KR100349333B1 - Water treatment apparatus - Google Patents

Abstract

PURPOSE: Provided is a water treatment apparatus capable of providing cold water with good quality in biomechanics aspect. CONSTITUTION: The apparatus comprises a water tank(21), a cooler(22) for cooling water in the water tank(21), a water treatment unit(23) installed under the water tank(21) for treating the water using magnetism and light beams, wherein the water treatment unit(23) includes a light beam generator for emitting light beams, a magnetism generator for electrically generating magnetism, a power supply for supplying power to the magnetism generator and the light beam generator, a power supply controller for controlling a driving voltage of the power supply so as for the driving voltage to give a cycle with constant peak point and bottom point which gradually increases or decreases, and a magnetism and a light beam projectors for projecting magnetism and light beams to the water in the water tank.

Description

Water treatment device

The present invention relates to a water treatment apparatus for making water having a biological or biochemically beneficial utility.

In recent years, water purifiers for improving the quality of tap water have been widely used in homes. These are known to be directly connected to the faucet using a ceramic filter, hollow fiber desert or electrolysis.

By these, the odor of chlorine in tap water is reduced, or water which is easy to drink to some extent is obtained.

By the way, water is not assumed that single molecules of H ₂ O are present independently, but at least 5 molecules of water are collected and present as a molecular group. This molecular group is called a classer.

According to the water analysis, it is a general orthodox that delicious water has few classers. This is explained by the fact that the smaller the classer, the easier it is to enter the tasted cells of the tongue.

In the filter-type water purifier using the ceramic filter or the hollow fiber yarn described above, the tap water-type water purifier is reduced by passing the tap water, or in the electrolytic water purifier, by decomposing the tap water into cations and anions.

This fact can be known from the water evaluation method called nuclear magnetic resonance spectroscopy, which can nondestructively view the structure and state of water molecules.

The filter or electrolytic water purifier described above has a function of reducing the smell of chlorine in the tap water or improving the taste of the tap water, but does not change the characteristics of the water to a biological or biochemical level.

Also, drinks are usually cold and taste good. Therefore, in the past, a cold water machine has been popularized so that beverages can be chilled at any time. Cold water, however, does not change the properties of the water with only the function of cooling the water.

SUMMARY OF THE INVENTION An object of the present invention is to provide a water treatment apparatus for producing physiologically good water or water for food processing by treating tap water in a special manner, and a water treatment apparatus capable of obtaining cold water in parallel.

In order to solve this problem, the present invention is a typical case in which a cold water machine is combined with a water treatment unit. In other words, it is provided with a water tank, a cooling part, and a water treatment unit, and this water treatment unit is based on the premise of irradiating water in a water tank with magnetic lines or light or both, and generates the magnetic force or light electrically.

For example, as shown in FIG. 8, the driving voltage is a voltage waveform pattern that periodically changes so that the peak point descends or rises sequentially at a constant constant point as one cycle, and the pattern cycle is repeated repeatedly. Control.

In response to the repetition of the voltage waveform pattern (hereinafter referred to as 'special waveform pattern'), magnetic force lines and / or light whose intensity changes periodically are irradiated to the water of the water tank from the magnetic force irradiator and / or the light irradiator.

From this water treatment, the water classter becomes considerably larger than usual, so that the water having a large classter has a biologically desirable utility. In addition, the water in the water tank is cooled by the cooling unit.

As a function of the chiller, the beverage is cooled to drink easily, and the water classifier of the water is increased from the water treatment device of the special waveform pattern, thereby obtaining various biologically useful effects such as stabilizing blood pressure and reducing hair loss.

It is also possible to directly exert the magnetic lines and / or light with respect to the water in the watertight and fixed water tank by exposing the magnetic line irradiation part or the light irradiation part to the inside from the window formed through the bottom wall or the side wall of the water tank. Alternatively, the magnetic line irradiation unit or the light irradiation unit can be fixed to the outside of the bottom wall or side wall of the water tank.

By the way, in the case of the magnetic line irradiation unit, it is preferable to configure at least the fixing portion as a nonmagnetic material in the water tank, and in the case of the light irradiation portion, the fixing portion is at least composed of a transparent material.

In addition, the magnetic field radiation unit and / or the light irradiation unit can be installed alone, it is also possible to install a plurality of things in the water tank at a suitable interval.

In addition, any one of magnetic force and light may be configured, or both magnetic force and light may be combined, or both the magnetic line irradiation unit and the light irradiation unit may be combined or separately installed, and the magnetic line and the light may be irradiated together to perform water treatment.

Another aspect of the present invention is the integral combination of the above-mentioned water treatment unit at the bottom of a water container capable of carrying water.

The water treatment unit irradiates water in the water container with magnetic lines of force and / or light of the above-mentioned special waveform pattern. For example, when a water container with a water treatment unit is placed in a refrigerator, and the water treatment is performed in that state, the water in the water container is cooled to be appropriately treated as a beverage, and as described above, a variety of living bodies are formed by water having a larger classer. An enemy effect is obtained.

1, a cooler 20 as a water treatment apparatus is shown as an embodiment of the present invention. The cooler 20 includes a water tank 21 for receiving water to be cooled, a cooling device 22 for cooling water in the water, and a water treatment unit for extending the magnetic force line or light to the water in the water tank 21 for water treatment. 23 is provided and they are accommodated in the case 24. As shown in FIG.

On the upper part of the case 24, a water supply tank 25 for supplying water to the water tank 21 is detachably disposed. In addition, a water injection nozzle (tap) 26 for injecting the water cooled and treated in the water tank 21 from the upper part of the case 24 is installed, and water is injected from the water injection nozzle 26 into the container 27. The operation button 28 is provided.

When the button 28 is pressed, water is injected from the water injection nozzle 26 into the container 27.

As shown in FIG. 2, the water supply tank 25 has its opening 29 closed by a lid 31. In the case of normal handling, the water supply tank 25 is usually handled so that the lid 31 is upward. When mounted to the cold water machine 20 is mounted in the inverted state by opening the lid 31.

This capacity is, for example, 50 cm in height and 50 cm in diameter, suitable for use with a capacity of about 40 liters.

3 is a diagram schematically showing a cooling device 22 and the like of the cold water machine 20 of FIG. The refrigerating circuit of the cooling device 22 is widely known and a predetermined refrigerant is compressed as the compressor 33. 34 is a temperature sensor. The compressed refrigerant is condensed together with the cooling of the fan 36 as the condenser 35, and the moisture and the like are absorbed by the dryer 37 mainly containing the desiccant, and the capillary tube 38 passes through. It reaches the abutment 39 in the water tank 21.

In the evaporator 39, the refrigerant expands to remove the heat of vaporization from the surroundings, thereby cooling the water in the water tank 21. Refrigerant expanded via the evaporator (39) is circulated to reach the compressor (33) via the strainer (41).

In the water tank 21, for example, a porous cylindrical member 40 made of ceramic or the like is disposed, and the above-mentioned averifier 39 is configured to wind this up. In addition, the upper portion of the porous cylindrical member 40 is provided with a connecting portion 42 for connecting the water supply tank 25.

The connection part 42 is mounted as the water supply tank 25 is inverted by opening the lid 31, and a connection valve (not shown) is opened to supply water from the water supply tank 25 to the cylindrical member 40. It is supplied to the water tank 21 via a porous side wall or bottom part.

In addition, when the operation button 28 is pressed, the electronic on / off valve 43 is opened, and the pump 44 is operated so that the cold water in the water tank 21 is introduced into the water injection nozzle 26.

In addition, as shown in FIG. 4, water may be introduced into the water tank 21 from the water pipe 32 instead of the water supply tank 25. FIG.

The water treatment unit 23 can be installed in, for example, a side wall or a bottom of the water tank 21. In the example of FIG. 3, the water treatment unit 23 is attached to the bottom of the water tank 21, and magnetic force or light is applied to the water of the water tank 21 via the bottom.

One embodiment of the water treatment unit 23 is shown in FIG. The water treatment unit 23 has a main body 3 in which a coil 2 is wound and assembled, and an electronic control unit 6 (hereinafter referred to as “control”) connected to the main body 3 via a cord 4 and a connector 5. And a cord (8) extending from the control unit (6) and connected to an AC power supply at the distal end thereof.

However, it is of course possible to equip the water cooler 20 with a common power cord for supplying power to the compressor 33, the pump 44, and the control unit 6 of FIG.

As shown in FIG. 6, the main body 3 has a box-shaped case 9, in which the coil 2 therein is fixed. The coil 2 functions as a magnetic force line generating means in this embodiment, and the conductor is wound around the iron core 10, for example, 2,000 times to form an electromagnet together with the iron core 10.

The end face of the coil 2 is covered with a synthetic resin film 12, and the coil end face and the upper opening of the case 9 are covered with a cover 13 having an investment property. Here, the coil 2 is fixed to the case 9 so that the iron core 10 faces in a substantially vertical direction in a state where the case 9 is placed on a horizontal plane, in other words, a magnetic force line is generated upward.

Next, the control unit 6 for controlling the driving power (voltage) of the coil 2 will be described with reference to FIG. First, the oscillation circuit 6b is configured as the digital integrated circuits IC1 and IC2, the resistors R1 and R2, and the condensers C2 and C3. The oscillation circuit 6b generates pulses of a required frequency.

Next, an analog signal generating circuit 6C is formed as the counter integrated circuit IC3, the analog voltage generating integrated circuit IC4, and the resistors R3-R11, and the circuit 6C is a triangular wave voltage signal 6e. Generates.

On the other hand, as the integrated circuit IC5 for the counter, the amplifiers IC6-IC9, and the resistors R15 to R18, a stepped wave generation circuit 6d is formed, which generates a stepped wave voltage signal 6f having a falling or rising pattern. Let's do it.

The circuit is configured so that the triangular wave voltage signal 6e and the stepped wave voltage signal 6f are added, and the added voltage is applied to the base of the transistor Tr1. Based on this, the transistor Tr1 changes the internal resistance corresponding to the voltage applied to the base.

Transistor Tr1 is connected to output transistor Tr2 which is connected to the multi-arling, and transistor Tr2 is driven by transistor Tr1. A transistor Tr3 which is driven in response to a change in the internal resistance of the transistor Tr2 is provided, and the transistor Tr3 is connected in series with the coil 2 described above.

In addition, the current flowing through the coil 2 is adjusted by Tr3 among the output transistors. The diode D3 is installed to protect the output transistor Tr3 against the reverse starting power of the coil 2. The control unit 6 uses an alternating current of 100 V, but is provided with a power supply circuit 6a for converting it into a constant voltage power supply.

The output voltage waveform of the control unit 6 is, for example, as shown in FIG. 8 (a) by the combination of the falling staircase wave and the continuous triangle wave when the falling wave is formed in the staircase wave generating circuit 6d. Likewise, the peak point is almost constant and the voltage point pattern changes periodically so that the bottom point sequentially descends.

More specifically, it becomes a sawtooth wave (triangular) voltage waveform pattern which cuts the peak point into 5V and lowers the bottom point stepwise, and the drive voltage is controlled to repeat this voltage waveform pattern in one cycle.

As the output waveform of the control unit 6, as the circuit constant is changed, the voltage waveform pattern as shown in FIG. 8 (b), in other words, the peak point is almost constant and the voltage periodically changes so that the bottom point rises sequentially. The drive voltage may be controlled so that the waveform pattern is made into one cycle and it is repeated.

In the example of FIG. 8, in the case of (a), the bottom point extends in a straight line and descends stepwise, and in the case of (b), the bottom point extends in a straight line and rises step by step. ), (f), the bottom points may be sequentially lowered (decreased) or raised (raised) in series with the curve such that the upper portion is an iron portion or the lower portion is an iron portion.

Also, as shown in FIGS. 8E and 8H, a pattern in which the plurality of waveforms descend or rise in stages is also possible. In addition, the pitch of the triangular waveform can be increased or decreased sequentially with the falling or rising of the bottom point, and the waveform is not limited to the triangular wave as described above. Alternatively, other waveforms such as sinusoidal waves can be used.

For example, the coil voltage control circuit of the control unit 6 may be connected to the diode D3 as shown in FIG. 9 by grounding the resistor R12 and omitting the transistor Tr2.

In addition, the circuit configuration of the control unit 60 shown in FIG. 10 is also acceptable. This circuit is provided with an oscillator (function generator) 64, a counter 61 of 10 to 16 rows, a D / A converter 62, and an amplifier 63. A triangular wave or a sine wave and a square wave (10 to 16 waves) are obtained from the oscillator 64, while the square wave is taken out as a falling wave or a rising wave via the counter 61 and the D / A converter 62.

By synthesizing this and the above-described triangular wave or sine wave and amplifying it as the amplifier 63, a voltage waveform as shown in Fig. 8A or 8B is output, and this becomes the driving voltage of the coil 2. The current flowing into the coil 2 is, for example, about 0.1 amps (maximum).

Next, the mounting form of the water treatment unit 23 to the water tank 21 will be described by way of example.

The example shown in FIG. 11 shows the bottom part of the water tank 21 shown in FIG. 1, FIG. 3, etc., and the water tank 21 is equipped with the cooling apparatus 22 mentioned above. The water treatment unit 23 is stored outside the bottom wall 46 of the water tank 21. The water treatment unit 23 is supported by the fixed base 47 and fixed to the bottom of the water tank 21 by bolts, nuts 48 and the like via the fixed base 47. Here, the water treatment unit 23 has, for example, a coil 2 as described above, and an upper surface of the coil 2 is located very close to the bottom wall 46 and is generated in the electronic control unit 6 as described above. The magnetic force whose intensity periodically changes in response to the voltage waveform pattern is reflected on the water in the water tank 21, and the water in the water tank 21 is cooled by the cooling device 22.

The electronic control unit 6 is connected to an external power supply 45, for example.

When the bottom wall 46 of the water tank 21 is formed of a nonmagnetic material such as stainless steel, the magnetic force lines generated by the coil 2 penetrate the bottom wall 46 and extend to the internal water. When the bottom wall 46 is made of a magnetic material, at least the portion 46a through which the magnetic force of the coil 2 penetrates is made of a nonmagnetic material (for example, stainless steel, plastic or the like).

In the example shown in FIG. 12, a window 49 penetrating the bottom wall 46 of the water tank 21 in the thickness direction is formed, and the coil 2 described above protrudes upward from the window 49. It is assembled to be exposed to the water in the water tank (21).

The coil 2 is fixed to the fixed base 47 while the surface of the coil 2 is covered with a waterproof film 50 and the fixed base 47 is sealed against the bottom wall 46 of the water tank 21. The watertight fixation is performed by the bolt and the nut 48 from the lower side via the member 56.

The coil 2 is controlled by the electronic control unit 6 installed at the hostile position so as to irradiate the water in the water tank 21 with the magnetic force of the special waveform as described above, and to cool the water 22 at the same time. By cooling.

In the example shown in FIG. 13, a plurality of coils 2 are fixed to the upper surface of the bottom wall 46 of the water tank 21. This coil 2 is not shown in detail, but is covered with a waterproof film. In the lower part of the bottom wall 46, the electronic control unit 6 common to the coil 2 is provided. Then, as described above, the magnetic force whose strength changes periodically is irradiated to the water in the water tank 21 as described above, and the water is cooled by the cooling device 22.

Further, the bottom of the water tank 21 may be constituted as a separate body as the partition member 53 and fastened to the main body portion of the water tank 21 by means of fastening means such as bolts and nuts 54.

14 shows an example in which the water treatment unit 23 such as the coil 2 described above is attached to the bottom wall portion, the side wall portion and the upper wall portion of the water tank 21, respectively.

Each water treatment unit 23 may be mounted on the outside of the top wall, the side wall, or the bottom wall of the water tank 21, or may be exposed to the inside.

In the example shown in FIG. 15, the water tank 21 is made of a magnetic material, but the tank portion corresponding to the mounting portion of the coil 2 is a mounting wall portion 55 made of a nonmagnetic material, and the detachable wall portion 55 is formed. The coil 2 is fixed to the outer surface of the.

The mounting wall portion 55 and the main body portion of the water tank 21 are tightly joined by fastening means such as bolts and nuts 57 via the sealing material 56. 16 shows an example of the front view.

In the above description, the water treatment unit mainly based on the magnetic force generating means such as the coil 2 is described. Next, the water treatment apparatus based on the light generating means will be described.

17 shows the water treatment unit 123 according to the light generating means, which is mounted on the bottom wall 46 of the water tank 21. As shown in FIG. As this generator (light source), for example, an incandescent lamp, a light emitting diode, a discharge tube, or the like can be used, and the driving voltage thereof is controlled as the electronic control unit 6.

Since this control unit 6 is substantially the same as that of the above-mentioned coil 2 shown in FIG. 7, the same reference numerals are used to show corresponding relationships.

In other words, instead of the coil 2 of the circuit, as shown in FIG. 20, a light-emitting body 30 such as a light bulb is provided. Therefore, as shown in FIG. 8, the driving voltage applied to the light-emitting body 30 is also repeated in a single pattern of waveforms having a substantially constant peak point and sequentially descending or rising bottom point. Light periodically changing in response to the voltage reaches water in the water tank 21 shown in FIG.

When the bottom wall 46 of the water tank 21 is made of a light transmissive material (for example, a light transmissive plastic material) or the like, the light generated from the light emitter 30 penetrates the bottom wall 46 so as to penetrate the water tank 21. In the case where the bottom wall 46 is not a light-transmissive material, as shown in FIG. 17, the portion corresponding to the mounting portion of the light-emitting body 30 is used as the light-transmissive bottom wall portion 73, which is the main body of the bottom wall 46. Bolts, nuts 74 and the like tightly coupled.

In addition, an opening 75 is provided in the main body of the bottom wall 46 in correspondence with the translucent bottom wall 73. The light-emitting body 30 is fixed to the fixed base 76 and fixed to the bottom wall 46 together with the above-mentioned translucent bottom wall 73.

The fixed base 76 is also supported with an electronic control unit 6 having a control circuit as shown in FIG. 20, which is connected to an AC power source 45, and the electrical special pattern generated in the light-emitting body 30. The light is transmitted to the water in the water tank 71 via the light-transmissive bottom wall 73, and the water treatment is performed, and the water is cooled by the cooling device 22.

FIG. 18 shows an example in which the water treatment unit 23 that presupposes such light generating means is installed so as to be exposed therein from the side wall, the bottom wall, or the upper wall of the water tank 21, and the like.

For example, an opening (window) 78 is provided on the side wall of the water tank 21, and the light-emitting body 30 installed on the fixed base 76 intersects with the water-transparent waterproof cover 79 and the water from the opening 78. Exposed to expose inside the tank 21.

The fixed base 76 is fixed to the outer surface of the side wall of the water tank 21 so as to be watertightly sealed via the sealing member 81 by the stud bolt 80 or the like placed therein. 82 is a nut.

The electronic control unit 6 may be fixed to the fixed base 76 or may be provided in a separate place and electrically connected to the light emitting body 30.

19 shows an example in which a plurality of water treatment units 23 based on light as described above are connected to the side wall of the water tank 21 at a predetermined interval, and a plurality of one circumferences are arranged at a predetermined height of the side wall. Good

As indicated by an imaginary line, two or more circumferences can also be installed in mutually different height of a side wall. This arrangement is not limited to the light-based water treatment unit 23 but may be replaced with the water treatment unit 23 based on the magnetic force described above.

For example, a plurality of light-based water treatment units 23 are mounted on the bottom wall 46 of the water tank 21 as shown in FIG. 13, or as shown in FIG. It is also possible to install on the top wall, the side wall, and the bottom wall of 21).

As another embodiment, as shown in FIG. 21, it is also possible to connect the coil 2 and the light-emitting body 30 such as an incandescent lamp in series. Here, the structure in which the coil 2 and the light-emitting body 30 are arranged side by side with respect to the case 9 as shown in FIG. 22 or around the coil 2 as shown in FIG. Various designs, such as a structure in which the plurality of light emitters 30 are disposed, can be performed.

For example, the water treatment unit to which the magnetic force and the light are added is illustrated in FIGS. 1, 3, 11, 12, 13, 14, 15, 17, 18, and 19. It is possible to attach to the water tank 21 by the same arrangement as the water treatment unit 23 of FIG.

As shown in FIG. 8, the magnetic force or light of the pattern in which the bottom point is sequentially lowered or the pattern in which the lower point is sequentially raised reaches the water of the water tank 21 to perform water treatment. One cooling is done.

Further, as shown in FIG. 21, the coil 2 and the light emitter 30 are not connected in series, for example, the water treatment unit 23 based on the magnetic force as shown in FIG. It is also possible to mount the water treatment unit 23 based on light as shown in FIG. 20 separately to the water tank 21, respectively.

For example, in FIG. 11, it is also possible to provide the water treatment unit 23 by magnetic force and the water treatment unit 23 by light adjacent to the bottom wall part 46 of the water tank 21 side by side. In addition, in FIG. 13, a form in which one or two or more of the plurality of coils 2 is replaced with a light-based water treatment unit 23, and the water treatment unit 23 by magnetic force and the water treatment unit 23 by light are mixed. It is also possible.

In addition, in FIG. 14, it is also possible to mix the thing by magnetic force with the thing with respect to the some water treatment unit 23.

Also in Fig. 19, for example, a form in which the water treatment unit 23 by magnetic force and the water treatment unit 23 by light are alternately arranged may be employed.

In addition, as shown in FIG. 24, it is also possible to cool water by the cooling device 22 and water treatment by the water treatment unit 23 while stirring the water in the water tank 21. As shown in FIG. As the stirring means, for example, it is possible to use a screw type stirring device having a screw 83 driven as the motor 84.

When cooling and water treatment are performed while stirring the water in the water tank 21 in this way, the efficiency of the cooling and water treatment increases, for example, it is possible to shorten the required water treatment time.

In the example shown in FIG. 25, the bottom wall of the diaphragm 85 and the water tank 21 which does not have a dedicated drive source is provided so that it may be installed. As shown in FIG. 26, the diaphragm 5 includes a movable plate 86 made of ferromagnetic material such as waterproofed iron and a skirt portion 87 made of an elastic body such as rubber bonded to the bottom surface thereof. The part 87 is provided with a plurality of through holes 88 for distributing water.

A water treatment unit 23 having a coil 2 as a magnetic force generating means is provided below the bottom wall 46 of the water tank 21 so as to face the movable plate 86 of the diaphragm 85.

Then, the water treatment is performed by the change of the magnetic force as the coil 2 is driven, and the movable plate 6 of the diaphragm 85 moves up and down by the change of the magnetic force, and the through hole 88 of the skirt portion 87 is moved. The water in the water tank 21 is agitated by the water treatment of the coil 2 by being pushed out or sucked from the water).

An embodiment of the form without a cooling device is shown in FIGS. 27 to 29. FIG.

In FIG. 27, the receiver 90 is capable of receiving and carrying water to be treated, for example, molded of synthetic resin material. The upper opening 91 is closed by, for example, a threaded lid 92, and the receiver 90 is provided with a handle 93 to facilitate its transport and watering.

Under the bottom wall 94 of this container 90, the water treatment unit 23 provided with the coil 2 and the electronic control unit 6 mentioned above is stored. The power cord 95 extends from the water treatment unit 23 so that the outlet 96 at its tip is connected to a predetermined AC power source or the like so as to the coil 2 via the electronic control unit 6 as described above. Similarly, a magnetic wave line of a special waveform is generated, and this magnetic force extends to the water in the receiver 90 via the bottom wall 94.

28 shows an example of a mounting structure for the receiver 90 of such a water treatment unit 23. As shown in FIG. For example, the coil 2 and the electronic control unit 6 are fixed to the fixed base 96, which is fixed as the screw member 98 with respect to the screw accommodating portion 97 provided at the lower end of the receiver 90.

As a result, the upper surface of the coil 2 is close to the magnetic wall 94 of the receiver 90, and the magnetic force generated in the coil 2 acts on the water of the receiver 90 via the bottom wall 94. 99 is a protruding point shaped base.

In addition, the on / off switch 100 of the power supply 90 outside the receiver 90, an adjustment control unit (switch or dial, etc.) 101 for adjusting the strength of the magnetic force generated by the coil 2, and a timer for setting the water treatment time. At least one of 102 and the like can be provided.

When the receiver 90 with the water treatment unit described above is used, it is possible to use it as a simple water treatment apparatus that performs water treatment simply by putting water therein and connecting it to a power source.

After the water treatment, it is also possible to cool it by putting it in a refrigerator or the like, but it is also possible to perform the water treatment while cooling the receiver 90 in the refrigerator.

After filling the receiver 90 with water and closing the lid 92, this receiver 90 is placed in the refrigerator 104, for example as shown in FIG. The cord 95 is plugged into the outlet 105 (or another outlet) of the refrigerator 104, and the lid 106 is closed.

Since the joint portion 107 of the lid 106 and the main body is generally made of a soft sealing material such as rubber sealing, there is no problem even if the power cord 95 penetrates through it. In this state, the water in the container 90 is cooled by the cold air of the refrigerator 104 and the water in the container is attached to the water in the container by the water treatment unit 23 attached to the container 90, for example, the coil 2 described above. The magnetic force from the car is insulated and treated.

As a result, the water in the receiver (0) is cooled and simultaneously treated with water.

In the water treatment unit 23 of FIG. 28, it is also possible to replace the coil 2 with a light emitting body such as an incandescent lamp. In that case, at least a portion of the receiver 90 through which light of the light emitter passes is configured as a light transmitting material.

In the example shown in FIG. 31, at least one contact portion 109 for power connection is provided on the lower surface of the receiver 90 with the water treatment unit 23, while the refrigerator 90 has the receiver 90 attached thereto. The container mounting part 110 for mounting is provided, and the container mounting part 110 is provided with the contact part 111 for power connection.

Since the receiver 90 is installed in the container placing unit 110 in a state of being positioned by the positioning unit 112, the contact unit 109 on the container 90 side and the contact unit on the container placing unit 110 side ( 111). As a result, a current for magnetic force or light generation is supplied from the refrigerator 104 to the water treatment unit 23 of the receiver 90.

Therefore, in this embodiment, the water treatment is performed without the need for winding up a power cord or the like by simply placing the receiver 90 in the container placement unit 110 of the refrigerator 104.

In this case, the electric current is supplied from the electric control unit 113 of the refrigerator 104 itself via the electric and electronic control unit 6 to the water treatment unit 23 of the receiver 90. The electric control unit 113 supplies electric power to the motor 116 which turns the compressor 114 to drive the refrigeration circuit 115 having the compressor 114 and the like, and simultaneously supplies power to the water treatment unit 23 side. Will be supplied.

However, as shown in FIG. 32, the water treatment unit 23 is not installed in the receiver 90, but the water treatment unit 23 is installed in the refrigerator 104, and the container 90 is provided in the container mounting unit 110. As shown in FIG. When mounted, it is also possible to employ a structure in which an elastic member 117 such as a spring is contracted to close the switch 118 for operating the water treatment unit 23.

In this case, the receiver 90 serves as a cooling water tank and the refrigerator 104 serves as a cooling unit for cooling the water contained in the water tank. Moreover, as shown in FIG. 33, the sensor 120 which detects mounting of the container 90 in the container mounting part 119 of the refrigerator side in which the container 90 was mounted is provided, and this sensor 120 is turned ON. It is also possible to configure the circuit of the electronic control unit 6 to supply the drive current to the water treatment unit 23 when it is in the state.

Finally, an experimental example showing the effect of the water treatment of the present invention will be described.

The treated water irradiated (projected) with periodically changing magnetic force was measured by NMR (nuclear magnetic resonance scanner) spectroscopy. This NMR spectroscopy makes it possible to observe the structure and state at the molecular level of water without destroying the molecule.

In other words, water is expressed as H ₂ O, but the atomic nucleus of hydrogen ( ¹ H) or oxygen ( ¹⁷ O) can be observed by NMR spectroscopy to understand the behavior of water at the molecular level.

As mentioned above, water cannot exist as a single molecule and constitutes a population of at least 5 molecules called a classer, and the lifespan (change in size) of the classer is an extremely short moment of 10 ^-12 seconds (1pico-sec). Here, untreated and treated water were analyzed and evaluated by ¹⁷ O spectroscopy, which observes nuclear power.

(Water analysis test by NMR measurement)

(1) measurement

* Number of use:

Japan Pharmaceutical Defense uses purified water and Public Pharmaceutical Co., Ltd. products.

* Sample (sample):

80 ml of the purified water is used as untreated water, and 80 ml of the purified water is subjected to self-irradiation for 2 hours in a state of natural standing by the above-described water treatment apparatus (FIGS. 1, 27, etc.).

* Time from sample preparation to NMR measurement experiment:

This measurement is performed on day 40 after sample preparation.

* Measuring conditions

Core: ¹⁷ O

Measuring frequency: 36.6 Mhz

Measuring Method: SGNON

Pulse width: 21 μ sec (90 degree pulse)

Repeat time: ACQTM = 0.102 sec PD = 0.100 sec

Total number of times: 1,000 times

Measuring temperature: 20.0 degrees Celsius

The results of such NMR measurements are shown as a graph in FIG. 34. In this graph, the broken line is untreated water and the solid line shows spectral signals of ¹⁷ O-NMR of the treated water, respectively.

This shows that the line width of the spectral signal of the treated water is wider than that of the untreated water. The half width of the spectrum is 62.56 Hz for untreated water and 70.81 Hz for treated water, which becomes the respective line widths inherent in untreated water and treated water.

Here, each line width is inversely proportional to the time until the atomic nucleus ( ¹⁷ O), which absorbs the energy used in the NMR observation, releases the energy (called 'relaxation time'). As the classifier, the water molecule group, becomes large, and the molecular motion is slowed, the relaxation time is shortened. Therefore, the line width of the signal of the NMR spectrum becomes large.

After all, wider line widths mean that the ratio of large classters on average increases in the number of treated water.

In general, water classifiers are known to break down the bonds of molecules due to the application of weak energy such as ultrasonic waves, radio waves, and low frequency vibrations from the outside, resulting in shorter classers. In a shorter time, it returns to its original molecular state.

On the other hand, in this test result, it should be noted that the water treatment apparatus irradiating the magnetic wave produces the reverse result of the water classter becoming large, and the large classter state is maintained even after 40 days after the treatment. have.

The following facts were observed for the water treated with the water treatment apparatus (FIGS. 1, 27, etc.) of this embodiment.

(1) Beverage, cooking relations

When this treated water was used as a beverage, the taste of the water or the taste of the dish cooked therein was changed.

(2) biological cortex

When this treated water is consumed as a beverage or cooked for a relatively long time (for example, more than one month), the following facts occur.

① The bleeding has stopped from the gums

② hair loss has decreased.

③ blood pressure is stable.

(4) The odor of feces also decreased in humans, and the smell in the house (mainly ammonia) also decreased in indoor dogs.

Also in the case of the water treatment by irradiation of light described above instead of the magnetic force, the same effect as in the case of the magnetic treatment of water is obtained, and the water treatment unit shown in FIGS. 22 and 23 is irradiated with the magnetic force and the light together. Even when used, the same effect is generally obtained.

1 is an overall configuration diagram of a water treatment device which is an embodiment of the present invention.

2 is a perspective view showing a water supply tank.

3 is a schematic view of the configuration of the water treatment device of FIG.

4 is a schematic diagram showing a modification of FIG.

5 is a perspective view showing an example of a water treatment unit using magnetic force generating means.

6 is a perspective view showing a coil portion.

7 is a circuit diagram showing one embodiment of an electronic circuit of a water treatment unit.

8 is a waveform diagram showing a waveform pattern of a drive voltage of a water treatment unit.

9 is a circuit diagram showing a modification of FIG.

10 is a configuration diagram showing a modification of another example of the electronic circuit of the water treatment unit.

11 is a sectional view showing an example of attachment of a water treatment unit to the bottom of a water tank.

12 is a sectional view showing an example of attachment of another embodiment to its bottom;

13 is a sectional view of another embodiment of the bottom thereof.

14 is a schematic diagram showing an example where water treatment units are arranged on the upper wall, the side wall and the bottom wall of the water tank.

Fig. 15 is a sectional view showing an example of attachment of a water treatment unit provided on the side of the water tank.

FIG. 16 is a front view of FIG. 15. FIG.

Fig. 17 is a sectional view showing an example of attachment when a light irradiating water treatment unit is provided at the bottom of the water tank.

18 is a sectional view showing an example of attachment when a light irradiating water treatment unit is provided on the side of the water tank.

19 is a schematic diagram showing an example in which a plurality of water treatment units are installed on the side wall of the water tank.

20 is a circuit diagram showing an example of an electronic circuit of a light irradiation type water treatment unit.

21 is a circuit diagram showing an example of an electronic circuit of a water treatment unit for irradiating magnetic force and light together.

Fig. 22 is a diagram for explaining the configuration of the coil and the light emitting unit in the water treatment unit using magnetic force and light.

23 is a plan view of a case where light emitters are disposed around a coil;

24 is a schematic diagram showing an example in which a screw-type stirring means for stirring water in a water tank is provided.

25 is a schematic diagram showing an example in which a diaphragm type stirring means is disposed.

26 is a view showing only the diaphragm is taken out.

27 is a front view showing an example in which a water treatment unit is assembled to a transportable container.

28 is an exploded cross-sectional view showing an example of a structure in which a water treatment unit is attached to the bottom of the receiver.

Fig. 29 is a sectional view showing the mounting state described above.

30 is an explanatory diagram of a configuration in which water treatment is performed by receiving the receiver of FIG. 27 in a refrigerator.

FIG. 31 is a schematic diagram when the power supply connection of FIG. 30 is performed by a contact switch. FIG.

32 is a schematic diagram when a water treatment unit is installed on the refrigerator side and the switch is turned on in accordance with the installation of the receiver.

33 is a schematic diagram when the switch of FIG. 32 is replaced with a sensor.

34 is a graph showing the experimental results of the water treatment of the present invention.

Explanation of symbols used in the main part of the drawing

6: electronic control unit 20: water cooler (water treatment device)

21: Cool Tank 22: Cooling System

23: water treatment unit 25: water supply tank

30: light emitting body 46: bottom wall

49: window 60: electronic control unit

73: translucent bottom wall 83: screw

85: diaphragm 86: movable plate

90: receiver 95: power cord

104: refrigerator 109,111: contact portion

110: container housing

Claims (8)

To treat the water tank for cooling, the cooling unit for cooling the water contained in the water tank, and the water in the water tank by using magnetic force and light selectively or together; Magnetic force generating means for electrically generating magnetic force and light generating means for generating light, voltage supply means for supplying driving voltage to the magnetic force generating means and light generating means, and the peak point is substantially constant, and the bottom point descends sequentially Or a voltage control means for controlling the driving voltage so that the voltage waveform pattern periodically changes so as to go up and repeats the pattern cycle, and magnetic force and light generated by the magnetic force generating means in water in the water tank. A magnetic force irradiator and a light irradiator provided in a state capable of irradiating the light generated by the generating means, wherein the cooling unit cools the water in the water tank, and at the same time the intensity is periodically corresponding to the repetition of the voltage waveform pattern. A water treatment unit that irradiates water in the water tank with varying magnetic force and light to perform water treatment In the water treatment apparatus having; The water treatment unit 23 is fixed to the outer lower side of the bottom wall 46 of the water tank 21, When the bottom wall 46 of the water tank 21 is made of a magnetic material, at least a portion through which the magnetic force of the coil 2 of the water treatment unit 23 penetrates is made of a nonmagnetic material and is mounted. Device. A transportable receiver for receiving water to be treated, a magnetic force generating means for generating the magnetic force and an optical generating means for generating light, which are integrally mounted to the bottom of the receiver and perform water treatment; And a voltage supply means for supplying a driving voltage to the light generating means, and a voltage waveform pattern that periodically changes so that the bottom point sequentially descends or rises at a constant peak point as one cycle, and repeats the pattern cycle. A voltage control means for controlling a driving voltage, a magnetic force irradiator and a light irradiator for irradiating water in the receiver with magnetic force and light generated by the magnetic force generating means and the light generating means, in response to repetition of the voltage waveform pattern; The magnetic force and light whose intensity periodically changes are irradiated to the water in the receiver to In a water treatment apparatus for performing; The receiver 90 is a molded body that can receive and transport water, A water treatment unit 23 having an electrically driven coil 2 and an electronic control unit 6 is stored on the bottom wall, Adjustment operation unit 101 for adjusting the strength of the magnetic force generated in the power on / off switch 100, the coil 2 to the outside of the receiver 90 to be electrically connected to the water treatment unit 23, water treatment time Water treatment apparatus, characterized in that it further comprises at least one of a timer (102) for setting the. A transportable receiver containing water to be treated, and integrally mounted at the bottom of the receiver for water treatment; The magnetic force generating means for generating the magnetic force and the light generating means for generating the light selectively or together, the voltage supply means for supplying the driving voltage to the magnetic force generating means and the light generating means, and the bottom point is almost constant A voltage control means for controlling the driving voltage so that the voltage waveform pattern periodically changes so as to sequentially descend or rise, and repeats the pattern cycle, and the magnetic force and light generated by the magnetic force generating means and the light generating means A water treatment apparatus including a magnetic irradiating portion and a light irradiating portion for irradiating water in the container, and irradiating water in the container with water and magnetic force whose intensity periodically changes in response to repetition of the voltage waveform pattern. In; Refrigerator 104 having at least one contact portion 109 for power connection and a container mounting portion 110 for placing the receiver 90 on a lower surface of the receiver 90 with the water treatment unit 23. By having the contact portion 111 for power supply connection of The water treatment device characterized in that the water treatment is performed by supplying power to the water treatment unit (23) as a current from the electric control unit (113) of the refrigerator (104) itself. The method of claim 3, wherein The water treatment unit 23 is installed in the refrigerator 104 in place of the water treatment unit of the receiver 90, The water treatment device characterized in that the power is interrupted by the water position (118) operating by the container 90 is placed on the container placing portion (110) formed in the refrigerator (104) to perform the water treatment. The method of claim 1, A window 49 penetrating the bottom wall 46 of the water tank 21 is formed, and the coil 2 of the water treatment unit 23 is provided with a waterproofing means such as covering the film 50 from the window 49. Protruding upward to seal the assembly so as to be exposed to the water in the water tank (21). The method of claim 1, The plurality of coils 2 are watertightly fixed to the upper surface of the bottom wall 46 of the water tank 21 by a waterproof film or the like, and the electronic control unit common to the plurality of coils 2 is disposed below the bottom wall 46. 6) characterized in that the water treatment device is installed. In each of Claim 1, 5, 6, The water treatment unit (23) is a water treatment device, characterized in that it can be configured to be mounted to each of the bottom wall portion, side wall portion and the upper wall portion of the water tank (21). According to claim 1 and 5, 6, 7, The water treatment unit 23 is characterized in that the water treatment unit for generating light and the water treatment unit for generating magnetism can be used selectively or together.