JP2002361012A - Fluid control apparatus - Google Patents

Abstract

PROBLEM TO BE SOLVED: To remove the clogging of a filter perfectly by detecting the clogging of the filter for removing refuse in a fluid in an apparatus for circulating bath water in a step when the deterioration of the performance hardly occurs and in a timing satisfactory to the use for bath or the lie. SOLUTION: A relation of the change of the output of a flow rate detecting means to the driving time of a pressurizing means is grasped by measuring and calculating the driving time of the pressurizing means in a fluid control apparatus constituted of a flow passage, the filter, the flow rate detecting means and a control part having a timing means and fetching the output of the flow rate detecting means. The action of the information of the clogging is carried out in a step when the lowering of the flow rate is small by learning a relation between the operation accumulating time and the lowering of the flow rate. An apparatus for circulating the bath water acts to remove the clogging of the filter by passing water stream in the reverse direction in a adequate timing.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a device for circulating bath water, such as a bubble bath or a circulating water heater, and more particularly to a filter suitable for detecting and removing clogging of a filter for removing dust in a fluid. The present invention relates to a clog prevention device.

[0002]

2. Description of the Related Art The details of the conventional technology disclosed in Japanese Patent Application Laid-Open No. 11-290630 are as follows. Detects the number of rotations of the fan drive motor to determine the clogged state of the filter provided in the air path of the air conditioner, and displays when the number of rotations of the motor reaches the rotation number NO, which is a guide for replacing the filter. Is performed. In addition, Japanese Unexamined Patent Publication
The details found in US Pat. No. 248,672 are as follows. Equipped with a water level sensor that detects a drop in the bathtub water level.When the bathtub water is drained, this is detected by the water level sensor and switched from circulating heating of the bathtub water to a water supply path to the circulation inlet with a switching valve. In addition, the clogging of the filter is automatically cleaned by using the water supply pressure from the water supply pipe.

[0003]

SUMMARY OF THE INVENTION Conventional Japanese Patent Application Laid-Open No. 11-2
In the filter clogging determination method disclosed in Japanese Patent No. 90630, since a display for prompting a filter replacement after performance degradation due to clogging is performed, use in a state where performance degradation has occurred to some extent is forced, which is preferable for a user. Absent. Further, if an attempt is made to perform display in a state where the performance degradation is small, it is necessary to determine a slight change in the detected value, and there is a problem that the determination cannot be made accurately.

Further, in the conventional method of automatically cleaning a filter for clogging as disclosed in Japanese Patent Application Laid-Open No. 6-248672, since the filter is cleaned using the water supply pressure from the water supply pipe, the amount of cleaning water is small and the cleaning effect is small. There is a problem that is small. In addition, in order to determine the drainage operation by detecting a drop in the water level and to perform the cleaning operation of the filter, the filter was caught by the filter at the time of erroneous determination due to pumping out of the bathtub water or moving the bather out of the bathtub. There is a problem that discharging a large amount of garbage into the bathtub gives bathers discomfort.

SUMMARY OF THE INVENTION The present invention has been made to solve the above-mentioned problems, and an object of the present invention is to provide a notification for prompting replacement or cleaning of a filter at a stage where performance deterioration due to clogging of the filter hardly occurs. And more completely remove at a timing that does not interfere with bathing, such as discharging garbage etc. trapped in the filter provided in the suction port in the bathtub in the bathtub water circulation path to the bathtub in a few stages. To provide a clogging prevention device.

[0006]

In order to achieve the above object, a first aspect of the present invention comprises a flow path, a filter, a flow rate detecting means,
The drive time of the pressurizing means is measured and calculated in the fluid control device constituted by the control unit having the timer means, and the output of the flow rate means is taken in. Can be grasped.

A second aspect of the present invention provides a fluid control device comprising a control section having a flow path, a filter, a pressure detecting means, and a time measuring means. Since it is taken in, it is possible to grasp a relationship in which the output of the flow rate detecting means changes according to the driving time of the pressurizing means.

According to a third aspect of the present invention, in the fluid control device according to the first aspect, since the average flow rate detecting means is provided in the control unit, the output of the flow rate detecting means changes according to the driving time of the pressurizing means. Can be improved.

According to a fourth aspect of the present invention, in the fluid control device according to the first aspect, the control unit integrates the driving time of the fluid pressurizing means from the first set value to the second set value. The relationship between the integrated driving time of the fluid pressurizing means and the degree of clogging of the filter can be grasped.

According to a fifth aspect of the present invention, in the fluid control device according to the fourth aspect, an informing means is provided, and the information is output to the informing means in accordance with the output of the time integrating means. You can be notified at the time.

According to a sixth aspect of the present invention, in the fluid control apparatus according to the fifth aspect, the control unit initializes the operation time and starts integration when the output of the flow rate detection means exceeds a first set value, After the value falls below the second set value, the information is output to the notification means in accordance with the output of the time integrating means,
When the clogging of the filter is removed, the operation time can be integrated again from the initial value, and the notification can be made again according to the progress of the clogging state.

According to a seventh aspect of the present invention, in the fluid control apparatus according to the sixth aspect, in the operation after learning and storing the integrated value of the driving time, the integrated value of the driving time is reduced by a predetermined ratio from the learned value of the driving time. Since the output is made to the notifying means at the time when the predetermined time has been reached, the notification can be made at the very initial clogging state.

According to an eighth aspect of the present invention, in the fluid control apparatus according to the seventh aspect, in the operation after learning and storing the integrated value of the driving time, the integrated value of the driving time is reduced by a predetermined ratio from the learned value of the driving time. If the output of the flow rate detection means reaches the second set value before reaching the time when the time has reached,
Since the learning value of the integrated value of the driving time is corrected,
This can be corrected when the initial learning value is an abnormal value.

According to a ninth aspect, in the fluid control apparatus according to the seventh aspect, when the integrated value of the learned operating time is smaller than a predetermined standard value, a predetermined number of integrated operations are initialized. At this time, the output to the notifying means at the time when the learning value of the drive time is reduced by a predetermined rate is stopped, and the output of the flow rate detecting means reaches the second set value. Since the output to the notification means is performed and the learning value of the integrated value of the driving time is corrected,
This can be corrected when the initial learning value is an abnormal value.

[0015] A tenth aspect of the present invention provides a flow path for passing a fluid,
A fluid pressurizing means provided in the flow path, a filter provided on an input side of the fluid pressurizing means, a flow detecting means provided on an output side of the fluid pressurizing means, and a pressurizing direction switch Since the control unit controls the fluid pressurizing unit and the flow rate detecting unit, the filter can be prevented from being clogged by switching the pressurizing direction.

[0016] The eleventh aspect is a flow path through which the fluid passes,
A fluid pressurizing unit provided in the flow path, a filter provided on an input side of the fluid pressurizing unit, a flow detecting unit provided on an output side of the fluid pressurizing unit, and passing through the filter The input side of the fluid pressurizing means arranged to switch the direction of the flow of the fluid to be performed, and the flow path switching means respectively provided on the output side, the fluid pressurizing means, the flow rate detecting means, and the Since the controller is configured to control the flow path switching means, by switching the flow path switching means, it is possible to prevent the filter from being clogged with the fluid flowing in the opposite direction, thereby preventing the filter from being clogged.

According to a twelfth aspect of the present invention, in the fluid control apparatus according to the tenth aspect, the control unit has a time measuring means for measuring a driving time of the fluid pressurizing means and switching the pressurizing direction at every predetermined driving time. Since the direction in which the fluid flows is switched by driving the means, the filter is periodically cleaned by the fluid flowing in the opposite direction, thereby preventing the filter from being clogged.

According to a thirteenth aspect of the present invention, in the fluid control device according to the twelfth aspect, the control unit has a temperature detecting means for measuring a driving time of the fluid pressurizing means and responding to a temperature detected by the temperature detecting means. Since the direction in which the fluid flows is switched by driving the pressurizing direction switching means every predetermined drive time, it is possible to prevent the filter from being clogged in accordance with the progress of the contamination of the fluid in accordance with the temperature.

According to a fourteenth aspect of the present invention, in the fluid control apparatus according to the tenth aspect, the control unit has a time measuring means for measuring a driving time zone of the fluid pressurizing means and determining the driving time zone according to the driving time zone. At this time, the pressurizing direction switching means is driven to switch the direction in which the fluid flows, so that the filter can be prevented from being clogged by cleaning the filter at an appropriate timing during the use time of the apparatus. it can.

[0020]

DESCRIPTION OF THE PREFERRED EMBODIMENTS FIG. 1 is a diagram showing the configuration of a first embodiment of a bubble tub generator (blow bath) having a clogging prevention device according to the present invention. It is shown in FIG. The water flow generated by the pump (7) is sent into the bathtub from a discharge port (2) provided on the wall surface of the bathtub (1) via a pipe. The water that has flowed into the bathtub is recovered from a suction port (3) provided on the wall surface of the bathtub (1), and returns to the pump (7) via a pipe. In FIG. 1, the pipes are indicated by thick lines, and the direction of the water flow is indicated by arrows. A filter (4) is attached to the suction port (4) to prevent dust and the like floating in the water in the bathtub from entering the circulation path. The flow rate sensor (6) disposed in the circulation path detects the flow rate of the circulating water and determines the degree of clogging of the filter (4). A pressure sensor (9) also arranged in the circulation path is for detecting the water pressure on the suction side of the pump to determine the degree of clogging of the filter (4). The control unit (11) controls the drive of the pump (7) based on signals from the flow rate sensor (6), the pressure sensor (9), and the operation panel (12), and performs a pump motor forward / reverse switching circuit ( 10), a time measuring means (14), an average flow rate calculating means (15), a time integrating means (16), and a temperature detecting means (17). The operation panel (12) transmits a driving command from the user and notifies the user, and has a built-in clogging display (13). Here, the flow rate sensor (6) is used as flow rate detecting means. Similarly, the pump (7) is used as a fluid pressurizing means. Similarly, the pressure sensor (9) is used as pressure detecting means. Similarly, the pump motor forward / reverse switching circuit (10) is used as a pressing direction switching means. Similarly, the clogging display (13) is used as notification means.

Next, the operation of the bathtub bubble generator (blow bath) shown in FIG. 1 will be described. A command to turn on and off the operation performed by an operation switch (not shown) provided in the operation unit (12) is transmitted to the control unit (11), and the pump (7) is turned on and off based on the command. Thus, the jet operation is turned on and off.

FIG. 2 shows the operation of detection and notification of clogging.
This will be described with reference to the time chart of FIG. First, in the first operation (100) after the power is turned on, the flow rate during operation detected by the flow rate sensor (6) is averaged by the average flow rate calculation means (15) in the control section (11), and this value is calculated as the initial flow rate. Q
From one or more time points (x1) to the limit flow rate Q2 (x2)
Is obtained by the clocking means (14) and the time integrating means (16), and a predetermined ratio (0.
T2 (= T1 × 0.5) multiplied by 5) is stored as the notification start time. After x2 which has reached the limit flow rate Q2, a signal for turning on the clogging display is sent to the operation panel (12) to turn on the clogging display (13). Subsequently, when the user cleans the filter, the flow rate returns to the initial flow rate Q1 or more.
(X3)

Here, T2 = T1 × 0.5 and T2 is T
Although defined by a predetermined ratio to 1, T2 = T1-C
(C: constant) may be specified as a value smaller by a predetermined value. Next, the steady-state operation (101) after x3 will be described. At the time X3 when the flow rate has returned to Q1 or more, the clogging display is turned off, the integrated value of the operation time is reset, and the integration is started again. Thereafter, when the flow rate falls below the deteriorated flow rate Q3, which is smaller than the initial flow rate Q1 by a predetermined amount, and when the integrated operation time exceeds the notification start time T2 (x
The clogging display (13) is turned on in 4), and the display is continued until the flow rate becomes the initial flow rate Q1 or more (x5) again. In the integrated operation from X5, if the flow rate exceeds the deteriorated flow rate Q3 at the time when the notification start time T2 elapses (x6), the clogging display is kept off, and then Q3
Turns on the clogging display when the value falls below (x7).

Here, the flow rate by the flow rate sensor is used for detecting the clogging state, but the same effect can be obtained by using the water pressure on the suction side of the pump by the pressure sensor (9). FIG. 3 shows the operation using the initial hydraulic pressure P1, the critical hydraulic pressure P2, and the deteriorating hydraulic pressure P3 corresponding to the initial flow rate Q1, the critical flow rate Q2, and the deteriorating flow rate Q3, respectively.

Next, the operation of correcting the learning value of the integrated operation time T1 when the flow rate reaches the limit flow rate Q2 in the steady state operation (101) will be described with reference to FIG. After the initial flow rate Q1 or more at the time point X3 and the steady-state operation (101) is started, ahead of the time point x4 after the notification start time T2.
When the flow rate falls below the limit flow rate Q2 at the time point x10, the clogging display is turned on at this time point (x10), and from the time point (x3) that is equal to or more than the initial flow rate Q1 until the flow rate reaches the limit flow rate Q2 (x1).
0), the notification start time is set to T20.
(= 0.5 × T10). afterwards,
From the time point (x5) at which the flow rate becomes equal to or more than the initial flow rate Q1 again, in the integration operation, the integrated value is reset and the integration is started again. Thereafter, when the flow rate is lower than the deteriorated flow rate Q3 at the time when the notification start time T20 after the correction is performed (x6), the clogging display is turned on.

Next, the re-initialization operation (1) in the case where the integrated value T1 of the operation time learned and stored is smaller than the predetermined standard value T4.
02) will be described with reference to FIG. The integrated value T1 of the operation time learned and stored in the power-on initialization operation (100).
Is smaller than the predetermined value T4, the flow rate is equal to or more than the initial flow rate Q1, and from the time (x3) at which the steady operation (101) is started, the time (x5) at which the flow returns to the next Q1 or more, the second time is equal to or more than Q1. (X20), the re-initialization operation (10
Enter 2). In the re-initializing operation (102), the clogging display is kept off at the time (x21) after the notification start time T2 has elapsed, and the clogging display is turned on at the time (x22) below the limit flow rate Q2. T21 (= T11 × 0.5) obtained by multiplying a predetermined ratio (0.5) by multiplying T11 by a predetermined ratio (0.5) from the time (x20) at which the initial flow rate Q1 or more (x20) to the limit flow rate Q2. Is updated and stored as the notification start time. At the time (x7) at or above the next initial flow rate Q1, the operation enters the steady state operation (101) again,
The clogging display is turned on when the updated notification start time T21 has elapsed (x8).

Next, the operation of performing the pump reverse rotation operation for a predetermined time for each integrated operation time will be described with reference to FIG. The horizontal axis in the figure is time, and at the time point (y1), the operation of the operation panel (12) is started to start the pump normal rotation operation.
In the forward rotation operation of the pump, water flows in the direction of the arrow in FIG.
Garbage and the like contained in water flowing from the bathtub water into the filter (4) are captured. The operation time is counted as an integrated operation time, and is not integrated during the operation stop period (y2) to (y3). When the operation is stopped by the operation stop operation on the operation panel (12) after the operation integration time exceeds the predetermined time T30 (y4) (y5), the pump reverse operation is started immediately and during the predetermined time T40. After continuing, the pump operation is automatically stopped at the time (y6). The operation integration time is reset at the time of (y5), and integration is started again from the next operation start time (y7). In the pump reverse operation, a flow of water is generated in the direction of the arrow in FIG. 7, dust and the like trapped in the filter are removed by the flow of water flowing out of the filter into the bath, and discharged into the bath.

The value of T40 is selected to be as small as necessary so that the amount of dust captured by the filter is large and it is not difficult to remove the dust. Further, in the above embodiment, the pump reverse rotation operation is started when the accumulated operation time exceeds a predetermined time, but may be started when the number of operations exceeds a predetermined number. Also in this case, the number of times is selected as small as necessary so that the amount of dust trapped by the filter is large and it is not difficult to remove the dust. Also, T3
0 may be a fixed value, but when the ambient temperature is high, T30
May be reduced.

Next, the operation of learning the execution time of the pump operation and automatically performing the pump reverse operation after a predetermined time has been described with reference to FIG. The horizontal axis represents time, and y1 to y10 represent the length of one day. Each of the periods y2 to y3, y4 to y5, and y6 to y7 is a normal rotation operation period of the pump, and is a period during which the user operates and stops by the driving operation. This period is observed for several days, a period of y2 to y7 is estimated as a standard operation period, a reverse rotation operation is started at a time point of y8 after a predetermined T50 period from y7, and the operation is performed for a predetermined time period T40. Continue, end the reverse rotation operation at y9, and stop.

Next, FIG. 9 shows the construction of a second embodiment of a bubble tub generator (blow bath) having a clogging prevention device according to the present invention. The parts different from the first embodiment will be described. The three-way valve A (5) and the three-way valve B (8) are switching valves for switching the direction of the water flow generated by the pump (7). The three-way valve A (5) is connected to the A1-A2 conduction side, When the valve B (8) is set to the conduction side of B1 to B2, a water flow in the forward direction is generated, that is, a water flow is discharged from the discharge port (2) and sucked from the suction port (3). Conversely, three-way valve A (5)
When A1 to A3 conduction side and the three-way valve B (8) are B1 to B3 conduction side, the water flow in the opposite direction, that is, the water flow in the direction of suction from the discharge port (2) and the direction of discharge from the suction port (3), generate. Also, there is no pump motor forward / reverse rotation switching circuit (10) in the first embodiment, and the pump motor is driven in a fixed direction. Here, the three-way valve A (5) and the three-way valve B
(8) is used as flow path switching means.

The direction indicated by the arrow in FIG. 9 is the forward direction water flow, and the direction indicated by the arrow in FIG. 10 is the reverse direction water flow. The description of the clogging prevention operation is omitted because the forward water flow and the reverse water flow are the same operations except that they correspond to the pump normal operation and the pump reverse operation, respectively, in the first embodiment. I do.

[0032]

According to the present invention, the following effects are exhibited by the above configuration. According to the first aspect, since the drive time of the fluid pressurizing means is measured and the output of the flow rate detecting means is taken in during the driving of the fluid pressurizing means, the notification of the clogging is made in a sufficiently small clogging state. It is possible and it can always be used with good performance, so it is convenient.

According to the second aspect of the present invention, since the driving time of the fluid pressurizing means is measured and the output of the pressure detecting means is taken during the driving of the fluid pressurizing means, the clogging is performed in a sufficiently small clogging state. Can be notified and can always be used with good performance, so that it is easy to use.

In the third aspect, since the average flow rate is calculated by calculating the output of the flow rate detecting means, the clogging state can be accurately detected, and the apparatus can always be used with good performance, so that it is easy to use.

According to a fourth aspect of the present invention, the driving time of the fluid pressurizing means until the output of the flow rate detecting means changes from the first set value to the second set value is integrated. This makes it possible to report clogging and can be used with good performance at all times.

According to the fifth aspect, the user is notified in accordance with the output of the time integrating means. Therefore, it is possible to notify the clogging in a sufficiently small clogging state, and the device can always be used with good performance. Easy to use.

According to the present invention, when the output of the flow rate detecting means exceeds the first set value, the operation time is initialized and integration is started, and after the output falls below the second set value, the time integrating means is started. Since the output to the notification means according to the output of the filter, the clogging state of the filter, and repeatedly according to the filter cleaning, it is possible to continuously report the clogging,
Usability is good because it can always be used with good performance.

According to a seventh aspect of the present invention, when the integrated value of the drive time in the operation after learning and storing the integrated value of the drive time reaches a time obtained by shortening the learned value of the drive time by a predetermined ratio, the notifying means. , It is possible to notify the clogging in a sufficiently small clogging state, and it can be used with good performance at all times, so that it is easy to use.

According to an eighth aspect of the present invention, in the operation after learning and storing the integrated value of the driving time, before the integrated value of the driving time reaches the time at which the learned value of the driving time has been reduced by a predetermined ratio, When the output of the flow rate detecting means reaches the second set value, the learning value of the integrated value of the driving time is corrected, so that clogging progresses relatively quickly compared to the first learning value. , The learning value is corrected, an appropriate notification start time can be maintained for the change in the clogging progress state, and the apparatus can be used with good performance at all times, so that the usability is good. .

In the ninth aspect, when the integrated value of the learned driving time is smaller than a predetermined standard value, the learned value of the driving time is changed when the integrated operation of a predetermined number of times is initialized. The output to the notification means at the time when the time shortened by the predetermined ratio is reached is stopped, and the output to the notification means is performed at the time when the output of the flow rate detection means reaches the second set value. And the learning value of the integrated value of the driving time is corrected, so that if the first learning value is smaller than the standard value, an operation of re-initializing the learning value is performed. Since an appropriate notification start time can be maintained and the device can be used with good performance at all times, it is easy to use.

According to the tenth aspect, since the clogging of the filter can be removed by reversing the direction of the fluid flowing through the filter by the pressurizing direction switching means, the filter can always be used with good performance, so that it is easy to use.

According to the eleventh aspect, the fluid flowing through the filter is controlled by flow path switching means provided on the input side and the output side of the fluid pressurizing means arranged to switch the direction of the flow of the fluid passing through the filter. By reversing the direction, clogging of the filter can be removed, so that the filter can always be used with good performance, so that it is easy to use.

In the twelfth aspect, the driving time of the fluid pressurizing means is measured, and the direction of fluid flow is switched by driving the pressurizing direction switching means at every predetermined driving time. It is performed for every accumulated operation time of
Since the amount of dust and the like captured by the filter can be removed in a very small amount and can always be used with good performance, it is easy to use.

According to the thirteenth aspect, the direction of flow of the fluid is switched by driving the pressurizing direction switching means at every predetermined driving time according to the detected temperature. By increasing the frequency of the pump reverse operation, for example, clogging of the filter can be completely prevented, and the filter can always be used with good performance, so that it is easy to use.

According to a fourteenth aspect of the present invention, the driving time period of the fluid pressurizing means is measured, and the direction of fluid flow is switched by driving the pressurizing direction switching means at a time determined according to the driving time period. Therefore, the usage time of the day is estimated, and after use, the filter clogging due to reverse operation is automatically cleaned, and the garbage discharged into the bathtub by the cleaning is drained afterwards, so that clogging does not hinder bathing. Can be completely prevented.

[Brief description of the drawings]

FIG. 1 is a configuration diagram showing a normal rotation operation state according to a first embodiment of the present invention.

FIG. 2 is a timing chart showing a basic operation of the first embodiment of the present invention.

FIG. 3 is a timing chart showing an operation based on water pressure detection according to the first embodiment of the present invention.

FIG. 4 is a timing chart showing an operation of correcting a learning value according to the first embodiment of the present invention.

FIG. 5 is a timing chart showing a re-initialization operation according to the first embodiment of the present invention.

FIG. 6 is a timing chart showing a pump reverse operation operation according to the first embodiment of the present invention.

FIG. 7 is a configuration diagram showing a reverse rotation operation state of the first embodiment of the present invention.

FIG. 8 is a timing chart showing a pump reverse operation operation based on learning of a pump operation execution time according to the first embodiment of the present invention.

FIG. 9 is a configuration diagram illustrating an operation state of a forward water flow according to a second embodiment of the present invention.

FIG. 10 is a configuration diagram showing an operation state of a backward water flow according to the second embodiment of the present invention.

[Explanation of symbols]

 1. Bathtub 2. Discharge port 3. Suction port 4. Filter 5. Three-way valve A6. Flow sensor 7. Pump 8. 8. Three-way valve B Pressure sensor 10. 10. Pump motor forward / reverse switching circuit Control unit 12. Operation panel 13. 13. Display of clogging Timing means 15. Mean flow rate calculating means 16. Time integration means 17. Temperature detection means

──────────────────────────────────────────────────の Continued on the front page (51) Int.Cl. ⁷ Identification symbol FI Theme coat ゛ (Reference) B01D 37/04 B01D 29/36 B F24H 1/00 602 A 35/14 102 F Term (Reference) 3L024 CC02 DD01 DD27 DD32 EE16 FF04 FF16 GG02 GG23 GG38 GG41 GG50 HH02 HH03 HH42 4D064 AA11 BF02 BF40 DC06 DC09 DD01 DD15 4D066 BB32 EA02 EA03 EA06 EA08 EA12 EA13 EA14

Claims (14)

[Claims] 1. A flow path through which a fluid passes, a fluid pressurizing means provided in the flow path, a filter provided on an input side of the fluid pressurizing means, and a filter provided in the flow path In a fluid control device having a flow rate detecting means, and a control unit having a timing means and controlling the fluid pressurizing means and the flow rate detecting means, the control unit measures a driving time of the fluid pressurizing means and the fluid A fluid control device, wherein the output of the flow rate detecting means is taken in during the driving of the pressurizing means. 2. A flow path through which a fluid passes, a fluid pressurizing means provided in the flow path, a filter provided on an input side of the fluid pressurizing means, and an input side of the fluid pressurizing means. And a control unit for controlling the fluid pressurizing unit and the flow rate detecting unit, the control unit measuring a drive time of the fluid pressurizing unit. And an output of said pressure detecting means is taken in during driving of said fluid pressurizing means. 3. The fluid control device according to claim 1, wherein the control unit has an average flow rate calculating means for calculating an output of the flow rate detecting means and calculating an average flow rate during driving of the fluid pressurizing means. Fluid control device. 4. The fluid control device according to claim 1, wherein the control unit integrates the drive time of the fluid pressurizing unit until the output of the flow rate detecting unit changes from the first set value to the second set value. A fluid control device comprising time integrating means. 5. The fluid control device according to claim 4, further comprising a notifying unit for notifying a user, and wherein the control unit outputs to the notifying unit in accordance with an output of the time integrating unit. apparatus. 6. The fluid control apparatus according to claim 5, wherein the control unit initializes the operation time and starts integration when the output of the flow rate detection means exceeds a first set value, and The fluid control device outputs to the notifying means in response to the output of the time integrating means after the value falls below the set value of the fluid control apparatus. 7. The fluid control device according to claim 6, wherein, in the operation after learning and storing the integrated value of the drive time, the integrated value of the drive time is reduced by a predetermined ratio from the learned value of the drive time. The fluid control device outputs the information to the notification means when the fluid control device reaches the threshold value. 8. The fluid control device according to claim 7, wherein in the operation after learning and storing the integrated value of the drive time, the integrated value of the drive time is reduced by a predetermined ratio from the learned value of the drive time. The fluid control device is characterized in that, when the output of the flow rate detection means reaches the second set value before the time when the flow time has reached, the learning value of the integrated value of the drive time is corrected. 9. The fluid control apparatus according to claim 7, wherein when the integrated value of the learned operating time is smaller than a predetermined standard value, a predetermined number of integrated operations are initialized. Stopping the output to the notification means at the time when the learning value of the drive time has been reduced by a predetermined ratio, and when the output of the flow rate detection means has reached the second set value, A fluid control device which outputs to the notifying means and corrects a learning value of an integrated value of a driving time. 10. A flow path for passing a fluid, a fluid pressurizing means provided in the flow path, a filter provided on an input side of the fluid pressurizing means, and an output side of the fluid pressurizing means. A fluid control device, comprising: a flow rate detecting means provided in the apparatus; and a control unit for controlling the fluid pressurizing means and the flow rate detecting means, which has a pressurizing direction switching means. 11. A flow path through which a fluid passes, a fluid pressurizing means provided in the flow path, a filter provided on an input side of the fluid pressurizing means, and an output side of the fluid pressurizing means. Flow detecting means provided on the input side of the fluid pressurizing means arranged to switch the direction of the flow of the fluid passing through the filter, and flow path switching means provided on the output side, respectively, A fluid control device having a controller for controlling a fluid pressurizing unit, the flow rate detecting unit, and the flow path switching unit. 12. The fluid control device according to claim 10, wherein the control unit has a timer to measure the drive time of the fluid pressurizing unit and to drive the pressurizing direction switching unit every predetermined drive time. A fluid control device characterized by switching the direction of flow of a fluid by switching. 13. The fluid control device according to claim 12, wherein the control unit has a temperature detecting unit, measures a driving time of the fluid pressurizing unit, and controls a predetermined time according to a temperature detected by the temperature detecting unit. A fluid control device characterized in that a pressurizing direction switching means is driven every drive time to switch a direction in which a fluid flows. 14. The fluid control device according to claim 10, wherein the control unit includes a time measuring unit, and measures a driving time zone of the fluid pressurizing unit, and at a time determined according to the driving time zone. A fluid control device characterized in that a direction in which a fluid flows is switched by driving a pressurizing direction switching means.