool grinding injection hole 105a and the anal center injection hole 203a. The orifice structure makes it possible to widen the spray range of the washing water and to wash a wide range of the human body while suppressing the amount of washing water.

In addition, the various nozzles 104, 105, 202, and 203 described above are configured to supply not only washing water but air through the various nozzle tubes 602, 603, 604, and 605 rather than the main body portion C. . That is, after washing each part of a patient with wash water, it is made to dry by blowing air. As shown in FIG. 4, when air is supplied from the various nozzles 104, 105, 202, and 203 into the toilet bowl A, the air vent 112 is used to direct the air from the toilet bowl case A to the outside air. ) Is drilled at a predetermined position of the lifting unit 200.

The configuration of the various sensors 106, 107, 108, and 109 will be described. As shown in FIG. 4, the light emitting part 106 of the infrared sensor is disposed at the end of the toilet bowl A opposite to the dirt flow path 101 and the discharge part 102, and the front edge of the discharge part 102 is disposed. The light receiving unit 107 of the infrared sensor is disposed above, and the receiving unit 108 of the infrared sensor is disposed adjacent to the light emitting unit 106. These light emitting unit 106, light receiving unit 107, and receiving unit 108 function as a stool detection sensor G that detects the feces in the dirt flow path 101. In the toilet bowl case (A), a urine detection sensor (H) for detecting urine is disposed at the bottom of the dirt storage space (s).

The feces detecting sensor G is provided between the light receiving portion 107, that is, the dirt flow path 101, to the light emitting portion 106 based on whether or not the infrared rays transmitted by the light emitting portion 106 are received by the opposing light receiving portion 107. ), The light receiving portion 107 is disposed on the upper portion of the discharge portion 102, which is hard to reach the surrounding light, in order to prevent malfunction due to the ambient light other than infrared rays.

Here, when the patient uses the toilet bowl case A on a cushion-high bed, the toilet bowl case A may be crushed due to being pressed by the patient's own weight, and may cause inclination in the dirt flow path 101. In such a case, the cleaning in the toilet bowl case A and the suction of the excreta are insufficient, so that the light emitting unit 106 sinks in the cleaning water remaining in the dirt flow path 101 so that infrared rays do not reach the light receiving unit 107. As a result, the stool detection sensor G is in the same state as when the stool is detected, and the toilet bowl case A malfunctions.

In order to prevent this malfunction, the stool detection sensor G is equipped with the receiver 108 for detecting the inclination of the vortex toilet case A in the vicinity of the light emission part 106, as shown in FIG. The receiving unit 108 is disposed so as to be adjacent to each other in the light emitting unit 106 so that the infrared rays transmitted from the light emitting unit 106 to the side can be detected, but when the light emitting unit 106 and the receiving unit 108 are submerged, they are infrared rays. Can not be detected.

Therefore, the stool detection sensor G sinks in the wash water remaining in the dirt flow path 101 so that the light receiving unit 106 does not receive infrared rays when both the light receiving unit 107 and the receiving unit 108 do not receive infrared rays. In (A), a configuration capable of detecting that a tilt is occurring is achieved. When the feces detecting sensor G detects that the inclination is occurring in the vortex toilet case A, it shows an error display with respect to the display part not shown in the main body part C, and the main body part C shows all Stop the function. In addition, when the situation where the toilet seat case A cannot be tilted or the like, the feces detection may be performed only by the light emitting unit 106 and the light receiving unit 107 without providing the receiving unit 108.

Moreover, as shown in FIG. 4, the urine detection sensor H is equipped with the pair of electrode pin 109 arrange | positioned so that it may mutually neighbor before and after. In addition, the electrode pin 109 is connected to the main body portion C via a conductive wire (not shown), and is set so that a weak current flows to either of the electrode pins 109 from the main body portion C. . The urine detection sensor H is configured to detect a current value when the washing water or urine flows as a conductor by a weak current applied between the electrode pins 109.

Here, in general, there is a difference in electrical conductivity so that there is a difference in salinity between the washing water and urine, and the current value detected by the urine detection sensor H becomes a different value from the washing water and urine. FIG. 10 (a) is an experimental result of measuring a current value for various types of water which can be used as washing water using a urine detection sensor (H), and FIG. 10 (b) shows an arbitrarily selected subject (A) to (E). This is an experimental result of measuring the current value in urine. In addition, the urine sensor value is the current value converted into a voltage value using an A / D converter. For example, in FIG. 10 (b), "urine (A)" shows the result of measuring the urine of the subject (A).

As can be clearly seen from Fig. 10, urine has a high salinity compared with water, and it is confirmed that there is a large difference in the urine sensor values of both in response to the difference in salinity. Therefore, the urine detection sensor H detects the current value between the electrode pins 109 and, for example, makes it possible to reliably discriminate the washing water and urine by using a limit value of 2.0 V for the urine sensor value.

In addition, the electrode pin 109 is gold-plated on the surface in order to prevent corrosion, and it is comprised so that the + pin and-pole of an applied voltage may be crossed to the electrode pin 109 mentioned above. By the relational structure, only one of the electrode pins 109 is oxidized and corroded, or foreign matter adheres, thereby preventing inconvenience of deterioration in detection accuracy.

When the patient sees the stool or urinates by this configuration, the stool case A detects the stool and / or urine by the stool sensor G and / or the urine sensor H, and transmits the detection signal to the main body. The main body portion C, which has been sent to (C) and received the detection signal, supplies the washing water to the various nozzle tubes 602, 603, 604, and 605 to each of the various nozzles 104, 105, 202, and 203. The washing water is sprayed into the toilet bowl (A). This cleans the buttocks, genitals and anus of the patient, while causing feces and / or urine to flow into the outlet 102. After completing the cleaning process for cleaning each part of the patient and the inside of the toilet bowl A in this manner, the main body portion C sucks the washing water remaining in the various nozzle tubes 602, 603, 604, and 605. The water is removed to supply air to the various nozzle tubes 602, 603, 604, and 605 to dry the hips, pussy, and anus of the patient.

The main body portion C will be described. As shown in Fig. 1, the main body portion C sees feces from the excrement receiving portion D and the toilet bowl A for receiving the dirt of the toilet bowl case A or receives a detection signal of urination thereafter. The apparatus control part F which performs various operations, such as a washing | cleaning operation | movement, and the washing | cleaning water supply part E which supplies washing | cleaning water to the toilet bowl case A is provided.

The excrement receiving portion D has a waste water storage tank 300, and the waste water storage tank 300 is connected to the discharge portion 102 of the toilet bowl case A through the waste water inflow pipe 103. The waste storage tank 300 is configured to be removed from the main body portion C in order to discard the waste therein. As shown in FIG. 11 or FIG. 12, a weight sensor 302 for detecting the weight of the dirt stored in the dirt storage tank 300 is disposed near the bottom of the dirt storage tank 300. When dirt of a predetermined weight (for example, 8 kg) collects in the tank 300, a signal for informing the replacement time is transmitted to the device control unit F, which is not shown at a predetermined location of the device control unit F. The purpose of notifying the replacement time of discarding the dirt in the waste accommodation tank 300 is displayed on the display unit.

As shown in FIG. 11, the weight sensor 302 is placed on the fixed body 302e so that the weight sensor 302 is exposed to a case (not shown) of the main body portion C, and placed thereon. Since the cap 302c is covered with the spring 302b is inserted into the fixing body 302e by covering it with the sensor cover 302a can be assembled. The weight sensor 302 is a spring 302b that expands and contracts in response to the weight of the waste water tank 300. The sensor cover 302a is configured to move up and down with respect to the fixed body 302e. As shown in FIG. 12, the weight sensor 302 is configured such that the soil storage tank 300 is connected to the sensor cover 302a by fitting the sensor recess 300a disposed at the bottom of the waste storage tank 300 to the sensor cover 302a. It is comprised so that it may be mounted on the cover 302a. The sensor yaw portion 300a and the sensor cover 302a are fitted only when the waste water storage tank 300 occupies a predetermined direction position in the case (not shown) of the main body portion C.

The port reflector 302d has a light emitting part and a light receiving part to detect a distance to the rear surface of the sensor cover 302a based on the light intensity detected by the light receiving part, and the weight sensor 302 is a sensor detected by the port reflector 302d. The weight of the dirt storage tank 300 is detected based on the distance to the cover 302a.

As shown in FIGS. 13 to 17, at the upper outlet of the waste water storage tank 300, a tank cover 304 for securing a sealed state of the waste water storage tank 300 is detachably disposed by screwing. The tank cover 304 has an elliptical opening (not shown) that opens and closes as described later. The tank cover 304 is connected to the waste inlet pipe 103 by the waste storage tank 300, and in connection with the opening of the tank cover 304, it also serves as a stopper of the waste storage tank 300 and forms the shape of the opening. The elliptical hose connecting portion 303 corresponding to the detachable portion is detachably provided. As described above, the waste water tank 300 and the case of the main body portion C not shown, the opening of the tank lid 304, and the hose connecting portion 303 each have a predetermined directionality in the connection thereof. If not connected after satisfying the predetermined directionality of these, they are not combined well. Therefore, when these are not combined satisfactorily, it is comprised so that the sealed state in the waste water storage tank 300 may not be ensured by the tank cover 304 being loosened with respect to the waste water storage tank 300, and the like.

The upper portion of the tank cover 304 is provided with a fixing metal fittings 310 for fixing the hose connecting portion 303 to the tank cover 304. Both ends of the fixing bracket 310 are freely disposed on the tank cover 304 so that the fixing bracket 310 is raised while the hose connecting part 303 is connected to the tank cover 304 to raise the upper portion of the hose connecting part 303. The tank cover 304 is configured to be fixed by being pressed.

As shown in FIG. 15, a case 307 is disposed above the hose connecting portion 303, and a pair of electrode pins 308 are fixedly supported at predetermined intervals in the case 307. The electrode pin 308 is connected to a pair of signal lines 309, which are connected to a control circuit (not shown) in the main body portion C. From this control circuit, either of the signal lines 309 can be connected. It is set to let a current flow through. The electrode pin 308 mounts the tank cover 304 to the waste water tank 300, mounts the hose connection 303 to the tank cover 304, and contacts the fixing metal fitting 310 causing the fixing metal fitting 310. It is configured to. In this state, electricity flows through the fixing bracket 310 between the electrode pins 308, and the control circuit in the main body portion C detects the current caused by the energization, so that the tank cover 304 and the hose connecting portion ( 303) is detected. If the connection between the tank cover 304 and the hose connecting portion 303 is bad, and the sealed state in the waste water tank 300 is not secured, the energization described above is not detected and the main body portion C stops all functions. Then, an error display is made on a display portion of the main body portion C, not shown. Therefore, it is possible to prevent the main body portion C from malfunctioning in a state where the waste water storage tank 300 is not attached to the excrement accommodation portion D. FIG.

As shown in FIG. 13, on the inner side of the waste water tank 300 of the tank cover 304, a pair of inner lids 305 may be provided, and the pair of inner lids 305 may include a hose connecting portion 303. It is comprised so that the opening part of the tank cover 304 can be automatically closed from the inside of the waste water storage tank 300 when it separates from the tank cover 304. That is, as shown in FIG. 13, the inner lid 305 is provided with a pushing force in the closing direction by the spring 306, and the inner lid 305 is the spring 306 when the hose connecting portion 303 is removed. The opening of the tank cover 304 is closed from the inside of the waste water tank 300 by the pushing force of the. On the other hand, as shown in Fig. 14, the inner lid 305 is opened in the lower vertical state in a state where the hose connecting portion 303 is inserted into the tank cover 304 and connected. According to the related structure, when removing the dirt storage tank 300 from the main-body part C and discarding the dirt inside, even if the hose connection part 303 is removed from the dirt storage tank 300, the opening part of the tank cover 304 may be removed. Since it is automatically closed by the inner lid 305, the odor or dirt itself in the waste storage tank 300 does not leak to the outside, it is possible to safely transport the waste water tank 300. After removing the waste storage tank 300 to a predetermined place, the tank cover 304 is removed so that the waste is discarded from the outlet of the upper portion of the waste storage tank 300.

In addition, as shown in FIG. 15, a suction pipe 401a is connected to the hose connecting portion 303 so as to be adjacent to the dirt inflow pipe 103. As shown in FIG. 1, the waste accommodation tank 300 is connected to the apparatus control part F via the suction pipe 401a. The inside of the waste accommodation tank 300 is the device control unit (F) to be described later through the suction pipe 401a by the operation of the suction pump 400, the air is sucked in and a negative pressure is formed, the dirt inflow pipe 103 The dirt can be sucked from the toilet bowl case (A).

As shown in FIG. 1, the washing water supply unit E includes a hot water tank 500 for supplying raw water as washing water and a hot water tank 501 for heating the washing water supplied in the toilet bowl A to a predetermined temperature; The solenoid valve 503 which controls the water supply from the raw water tank 500 to the hot water tank 501 is provided. The hot water tank 501 is a tubular heater 502 for heating the raw water supplied through the solenoid valve 503 from the raw water tank 500, a water level sensor 505 for detecting the water level, and a temperature sensor for detecting the water temperature 506 equipped.

When the washing water supply unit E detects that the water level in the hot water tank 501 requires water supply by the water level sensor 505, the solenoid valve 503 is opened to the hot water tank 501 from the raw water tank 500. When a predetermined amount of raw water is supplied and the water level sensor 505 detects that the hot water tank 501 is filled with raw water and reaches a predetermined level, the solenoid valve 503 is closed based on the detection signal of the water level sensor 505. Shut off the raw water supply.

The washing water supply unit E detects the temperature of the raw water in the hot water tank 501 with the temperature sensor 506, and maintains the related raw water at the temperature set by the patient through a temperature control circuit (not shown). Heat to 502 to make hot water. In order to carry out the cleaning step of sending hot water in the hot water tank 501 into the toilet bowl A with the washing water, the patient is always supplied with the washing water at an appropriate temperature, so that the patient can obtain a good use state. The outlet disposed at the bottom side of the hot water tank 501 is connected to the apparatus control unit F through the water supply pipe 504a, and the washing water heated in the hot water tank 501 through the water supply pipe 504a is connected to the device control unit ( F) is supplied. In addition, instead of the solenoid valve 503, a float valve or the like may be used to adjust the raw water supply from the raw water tank 500 to the hot water tank 501 by mechanical operation.

As described above, the apparatus control unit F is connected via the excrement accommodation unit D and the suction pipe 401a, and is connected via the washing water supply unit E and the water supply pipe 504a. In the apparatus control unit F, the intake pipe 401a includes an intake valve 409 as a valve, a vacuum tank 408 as a pressure reducing unit, a suction pipe 401b, a primary odor removal filter 407a, and a pressure switch 413. The intake pipe 401c is connected to the intake port 402 of the intake pump 400 via the intake pipe 401c, the NO port of the solenoid valve 6, the COM port of the solenoid valve 6, and the intake pipe 401d. In addition, the exhaust port 405 of the suction pump 400 is connected to the COM port of the solenoid valve 5, and the NO port of the solenoid valve 5 is connected to the secondary odor removing filter 407b through the air discharge pipe 414. It is.

Looking at the cleaning process, after detecting the dirt by the various sensors (G, H), the step of removing the odor due to the dirt in the toilet bowl case (A), specifically, the waste storage tank (300) In the air is sucked by the operation of the suction pump 400 and the negative pressure is maintained, and the air flows from the inside of the toilet bowl A toward the dirt inflow pipe 103, the dirt storage tank 300, and the suction pump 400. Flows, the air is accompanied by the odor of dirt in the toilet bowl (A), but the odor is prevented by the primary odor removal filter 407a in preparation for the waste storage tank 300 and the suction pump 400 Removed. As the odor is removed by the primary odor removal filter 407a and the corrosive gas is also removed, the corrosion of the suction pump 400 can be prevented.

In addition, the air flowing from the exhaust port 405 of the suction pump 400 toward the secondary odor removing filter 407b is discharged to the outside after the odor is further removed by the secondary odor removing filter 407b. When the air is discharged to the outside, the secondary odor removal filter 407b can be completely prevented from leaking outside of the odor, and the odor removal effect is longer than when the primary odor removal filter 407a is provided. You can keep on.

On the other hand, the water supply pipe 504a includes a filter 507, a water supply pipe 504b, a pressurized pump 600, a water supply pipe 504c, a T-shaped pipe 412, a nozzle pipe 601, various solenoid valves 1, 2, 3, 4 and various nozzle tubes 602, 603, 604, and 605 are connected to various nozzles 104, 105, 202, and 203 in the toilet bowl A. That is, by pressing the washing water supplied from the washing water supply unit E by the pressure pump 600, the washing water can be sprayed from the various nozzles 104, 105, 202, and 203 into the toilet bowl A. It becomes a composition. The filter 507 is for removing the foreign matter mixed in the washing water so that foreign matter does not flow into the pressure pump 600.

In the cleaning step, the stool pulverizing process described above is executed after the step of removing odor due to dirt in the toilet bowl A. Specifically, the suction pump 400 is operated to open the solenoid valve 4 while maintaining the suction in the toilet bowl A, and the pressurized pump 600 is operated to inject the washing water by the feces nozzle 105. Fecal grinding is performed. The feces crushed by the feces crushing process are pushed toward the discharge part 102 together with the washing water, and a part thereof is sucked and accommodated in the waste water storage tank 300 through the dirt inflow pipe 103.

However, the suction force of the suction pump 400 alone makes it difficult to completely suction and hold the dirt in the toilet bowl A in the waste storage tank 300. In this embodiment, the waste pump 400 is the suction pump 400. The vacuum tank 408 for increasing the suction force of the suction pump 400 and forming a vacuum state in the vacuum tank 408 between the vacuum pump 408 and the vacuum tank 408 generates a stronger negative pressure to remove dirt in the toilet bowl case A. A configuration capable of sucking efficiently can be achieved.

Specifically, by closing the intake valve 409 in the state in which the suction pump 400 is operated, the suction of the dirt from the toilet bowl A to the waste water storage tank 300 is stopped and the suction of the suction pump 400 is continued. To form a vacuum in the vacuum tank 408. In the meantime, the stool finely crushed by the stool crushing process in the toilet bowl A is pushed into the dirt storage space s by the water pressure of the washing water, but since the intake valve 409 is closed, the discharge part 102 ) Is not sucked into the waste inflow pipe (103). Therefore, the flow of the washing water including the stool to the dirt storage space s is blocked, causing a vortex flow such that the washing water including the stool turns up and down (hereinafter, referred to as a vortex phenomenon). Due to the vortex phenomenon, the stool is further finely crushed and sufficiently mixed with the washing water, and at the same time, the vicinity of the discharge part 102 where dirt is easily adhered in the vortex bowl case A is sufficiently washed.

Thereafter, the internal pressure of the vacuum tank 408 is detected by the pressure switch 413 disposed between the vacuum tank 408 with the suction pump 400, and at the moment when the internal pressure reaches the maximum vacuum pressure, the intake air Open the valve (409). At this moment, due to the maximum vacuum pressure formed in the vacuum tank 408, the stool sufficiently mixed with the washing water due to the vortex phenomenon is sucked into the waste water tank 300 from the discharge part 102 via the waste water inlet tube 103 at once. Will be accepted. In addition, since moisture accumulates in the vacuum tank 408 due to prolonged use, a stopper (not shown) is disposed at the lower part of the vacuum tank 408 so that the drainage in the vacuum tank 408 can be drained. Doing.

As described above, the excrement automatic washing machine K is configured to inject air from various nozzles 104, 105, 202, and 203 to dry the human body after completion of the washing process. Specifically, the exhaust port 405 of the suction pump 400 is connected to the COM port of the solenoid valve 5, the NC port of the solenoid valve 5 is the air supply pipe 410b, check valve 411, air supply pipe 410c, T-shaped Through the pipe 412, the nozzle pipe 601, various solenoid valves 1, 2, 3, 4, various nozzle pipes 602, 603, 604, 605, various nozzles 104, 105, 202 and 203, respectively.

On the other hand, the inlet port 402 side of the suction pump 400 may be provided with an external air supply filter 404 and the external air supply filter 404 is connected to the NC port of the solenoid valve 6 via the external air supply pipe 415. The COM port of the solenoid valve 6 is connected to the inlet port 402.

For the drying process, air is drawn from the external air supply filter 404 by operating the suction pump 400 with the NC ports and solenoid valves 411 of the solenoid valves 2 and 3 and the solenoid valves 5 and 6 open. The filtered air is delivered as dry air into the toilet bowl case (A). Therefore, the air received from the external air supply filter 404 can be discharged from the buttock cleaning nozzle 104 and the anal nozzle 203 as dry air and dried in the human body and the toilet bowl A. . Air delivered in the toilet bowl case (A) is exhausted from the ventilator 112 to the outside of the toilet bowl case (A). In addition, since the check valve 411 is closed at the washing step, the washing water does not flow back to the suction pump 400.

In addition, with respect to the apparatus control unit F, the solenoid valves 1, 2, 3, and 4 are united into one unit to form a solenoid valve unit 606 which forms a pipe at one inlet and four outlets. The solenoid valve unit 606 is configured to be able to selectively open and close sequentially through a control circuit not shown in the four outlets. According to the related configuration, the pipe configuration can be simplified, the number of parts can be reduced, and the assemblability can be improved.

In addition, the solenoid valves 5 and 6, the external air supply filter 404, the primary odor removal filter 407a, the secondary odor removal filter 407b, and the pressure switch 413 are united into one unit to provide a filter assembly 607. It consists. The related configuration can simplify the formation of the conduit, reduce the number of parts, improve the assembly, and facilitate replacement of the various filters 404, 407a, and 407b.

The embodiment of the present invention is configured as described above and describes the flow of procedures and functions in the case of actually using.

The feces automatic washing machine (K) determines the feces and urine by the detection of the various sensors (G and H), and performs the manual defecation processing mode which performs each washing process automatically and when there is an operation instruction of a patient. It has a bowel movement mode.

FIG. 18 is a flow chart showing a processing procedure of the excreta automatic washing machine K in the automatic defecation processing mode. As shown in Fig. 18, when the main body power is turned on by the operation of a power switch (not shown), whether or not urine is present in the dirt flow path 101 based on the detection value of the urine detection sensor H. (Step Sa1).

When urine does not exist as a result of this determination (step Sa1: NO), the excrement automatic washing machine K judges whether feces exist in the dirt flow path 101 based on the detection value of the feces detection sensor G ( Step Sa2). If the feces do not exist as a result of this determination (step Sa2: NO), the excreta automatic washing machine K returns the processing sequence to step Sa1 again to determine whether urine exists. On the other hand, when feces are present (step Sa2: YES), that is, when only the feces are present in the dirt flow path 101, the excreta automatic washing machine K performs the feces washing process (step Sa4).

In addition, when urine exists in step Sa1 (step Sa1: YES), the excreta automatic washing machine K determines whether feces exist in the dirt flow path 101 (step Sa3). As a result of this determination, when feces are present (step Sa3: YES), that is, when urine and feces are present in the dirt flow path 101, the excreta automatic washing machine K executes a feces cleaning process for treating feces (step Sa4). ).

On the other hand, the excreta automatic washing machine K carries out a urine washing step of processing urine when there is no feces (step Sa3: NO), that is, when only urine is present in the dirt flow path 101 (step Sa5). .

After completion of the feces washing step (step Sa4) or the urine washing step (step Sa5), the excreta automatic washing machine K executes a drying step for drying the human body and the toilet bowl case A (step Sa6).

Fig. 19 shows a flow chart showing the processing procedure of the feces washing process, and the excrement automatic washing machine K shows various types of solenoid valves 1, 2, 3, and 4 with the NC photos of the solenoid valves 5 and 6 with respect to the initial state. The intake valve 409 and the check valve 411 are closed. In addition, the waste automatic washing machine K opens the NO ports of the solenoid valves 5 and 6 with respect to the initial state. As shown in FIG. 19, the waste automatic washing machine K first opens the intake valve 409 (step Sb1), and starts the intake pump 400 (step Sb2). As a result, a part of the odor or the stool caused by the stool inside the toilet bowl A is sucked into the waste water storage tank 300. At the same time, air containing the odor in the toilet bowl (A) flows to the waste inflow pipe (103), the waste storage tank (300), the suction pump (400), and the primary odor removing filter (407a) in front of the intake port (402) and The odor is removed through the secondary odor removal filter 407b behind the exhaust port 405 and then discharged to the outside.

Subsequently, after opening the solenoid valve 4 (step Sb3), the pressure pump 600 is operated only for a predetermined time (step Sb4). As a result, hot water in the hot water tank 501 is delivered to the feces nozzle tube 605 and sprayed from the feces nozzle 105 as washing water to perform fecal crushing. The stool, which is crushed by the stool grinding process and pushed in the dirt flow path 101, is sufficiently mixed with the washing water by the vortex phenomenon in the dirt storage space s (hereinafter referred to as 'mixing operation by the vortex phenomenon').

Next, the excrement automatic washing machine K closes the intake valve 409 to start the vacuum formation in order to bring the inside of the vacuum tank 408 into a vacuum state (step Sb5). Wait until the detected value of the internal pressure based on the pressure switch 413 reaches the maximum vacuum pressure (for example, 600 mmHg) (step Sb6: YES), and the excrement automatic washing machine K is the pressure switch 413. Based on the detection signal from the controller, the pressure pump 600 is operated through a control device (not shown) (step Sb7) to open the intake valve 409 (step Sb8). At this moment, the feces after the mixing operation due to the vortex due to the maximum vacuum pressure formed in the vacuum tank 408 is sucked into the waste storage tank 300 at once through the waste inlet pipe 103 from the discharge unit 102 ( Hereafter, referred to as "vacuum suction operation").

The excrement automatic washing machine K stops the pressure pump 600 (step Sb9), and again determines whether there is any residue in the dirt flow path 101 based on the detected value of the feces detection sensor G (step). Sb10). As a result of this determination, if a residual is present (step Sb10: YES), the waste automatic washing machine K returns the processing procedure to step Sb5 so that the mixing operation and the vacuum suction operation by the vortex phenomenon can be repeated again. And the excrement automatic washing machine (K) repeats the mixing operation and the vacuum suction operation by the vortex phenomenon until the feces detection sensor (G) is no longer detect the feces.

Next, when no residue is detected in the dirt flow path 101 (step Sb10: NO), the excrement automatic washing machine K closes the solenoid valve 4 (step Sb11), and then opens the solenoid valve 3 (step Sb12). The pressure pump 600 is operated only for a predetermined time (step Sb13). As a result, hot water is sent from the hot water tank 501 to the buttock cleaning nozzle tube 604 and sprayed from the buttock cleaning nozzle 104 as washing water to clean the feces adhering to the hips of the patient (hereinafter referred to as 'buttock'). Cleaning operation ').

Next, the excrement automatic washing machine K closes the solenoid valve 3 (step Sb14), then opens the solenoid valve 2 (step Sb15), and operates the pressurized pump 600 only for a predetermined time (step Sb16). As a result, hot water is fed from the hot water tank 501 to the anal nozzle tube 603, sprayed into the washing water from the anal nozzle 203, and washes the feces adhering to the vicinity of the patient's anus (hereinafter, the anal washing). Is called motion). In addition, the excrement automatic washing machine K repeats the washing operation of the buttocks and the washing operation of the anus until the number of washing times reaches three times (step Sb18: YES). This makes it possible to perform a complete washing of the patient's hips and anus.

Next, when the number of times of washing reaches three times (step Sb18: NO), the excrement automatic washing machine K opens the solenoid valve 1 (step Sb19), and operates the pressure pump 600 only for a predetermined time (step Sb20). . As a result, hot water is fed from the hot water tank 501 to the bidet nozzle tube 602 and sprayed from the bidet nozzle 202 as washing water to clean the feces adhering to the patient's pubic area (hereinafter referred to as' Cleaning operation ').

Next, the excrement automatic washing machine K closes solenoid valve 1 (step Sb21), stops the suction pump 400 (step Sb22), and then various solenoid valves 1, 2, 3, 4, solenoid valves 5 and 6 The NC port and the check valve 411 are opened (step Sb23), and the suction pump 400 is operated only for a predetermined time (step Sb24). Thereby, before the drying process (step Sa6) mentioned later advances, the suction pump 400 is operated, and the nozzle tube 602 for a bidet, the nozzle tube 603 for anus, the nozzle tube 604 for a cock, the stool nozzle for feces Air contained in the water from the external air supply filter 404 is blown into each nozzle pipe of the pipe 605 to remove water (hereinafter referred to as water removal operation in the nozzle pipe).

Then, the excrement automatic washing machine K closes the NC ports and check valves 411 of the various solenoid valves 1, 2, 3, 4, solenoid valves 5 and 6 (step Sb25), and terminates the feces cleaning process.

20 is a flow chart showing a processing procedure of a urine washing step. As shown in Fig. 20, the slurry automatic washing machine K first opens the intake valve 409 (step Sc1), starts the suction pump 400 (step Sc2), and then opens the solenoid valves 1 and 3 (step Sc3). The pressurized pump 600 is operated for a predetermined time only (step Sc4). As a result, urine is sucked into the dirt storage tank 300, and the washing operation of the buttocks and the washing operation of the bidet are performed.

Next, the slurry automatic washing machine K closes the solenoid valves 1 and 3 (step Sc5), opens the solenoid valve 4 (step Sc6), and then closes the intake valve 409 (step Sc7). 400 is started (step Sc8). This starts vacuum formation in the vacuum tank 408.

Then, after a predetermined time passes, the excrement automatic washing machine (K) operates the pressure pump 600 for feces through the hot water tank 501 in the raw water tank 500 through the feces nozzle tube 605. It sprays with the washing water from the nozzle 105, and pushes urine toward the dirt flow path 101 (step Sc9). Then, the intake valve 409 is opened almost simultaneously (step Sc10). At this moment, urine is sucked into the waste storage tank 300 at once by the maximum vacuum pressure formed in the vacuum tank 408 through the waste inlet pipe 103 from the discharge portion 102.

After that, the slurry automatic washing machine K stops the pressure pump 600 (step Sc11), then stops the suction pump 400 (step Sc12), closes the solenoid valve 4 (step Sc13), and intake valve ( 409) is closed (step Sc14), and the urine washing process is completed.

In addition, the excrement automatic washing machine (K) is sucked into the waste storage tank 300 through the first odor removal filter (407a) and the second odor removal filter (407b) for the stool cleaning process and the urine washing process described above. The odor generated from the dirt is prevented from being discharged out of the suction pump 400 as much as possible.

21 is a flow chart showing a processing procedure of a drying step. As shown in Fig. 21, the slurry automatic washing machine K first opens the solenoid valve 4 (step Sd1), then closes the intake valve 409 (step Sd2), and then operates the suction pump 400, and the vacuum tank ( Vacuum formation in 408 is started (step Sd3). After a predetermined time has passed, the excrement automatic washing machine (K) operates the pressurized pump 600 to deflect the hot water received from the hot water tank 501 in the raw water tank 500 through the feces nozzle tube 605. It sprays from the nozzle 105 (step Sd4).

The related spraying is to fill the washing water between the feces nozzle tube 605 and the feces nozzle 105 and to be able to immediately spray the washing water from the feces nozzle 105 in the next cleaning process. This is for the operation (hereinafter referred to as 'charging operation').

Next, the excrement automatic washing machine K opens the intake valve 409 (step Sd5), and at that moment, the hot water injected by the filling operation is discharged from the discharge part 102 by the maximum vacuum pressure formed in the vacuum tank 408. Suction is accommodated in the waste storage tank 300 at a time through the waste inflow pipe (103).

Next, the excrement automatic washing machine K stops the pressure pump 600 (step Sd6), and then stops the suction pump 400 (step Sd7) and closes the solenoid valve 4 (step Sd8). Thereafter, the intake valve 409 is closed (step Sd9), then the NC ports and check valves 411 of the solenoid valves 2 and 3 and solenoid valves 5 and 6 are opened (step Sd10), and then the suction pump 400 is opened. It operates (step Sd11). The suction pump 400 is operated only for a predetermined time, and the solenoid valves 2, 3, 5, 6, the NC port and the check valve 411 are all closed (step Sd12) to complete the drying process. As a result, the air received from the external air supply filter 404 is delivered from the nozzle 104 and the anal nozzle 203 as dry air and dried in the human body and the toilet bowl A.

As shown in Fig. 18, the fecal automatic washing machine K again feces and urine again after the cleaning process (step Sa2 or step Sa3) and drying process (step Sa6) in the human body and the toilet bowl case A by a series of treatments. In order to execute detection, the processing sequence is returned to step Sa1.

By the way, as mentioned above, the excreta automatic washing machine K of this embodiment has a manual stool processing mode implemented when there exists an operation instruction of a patient other than an automatic stool processing mode as an operation mode. In this manual feces processing mode, the excrement automatic washing machine (K) does not sense by the stool sensor and the urine detection sensor, and receives an operation instruction for the patient to perform either the stool cleaning process or the urine cleaning process. If so, credit processing is performed. In addition, the patient performs an operation instruction using an operation panel or a remote controller arranged at a predetermined place of the excreta automatic washing machine K. The operation in the manual stool processing mode will be described below.

Fig. 22 is a flow chart showing the processing procedure of the excrement automatic washing machine K in the manual feces processing mode. As shown in Fig. 22, when the urine washing instruction K indicates the urine washing instruction (step Sf1: YES), the urine washing process is executed in the same procedure as the urine washing process in the automatic feces processing mode described above (step Sf4). When there is no urine washing instruction (step Sf1: NO) and a stool washing instruction (step Sf2: YES), the stool washing step is executed in the same procedure as the stool washing step in the automatic stool processing mode described above (step Sf3). On the other hand, when there is no urine washing instruction (step Sf1: NO) and no stool washing instruction (step Sf1: NO), the apparatus waits until the instruction is given.

Then, after the feces washing step (step Sf3) or the urine washing step (step Sf4) is finished, the excrement automatic washing machine (K) is the same as the drying step of the automatic feces processing mode described above for drying in the toilet bowl (A). The drying step is executed in step (step Sf5), and the manual stool processing mode is terminated.

Next, 2nd Embodiment which concerns on this application is described. In the description of the second embodiment, a description will be mainly given of a configuration different from that of the automatic washing machine K of the first embodiment, and the same reference numerals will be given to the common configurations and the description thereof will be omitted.

As shown in FIG. 23, the automatic washing machine Z of the second embodiment does not have a stool detection sensor G. Instead, the urine detection sensor H and the stool detection sensor I to be described later are integrated. It differs from 1st Embodiment in that it has the sensor module M as a small modular detection means. In the first embodiment, the feces detection sensor G detects feces and the urine detection sensor H detects urine. In this embodiment, the sensor module M detects feces and urine. It can be configured to run at the same time.

By the above configuration, assemblability can be improved and electrical wiring can be simplified.

The urine detection sensor H has a pair of electrodes 109 as in the first embodiment, and the stool detection sensor I is a temperature detection means provided integrally with each of the pair of electrodes 109. A pair of temperature sensors 116 are included.

As shown in FIGS. 24 and 25, each electrode 109 and each temperature sensor 116 form a sensor unit 114, and a pair of sensor units 114 are insulated from each other at predetermined intervals. It is fixed and supported by. Each sensor unit 114 is formed such that the electrode 109 surrounds the outer edge of the temperature sensor 116, and the electrode 109 includes a pair of conductive lines 109a. As the temperature sensor 116, for example, a thermostat or the like can be used. As the electrode 109, a conductor such as conductive paint, carbon rubber, or stainless steel can be used.

The electrode 109 is configured to have a predetermined thickness that does not affect the measurement accuracy of the temperature sensor 116, and the conductive line 118 and the electrode 109a are configured not to contact each other.

The conductive line 118 is connected to the control circuit 417 and is set so that a current flows from the control circuit 417. Since the resistance value of the temperature sensor 116 fluctuates in response to the temperature change, the control circuit 417 is configured to detect the temperature at the change in the current value in conjunction with the change in the resistance value of the temperature sensor 116.

By setting the temperature close to the body temperature with respect to the temperature detected by the temperature sensor 116 in the above-described configuration, the presence of feces or urine close to the body temperature can be detected and the presence thereof can be detected.

The conductive line 109a is connected to the control circuit 417 via the current forming means 416, and the current flows from the current forming means 416 to either one only by the control of the control circuit 417. It is configured to. Therefore, similarly to the first embodiment, the urine detection sensor H is configured to detect moisture based on the current value when the electrodes 109 and 109 are energized by washing water or urine. The distinction between the washing water and urine is the same as that of the urine detection sensor H in the above-described first embodiment, and thus description thereof is omitted here.

With the above configuration, the control circuit 417 according to the present embodiment can detect urine when the temperature sensor 116 detects a predetermined temperature and the current value flowing between the electrodes 109 and 109 is a predetermined value. Done. On the other hand, when the temperature sensors 116 and 116 detect a predetermined temperature and the current value flowing between the electrodes 109 and 109 does not reach a predetermined value, feces can be detected.

Although 2nd Embodiment of this invention was described above, the program of the procedure and function at the time of actually using is demonstrated.

First, since the program in the manual defecation processing mode is the same as in the first embodiment, the description is omitted and only the processing procedure in the automatic defecation processing mode will be described here.

Fig. 26 is a flowchart showing the processing procedure of the automatic washing machine Z in the automatic defecation processing mode. As shown in FIG. 26, the automatic washing machine Z checks whether the temperature detected by the temperature sensors 116 and 116 is greater than or equal to a predetermined temperature when power is supplied to the main body by an operation of a power switch not shown. It judges (step Sh1). When the determination result shows that the temperature is less than the predetermined temperature (step Sh1: No), it is determined that neither feces nor urine exists in the dirt flow path 101, and the automatic cleaner Z again sets the temperature of the dirt flow path 101. The processing procedure for determining whether or not the temperature is abnormal is returned to Step Sh1.

As a result of this determination, when the temperature is above a predetermined temperature (step Sh1: Yes), that is, when feces or urine are present in the dirt flow path 101, the automatic cleaner Z is the current value flowing between the electrodes 109 and 109. It is determined whether or not the value is equal to or greater than the predetermined value (step Sh2).

As a result of the determination, when the current value is less than the predetermined value (step Sh2: No), that is, when there is only a stool in the dirt flow path 101, the automatic cleaner Z performs the stool cleaning process (step Sh3). The same drying process as that of the first embodiment described above is performed (step Sh6).

On the other hand, when the current is greater than or equal to a predetermined value (Step Sh2: Yes), that is, when urine only or feces and urine are present together in the dirt flow path 101, the automatic cleaner Z is described in the above-described first embodiment. The urine washing process is executed in the same procedure as the urine washing process (step Sh4), and only urine is washed first. Then, the automatic cleaner Z again determines whether or not the temperature is higher than or equal to the predetermined temperature (step Sh5). Since the urine has already been washed, if the temperature is above the predetermined temperature (step Sh5: Yes), only the feces in the dirt flow path 101 exist, and the feces cleaning process is performed (step Sh3). On the other hand, when the temperature is lower than the predetermined temperature (step Sh5: No), since no feces or urine are present in the dirt flow path 101, the same drying process as in the first embodiment described above is executed.

The feces cleaning process (step Sh3) which concerns on embodiment of this application is a temperature sensor 116,116 instead of the feces detection sensor G in step Sb10 of the feces cleaning process (refer FIG. 19) which concerns on 1st Embodiment mentioned above. The process of determining whether the feces exists in the dirt flow path 101 is performed by judging whether or not the temperature detected by the temperature is equal to or greater than a predetermined temperature set in advance. Except for the processing steps involved, the same processing as in the first embodiment is performed, so only the processing different from the first embodiment will be described.

That is, as a result of the determination (step Sb10) when the temperature is equal to or higher than the predetermined temperature (step Sb10: Yes), the automatic cleaner Z again repeats the mixing operation and vacuum suction operation due to the overflow phenomenon and returns the processing procedure to step Sh5. .

Thus, the automatic washing machine Z repeats the mixing operation and the vacuum suction operation due to the overflow phenomenon until the temperature becomes less than the predetermined value. Since the temperature of the washing water is set to a temperature close to the body temperature as described above, the temperature of the feces during the cleaning is also maintained at a temperature close to the body temperature, so that the temperature sensors 116 and 116 have a feces in the dirt flow path 101. The temperature of the stool is detected reliably. When the temperature is lower than the predetermined temperature (step Sb10: No), the above-described steps Sb11 to Sb25 are executed.

Therefore, as shown in FIG. 26, when the automatic washing machine Z finishes the series of processing, the automatic washing machine Z again detects the temperature and the current, and returns the processing procedure to Step Sh1.

Although some of the embodiments of the present invention have been described in detail with reference to the drawings, these are merely examples and various modifications and improvements are made based on the knowledge of those skilled in the art based on the shape of the description specified in the invention. It will be possible to practice the invention in other forms.

For example, as shown in FIG. 27, the massage device 204 for massaging the abdomen of a human body may be arrange | positioned on the surface of the press part 205c of the automatic fixing device 205. FIG. The massager 204 may be formed of a silicon pad and stimulate the intestine by low frequency output to urge the stool. The massager 204 may be made of a treatment guide on a plate derived from a low frequency generator (not shown). Is attached to the surface of the pressed portion 205c. By massaging the human abdomen with the massager 204, the intestine is stimulated and the feces can be urged to spring.

In addition, instead of the automatic fixing device 205, the embedded automatic fixing device 209 may be applied to fix the human body and the toilet bowl case A as shown in FIG. The embedded automatic fixing device 209 is disposed in the excrement recess 209a disposed in the upper portion of the front recess 113 in the inside of the tip portion 200a. The embedded automatic fixing device 209 is a spring 209c for adjusting the pushing degree of the human body by an installation cover 209b for attaching the automatic locking device 209 to the excrement 209a. It has a pressing portion (200d) for pressing and fixing the abdomen of the human body. The embedded automatic fixing device 209 can be assembled by fitting the pressing portion 200d to the excretion cover 209b through the spring 209c, and the excrement cover 209b is excreted. It is fixed by adhering to In order for the patient to wear the toilet bowl A, as shown in FIGS. 29 and 30, since the pressing portion 200d is moved up and down in the direction of the arrow shown in the drawing based on the elastic force of the spring 209b, The toilet bowl (A) and the human body can be automatically fixed. The pressed portion 200d is formed by foaming a good material, such as urethane, for a soft and cushioned material by completing and surface finishing the ABS resin.

Instead of the automatic fixing device 205, the seat belt 206 shown in FIG. 31 may be applied to fix the human body and the toilet bowl case A. FIG. Each seat belt 206 is mounted on both sides of the support plate part 100 so as to surround the main part of the human body from both sides, and the outer end thereof is fixed by the buckle 206a at the front of the lifting part 200. . Buckle 206a is configured to be able to adjust the length of the seat belt 206 according to the user's body shape.

Instead of the automatic fixing device 205, the bag 207, the magic tapes 207a and 207b and the cover 207c shown in FIG. 32 may be used to fix the human body and the toilet bowl case A. FIG. The cover 207c has a magic tape 207a, 207b on the human abdomen side and the recessed part side, and is comprised so that the toilet bowl case A may be wrapped. The user mounts the toilet seat case (A) with the bag 207 mounted on the waist seat, and the body and the toilet seat case (A) are fixed by fixing the bag 207 with magic tapes 207a and 207b. do.

In addition, instead of the automatic fixing device 205, a suspender 208 may be applied to fix the human body and the toilet bowl case A as shown in FIG. The suspender 208 has hooks 208a and 208b having open shapes at both ends thereof, and a fixing portion 208c disposed outside the tip portion 200a and a fixing portion 208c disposed outside the support plate portion 100. It is comprised so that the fixed part and the hooks 208a and 208b which are not shown in figure like this are hooked and fixed, respectively. When the patient mounts the toilet seat case (A), first wear the toilet seat case (A) on the body and hang the suspender 208 on both shoulders, and then the fixing part 208c, the fixing part 208d, and the hook 208a, The human body and the toilet bowl case A are fixed by hanging 208b).

In addition, instead of the automatic fixing device 205, as shown in Figure 34 and 35, by applying a hollow tube front tube 210 and the rear tube 211 is configured to fix the human body and the toilet bowl (A) good. The front tube 210 is to fix the abdomen of the human body is disposed on the upper portion of the front yaw (113) inside the front end portion (200a) and the rear tube (211) to fix the waist seat of the human body Exposed to the inner surface of the support plate portion 100.

The front tube 210 has an air inlet 210a disposed on one side and an air outlet 210b disposed on the opposite side of the air inlet 210a, such that the rear tube 211 has the same shape as the air inlet 211a. ) And an air outlet 211b. In addition, the air inlets 210a and 211a are connected to solenoid valves 7, 8 added to the solenoid valve unit 606 as shown in FIG.

Receiving air from the external air supply filter 404 by operating the suction pump 400 with the respective NC ports, the check valves 411, and the solenoid valves 7, 8 of the solenoid valves 5 and 6 open under a related configuration. . The air concerned is supplied to the pneumatic inlets 210a and 211a via solenoid valves 7, 8 and the front tube 210 and the rear tube 211 expand. Therefore, the expanded front tube 210 and the rear tube 211 are in close contact with the abdomen and the recess, respectively, it is possible to fix the human body and the toilet bowl (A).

To remove the toilet bowl case A from the human body, the valve (not shown) mounted on the air outlets 210b and 211b is opened and exhausted, and the front tube 210 and the rear valve 211 are contracted. In addition, either one of the front tube 210 and the rear tube 211 may be disposed so as to have a structure in which the human body and the toilet bowl A are fixed.

In addition, as shown in FIG. 37, the elastic member 205 is not attached to the vortex toilet seat A, and an elastic member (not shown) is inserted into the lifter 200 so that the tip portion 200a is moved inward. You may comprise so that it may bend. When the patient wears the toilet bowl case A by the relationship configuration, when the tip portion 200a is opened in the Z direction, the tip portion 200a presses the abdomen by the elastic force of the elastic member (not shown) in the lifting portion 200, and the human body and the lip side Fixing with the base case A becomes possible.

38 and 39, the toilet bowl case A has a structure in which the support plate 100 and the lifting unit 200 are separated, or the body and the toilet bowl case A are fixed. It is possible. The toilet bowl case (A) is a lifting part 200 disposed so as to be freely rotated by the hinge part 120 and the hinge part 120 disposed at the rear end of the support plate part 100 and the support plate part 100. Has

The hinge part 120 can be provided with the screw fastening part which is not shown in figure, and it is comprised so that the position of the lifting part 200 can be fixed by turning the hinge part 120 to a right screw direction. The dirt flow path 101 disposed on the support plate part 100 is separated into the front yaw part 113 of the lifting part 200 so that the dirt flow path 101 processes the feces and the front yaw part. 113 is configured to process urine. A urine discharging hose 121 for discharging urine is connected to a predetermined point of the front yaw portion 113, and the urine discharging hose 121 is connected to a predetermined position in the dirt flow path 101. .

In the relationship configuration, the patient loosens the hinge part 120 to wear the toilet seat case A, and then lifts the lifting part 200 around the hinge part 120 with the back seat part mounted on the support plate part 100. After rotating and bringing it into close contact with the abdomen, the hinge portion 120 is fixed by turning in the direction of the right screw so that the human body and the toilet bowl case A can be fixed.

As shown in FIG. 40 and FIG. 41, in the raw water tank 500, you may make it the structure which can perform sterilization process with the water level sensing of raw water W. FIG. 40 and 41 are schematic views showing the internal structure of the raw water tank (500). The raw water tank 500 is equipped with the ultraviolet LED 508 arrange | positioned at the predetermined location on the upper inner wall surface, and the port transistor 509 arrange | positioned at the position which opposes the ultraviolet LED 508. As shown in FIG. In addition, the upper portion of the raw water tank 500 may be provided with an injection hole 500a for injecting raw water (W), and the discharge port 500b is provided under the raw water tank 500. The injection port 500a is connected to the faucet of the tap water through a solenoid valve (not shown). The water supply from the tap water is controlled by opening and closing the solenoid valve in response to the detection of the port transistor 509. The water outlet 500b is connected to the solenoid valve 503 shown in FIG.

The raw water tank 500 is configured to check the water level by transmitting ultraviolet rays (UV) from the ultraviolet LED 508 at predetermined time intervals and receiving ultraviolet rays (UV) to the opposing port transistor 509. As shown in FIG. 38, when the raw water W in the raw water tank 500 does not reach a predetermined level, the port transistor 509 may generate a predetermined voltage value (for example, 4.1 V or more) based on the received ultraviolet (UV) light. Is detected and the solenoid valve is opened in this state, and the raw water W is supplied from the injection port 500a into the raw water tank 500. When the raw water W in the raw water tank 500 reaches a predetermined level, as illustrated in FIG. 41, the ultraviolet LED 508 and the ultraviolet light UV reflect from the raw water W, so that the port transistor 509 detects the raw water W. FIG. The voltage value decreases (for example, 3.4 V or less). When the raw water in the raw water tank 500 reaches the predetermined level, the supply of the raw water W is stopped based on the above-described change in the voltage value, and the ultraviolet light is continuously emitted from the ultraviolet LED 508. The sterilization treatment of raw water W is performed by doing so.

In addition, as shown in FIG. 42, when using the toilet seat case A, the couch mat 11 set with the toilet seat case A may be used. The bed mat 11 is for preventing the fatigue of the waist when the toilet seat case A is worn for a long time. It is comprised in the shape which can be supported. The needle-like mat 11 has a thickness substantially the same as that of the support plate portion 100 and has a yaw portion 11a and a yaw portion 11a formed on the side surface according to the surface shape of the support plate portion 100. The belt 11b which is fixed to each end part is provided in the both sides of the recessed part 11a with respect to the side edge part in which the recess was formed. The couch mat 11 is fitted to the toilet seat case A by fitting the support plate 100 to the yaw portion 11a and then hanging the belt 11b on the back side of the lifter 200. Can be fixed.

As the material of the couch mat 11, a low repulsive material such as latex is used in order to minimize the burden on the upper body by the waist of the patient. A predetermined portion of the surface of the couch mat 11 is provided with a plurality of ventilation holes (not shown) to improve ventilation and prevent various skin problems such as eczema and bedsores. In addition, in order to improve the touch and hygroscopicity of the part where the toilet bowl case A and the human body contact, the outer surface of the toilet bowl case A may be covered with a cover made of a fiber material.

In the present embodiment described above, as shown in FIG. 1, the air at room temperature drawn from the external air supply filter 404 is sprayed to various nozzles 104, 105, 202, and 203 as dry air. It is good also as a structure which injects heated air. Specifically, a constant temperature heater (not shown) is brought into close contact with the various nozzle tubes 602, 603, 604, and 605 to inject air heated by the constant temperature heater into the nozzles 104, 105, 202, and 203. You may also

In addition to the above configuration, a flow path for injecting heated dry air may be separately configured. Specifically, as shown in FIG. 43, the toilet seat case A may be configured to include a nozzle tube 201 for drying air for blowing heated dry air. One end of the dry air nozzle tube 201 is connected to the ventilation cylinder 112, and the other end is inserted into the exterior treatment hose 111. In addition, the exterior treatment hose 111 is connected to the exhaust port 405 of the suction pump 400 (refer FIG. 1) through the pipe | tube heater part flow path which is not shown in figure. The air blown from the suction pump 400 is heated through a tubular heater flow path (not shown), and then the toilet case 112 through the exterior treatment hose 111 and the nozzle nozzle 201 for dry air. It is blown as dry air in A). Air blown as dry air is discharged | emitted to outside air by the ventilator 122 arrange | positioned at arbitrary places of the toilet bowl case A. Since the dry air heated in the toilet bowl case A can be blown by a related structure, the drying effect in the toilet bowl case A can be improved.

The effects of the present invention having the above constitution are considered to be the most important to describe the effects of having each claim is described as follows when describing the effects according to each claim.

According to the invention of claim 1, in the automatic toilet bowel processing apparatus provided comprising a toilet bowl case which is mounted so as to surround the excretory part of the human body, and a detection means attached to the electrical toilet bowl case for detecting the excrement, the toilet bowl case Has a support plate portion for mounting the buttocks, a lifting portion connected to and installed at the rear end of the support plate portion, and the support plate portion has a concave groove formed so as to receive a stool to be excreted, and the excrement in the waste passage has a toilet bowl case. It has a discharge portion for discharging to the outside, the lifting portion has a concave front portion made concave to receive the urine that is connected to the dirt flow path, the detection means has a urine detection sensor for detecting the excreted urine, urine detection A plurality of sensors are disposed on the bottom of the dirt passage at predetermined intervals to transmit and receive current. And a current forming means for flowing a current between the plurality of electrodes, and a judging means for detecting urine by whether or not the current value flowed between the plurality of electrodes is a predetermined value, so that the washing water and the urine can be surely ensured. It is possible to discriminate and to prevent the automatic fecal cleaner from mistaken for the washing water as urine.

According to the invention of claim 2, the dirt flow passage is connected to the electric discharge section at a more concave position than the front recess, so that the width gradually decreases toward the discharge section, and the discharge section is bottomed. It has a dirt storage space in the shape of a storage container,

Since the plurality of electrodes are disposed in the waste storage space, a small amount of urine can also be reliably detected and a subsequent cleaning operation can be performed to keep the inside of the toilet bowl more clean.

According to the invention described in claim 3, at least a portion of the plurality of electrodes exposed to the dirt flow path is plated with gold, thereby preventing the electrode from oxidizing and corroding or adhering to the foreign matter, thereby preventing inconvenience of deterioration in detection accuracy. .

According to the invention as set forth in claim 4, the current flowing between the plurality of electrodes in the current forming means uses alternating current alternating in polarity, so that only a few electrodes are oxidized and corroded, or foreign matter adheres. The inconvenience of lowering can be prevented.

According to the invention of claim 5, the detection means has a stool detection sensor for detecting the excreted feces, the stool detection sensor has a temperature detection means integrally installed with at least one of the plurality of electrodes, the determination means When the temperature detecting means detects a predetermined temperature and the current value flowing between the plurality of electrodes is a predetermined value, it is detected with urine, and the temperature detecting means detects a predetermined temperature and the current value flowing between the plurality of electrodes When the stool is detected when it is not the predetermined value, the stool detection sensor and the urine detection sensor can be integrated into a compact module, so that the stool detection sensor does not need to be placed in a different position, and the assemblability can be improved. This has the effect of simplifying the wiring.

Claims (5)

In the automatic toilet bowel processing apparatus provided comprising a toilet bowl case is installed to surround the human body excretion portion, and detecting means attached to the electrical toilet bowl case for detecting excretion, The toilet bowl case has a support plate for mounting the buttocks, and a lifting portion connected to and installed at the rear end of the support plate, The support plate portion has a concave recessed recess to receive the feces to be excreted, and a discharge portion for discharging the waste in the waste passage to the outside of the toilet bowl case, The lifting portion has a front yaw portion that is concave to receive the urine being excreted connected to the dirt flow path, The detection means has a urine detection sensor for detecting the excreted urine, the urine detection sensor has a plurality of electrodes are disposed at a predetermined interval to the bottom of the dirt flow path to transmit and receive the current, the current between the plurality of electrodes And current judging means for flowing, and judging means for detecting urine by whether or not a current value flowing between the plurality of electrodes is a predetermined value. The method of claim 1, The dirt passage is connected to the electrical outlet at a more concave position than the front yaw, and the width gradually decreases toward the outlet, and forms a storage container having a bottom of the outlet side. Has, And the plurality of electrodes are disposed in the waste storage space. The method of claim 1, At least a portion of the plurality of electrodes exposed to the dirt flow path is characterized in that the automatic bowel processing apparatus. The method of claim 1, Automatic current defecation processing apparatus characterized in that the current flowing between the plurality of electrodes in the current forming means uses an alternating current of which the pole is changed. The method of claim 1, The detection means has a stool detection sensor for detecting the feces to be excreted, The feces detecting sensor has a temperature detecting means which is installed integrally with at least one of the plurality of electrodes, The judging means detects the urine when the temperature detecting means detects a predetermined temperature and the current value flowing between the plurality of electrodes is a predetermined value, and the temperature detecting means detects a predetermined temperature and further detects a plurality of electrodes. An automatic bowel processing apparatus characterized by detecting a stool when a current value flowing in the air is not the predetermined value.

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