KR100788766B1 - Producer for anion and aromatic - Google Patents

Abstract

A producer for anion and aromatic is provided to make rock salt containing a plenty of various minerals emit anions naturally, and to spray aromatic periodically with a control unit simultaneously. A producer for anion and aromatic includes a housing, rock salt(3), a receiving member(4), an aromatic sprayer(5), and a control unit(6). The receiving space is formed in the housing, and a path is formed to penetrate to make the anion generated in the receiving space discharged to the outside. The rock salt is received into the housing. Holes are penetrated on the outer circumference of the receiving member. The aromatic sprayer is installed on the receiving space, and a nozzle of the aromatic sprayer is installed to be exposed to the outside. The control unit pushes a discharge pipe of the aromatic sprayer according to input time.

Description

Anion and fragrance feeding device {Producer for anion and aromatic}

1 is a front view of the feeding device of the present invention

Figure 2 is a side view of the feeder of the present invention

3 is a plan view of the feeder of the present invention

Figure 4 is a side cross-sectional view showing the inside of the supply apparatus of the present invention.

Figure 5 is an enlarged view showing a storage compartment locking structure of the housing according to the present invention

6 is a view illustrating a state in which the first storage chamber is opened by rotating the second storage chamber of the housing according to the present invention;

7 is a cross-sectional view showing a control means by cross sectioning the second storage chamber of the present invention;

8 is a cross-sectional view showing an anion supply structure by cross sectioning a first storage chamber of the present invention;

9 is a system diagram of the control means for injecting the fragrance according to the present invention.

Explanation of symbols on the main parts of the drawings

1: Anion and fragrance supply device 2: Housing

3: rock salt 4: storage member

5: fragrance injector 6: control means

7: blower fan 8: motor

The present invention relates to a supply device capable of simultaneously supplying an anion and a fragrance, and in particular, a rock salt rich in various minerals causes the anion to spontaneously spin, and also allows the fragrance to be periodically sprayed by a control means, thereby allowing the anion and the fragrance to flow. It relates to an anion and a fragrance feeder capable of supplying each or simultaneously.

When the cation is absorbed into the body, the cell activity in the body is weakened, the cells are not normally absorbed nutrients, as well as the ability to excrete waste is known to cause various diseases in the human body.

Negative ions neutralize the toxicity of contaminated cations in the air, so when the anions are absorbed by the human body, the body fluid becomes weakly alkaline and the body metabolizes, reducing fatigue, autonomous nerves, stabilizing mind and body, Improves immunity, improves resistance to illness, and improves health.

Due to the advantages of such anions, anion generators have been developed even in the conventional case. Conventional negative ion generators emit energy in the air at high speed with energy enough to cause ionization of electrons that have been negatively charged by corona discharge, which breaks down the insulation of the air layer by applying a negative voltage using thousands of volts. This is the principle of ionization.

Therefore, the conventional negative ion generating device generates negative ions only when the power source is used. Therefore, the negative ion generator cannot be used in a place where the power is not supplied.

First of all, the production of anion generating device to generate negative ions by electricity supply has a disadvantage in that it takes a lot of cost and time and is not easy to artificially manufacture.

Accordingly, the present invention is to solve all the problems of the conventional anion generating device, the object is to let the natural salt of the salt salt rich in a variety of minerals to spontaneously spin the anion, and to spray the fragrance periodically by the control means An anion and fragrance supply apparatus capable of supplying anion and fragrance separately or simultaneously.

Such an anion and fragrance supplying device includes a housing formed with a receiving space and a passage through which an anion generated in the receiving space can be discharged to the outside;

A rock salt stored inside the housing and in which negative ions generated in the housing are discharged through the passage;

A storage member for storing the rock salt therein and having a hole penetrating through an outer circumference thereof so that negative ions generated from the rock salt may be discharged to the outside;

A fragrance injector installed in the accommodation space and having a nozzle thereof exposed to the outside of the housing to inject the stored fragrance through the discharge pipe according to a set timing condition;

And control means for controlling the injection interval time by pressing the discharge pipe of the perfume injector according to the input time so that the perfume injector can automatically inject the perfume at a predetermined time interval.

Hereinafter, with reference to the accompanying drawings will be described in detail the configuration of the anion and fragrance supply apparatus according to the present invention.

1 is a front view of the feeder of the present invention, FIG. 2 is a side view of the feeder of the present invention, and FIG. 4 is a side cross-sectional view showing the inside of the feeder of the present invention. 6 is a view showing a state in which the first storage chamber is opened by rotating the second storage chamber of the housing according to the present invention, and FIG. 7 is a cross-sectional view showing a control means by cross-sectional view of the second storage chamber of the present invention. 8 is a cross-sectional view showing an anion supply structure by cross sectioning a first storage chamber of the present invention, and FIG. 9 is a system diagram of a control means for injecting a fragrance according to the present invention.

As shown in the figure, the anion and fragrance supplying device 1 of the present invention is housed in the housing 2, the interior of the housing 2, the rock salt 3 that generates negative ions, and the rock salt 3 housed therein. Control means for controlling the member 4, the perfume injector 5 contained in the housing 2 and injecting the perfume liquid stored therein, and the perfume injector 5 to automatically spray the perfume at a predetermined time interval ( 6).

On the other hand, in the anion and fragrance supply device 1 of the present invention, a blower fan 7 for smoothing anion radiation of the rock salt 3 is housed inside the inner tube of the housing member 4, and the blower fan 7 ) Is rotated by the motor 8 connected to the shaft 7a to promote the discharge of negative ions generated in the rock salt 3.

In addition, the anion and fragrance supply device 1 of the present invention is installed inside the inner tube of the accommodating member 4 while having a lighting function to increase the temperature to increase the ion generation efficiency of the rock salt (3) is further installed It includes being.

The housing 2 is provided with a first storage chamber 21 for storing the rock salt (3) at the bottom, the second storage chamber 22 for mounting the fragrance injector 5 and the control means 6 thereon It is rotatably installed by this hinge 23, and is comprised so that the 1st storage chamber 21 can be opened and closed. In addition, the housing 2 is fastened and detachably assembled to the base 24 under the first storage chamber 21.

The housing 2 is made of a material that does not rust in consideration of storing the rock salt (3), preferably using a synthetic resin material.

The first storage chamber 21 is formed in a cup shape with an upper portion opened, and a transparent window 25 including a plurality of tempered glass so that the rock salt 3 stored therein is visible in the front, and the rock salt at the periphery part. A plurality of passages 26 are penetrated so that the negative ions generated in (3) can be discharged to the outside, and holes 27 penetrate the bottom surface so that the debris of the rock salt 3 can be discharged downward.

The second storage chamber 22 is a place where the fragrance injector 5 and the control means 6 are installed, and is rotatably installed on the first storage chamber 21 by the hinge 23, and the hinge 23. In the position opposite to), as shown in Figure 5, the hook 27 is installed, the hook 27 is inserted into the locking groove 28 of the first storage chamber 21 is locked or released.

The cover 29 is installed on the second storage chamber 22 to open and close the fragrance injector 5 and the control means 6.

The pedestal 24 is formed in a wider shape so that the housing 2 can be stably supported, and a drawer 24a for storing the residues of the rock salt 3 is slidably installed at a central portion thereof.

The rock salt (3) is a very important element to provide negative ions to the human body by naturally radiating negative ions in the state accommodated in the receiving member (4).

The rock salt (3) is a salt in the form of lumps collected from the basement of the Himalayan mountains, and is known as natural rock salt of high quality rich in various minerals.

In other words, the Himalayan rock salt is not a type of salt by burning, such as evaporation and bamboo salt of the existing seawater, but is a salt of a natural state captured in an underground mine of about 2000m in an alpine region of Himalayas. This rock salt is a natural product of the seawater of the Himalayan Tesuchi Sea, which was produced about 350 million years ago, and is richer in minerals than traditional salts. It is included, and it is a high quality crystal that makes you feel the mild taste that wraps around your mouth when you take it.

Each composition constituting such Himalayan rock salt and the content of the composition will be described in detail in the following table.

First, <Table 1> is a test data commissioned by the Korea Food Research Institute (June 16232) on June 18, 2002. It is the result of powdered salt (light pink fine salt) processed with Himalayan rock salt.

<Table 1>

  Test result   Test Items unit Sample classification Result   Sodium chloride % 92.26 Total goat % 63.54 moisture % 0.02 Insoluble matter % 0.07 Sulfate ion % 0.13 4 minutes % 0.03 arsenic mg / kg Not detected lead mg / kg Not detected cadmium mg / kg Not detected Mercury mg / kg Not detected

<Table 2> is the test data requested by Korea Testing and Research Institute on June 29, 2002 (accession number: TAK-012701).

<Table 2>

Test result Test Items unit Sample classification Result Test Methods Sodium chloride % 82.2 Total goat % 60.2 moisture % 0.00 Insoluble matter % 0.01 Sulfate ion % 0.4 arsenic mg / kg 0.0 lead mg / kg cadmium mg / kg 0.0 Mercury mg / kg 0.0 manganese mg / kg 0.0 calcium mg / kg 604.2 potassium mg / kg 810.4 iron mg / kg 20.1 magnesium mg / kg 330.5 sign mg / kg 86.4 zinc mg / kg 3.2 copper mg / kg 3.6 General bacteria Pcs / g Not detected

<Table 3> is a test data commissioned by the Korea Food Research Institute (Junmin 16, 33, 2002) on June 28, 2002. It is the result of powdered salt (white fine salt) processed with Himalayan rock salt.

<Table 3>

  Test result   Inspection items unit Sample classification Result  Bacteria Pcs / g 0 manganese mg / 100g Not detected saline % 91.52 calcium mg / 100g 138.53 potassium mg / 100g 256.08 iron mg / 100g Not detected magnesium mg / 100g 49.45

<Table 4> is a test data commissioned by the Korea Food Research Institute (Julmin 16231) on July 2, 2002. It is the result of sorted salt processed with Himalayan rock salt.

<Table 4>

  Test result   Test Items unit Sample classification Result   Sodium chloride % 91.93 Total goat % 60.24 moisture % 0.02 Insoluble matter % 0.02 Sulfate ion % 0.11 4 minutes % 0.05 arsenic mg / kg Not detected lead mg / kg Not detected cadmium mg / kg Not detected Mercury mg / kg Not detected

Table 5 shows the results of the Himalayan salt, which was commissioned by the Tokyo Prefectural Institute of Food and Environment Science and Technology, a designated audit agency instead of the Ministry of Health, Labor and Welfare based on the Japanese Food Sanitation Law on January 10, 13, 2012.

<Table 5>

Test Items result Test method footnote calcium 590mg / 100g According to inductively coupled plasma emission analysis sign 0mg / 100g According to inductively coupled plasma emission analysis iron 6.6mg / 100g According to inductively coupled plasma emission analysis potassium 290mg / 100g According to inductively coupled plasma emission analysis magnesium 300mg / 100g According to inductively coupled plasma emission analysis zinc 0 µg / 100 g According to inductively coupled plasma emission analysis copper 65 µg / 100 g According to inductively coupled plasma emission analysis manganese 210mg / 100g According to inductively coupled plasma emission analysis

<Table 6> is a test data commissioned by Saitamaken Food Hygiene Association Inspection Center, a designated audit agency instead of Japan's Ministry of Health, Labor and Welfare.

<Table 6>

Inspection items test results Analysis method General bacterial count Less than 300 / g Method by food hygiene test guideline iodine 0.60mg / 100g Gas Chromatograph Method manganese 0.60mg / 100g Atomic absorption photometry salt 76.2mg / 100g Sodium × 2.542 calcium 227mg / 100g Atomic absorption photometry potassium 162mg / 100g Atomic absorption photometry iron 0.9mg / 100g Atomic absorption photometry magnesium 134mg / 100g Atomic absorption photometry

As shown in the table above, the rock salts collected from the Himalayas have a granular form, and are rich in calcium, potassium, and magnesium. It contains various kinds of minerals, including high quality negative ions.

The storage member 4 is to store and store the rock salt (3), as shown in Figure 4 is configured in the form of a double pipe connected to the inner, outer tube (41, 42) and one end of the entrance function to store the rock salt (3) It is configured to open to have.

The storage member 4 is a hole 43 is penetrated through the outer periphery so that the negative ions generated from the rock salt (3) can be discharged to the outside, the ground of the rock salt (3) will be accumulated in the drawer (24a) The discharge hole 44 is penetrated so that it can be.

The fragrance injector 5 is a fragrance liquid is stored therein, the nozzle (N) is provided at the end of the discharge pipe 51 connected to the inside as shown in Figure 1, the nozzle (N) is outside the second storage chamber 22 It is installed to be exposed. The fragrance injector 5 is discharged to the outside through the discharge pipe 51 and the nozzle when the discharge pipe 51 is pressed by the control means (6).

The control means 6 is to allow the user to selectively adjust the fragrance injection, using a technique applied to known electronic products.

That is, the control means (6) comprises an input unit 61 for inputting the injection cycle time by pressing the time button (61a) exposed to the outside of the second storage chamber 22 of the housing (2); A driving unit 62 which recognizes the time input from the input unit 61, and the solenoid valve 62b drives the timer 62a according to the signal of the timer 62a; And a switch 63 which rotates by the operation of the solenoid valve 62b to pressurize the discharge pipe 51 of the perfume sprayer 5 so that the perfume liquid is ejected through the discharge pipe 51.

The control means 6 selectively controls the period of the fragrance injector 5 by the user pressing the time button 61a of the input unit 61, and the timer 62a is provided with a solenoid valve 62b for each input time. ), When the solenoid valve 62b is driven to rotate the switch 63, the fragrance liquid is injected by pressing the discharge pipe 51 of the fragrance injector 5.

When the control means 6 inputs a specific time by pressing the time button 61a, the input time is displayed on the display window 64 so that the set time can be visually confirmed.

In addition, the control means (6) as shown in Figure 1, the adjustment button (61-1) for adjusting the illuminance of the lamp (9) is rotatably installed. Rotating the control button 61-1 to the left makes the brightness of the lamp 9 dark, and rotating to the right makes it bright. As such, the brightness control function of the lamp 9 by the control means 6 corresponds to a known technique, and thus a detailed description thereof will be omitted.

The blower fan (7) is to supply the wind to the rock salt (3) to help generate negative ions, at least one in the shaft (7a) rotatably installed in the inner tube 41 inner space of the housing member (4) The above-described installation is rotated when the motor 8 connected to the shaft 7a is driven to supply wind to the rock salt 3.

The shaft 7a is rotatably supported by a cover plate 7b having an end opposite to the motor 8 covering the housing member 4, which is supported by a bearing to facilitate rotation. The shaft 7a is further provided with a coupling 7a-1 so that the blower fan 7 is caught by the rock salt 3 or the rotation of the shaft 7a is prevented despite the power of the motor 8. do. The coupling 7a-1 prevents inadvertent accidents by stopping the shaft 7a even when the motor 8 is driven, causing slippage.

The lamp 9 is to improve the anion generation of the rock salt (3) with the blower fan (7), to use that the amount of anion emitted from the rock salt (3) is high when the temperature is high.

If the lamp 9 is installed close to the rock salt (3) is not affected by the place, it is shown in the figure that a plurality is installed inside the inner tube 41 of the housing member (4). The lamp 9 emits light by power supply, and the wiring relationship of the power supply is naturally predictable, and thus the drawings are not shown in the drawing.

The lamp 9 also serves as an illumination function for adjusting the brightness of the place of use at night. To this end, the structure of the housing 2 and the receiving member 4 may be configured in various forms so as to adjust the light brightness of the lamp 9.

In other words, when the light emitted from the lamp 9 is discharged to the outside of the housing 2, the transparent window 25 of the housing 2, the passage 26 of the housing 2, Or by adjusting the size of the area of the hole 43 of the receiving member 4 it is possible to adjust the illuminance of the light irradiated to the outside.

Therefore, when the area of the transparent window 25, the passage 26, or the hole 43 is increased, the illuminance of light irradiated to the outside of the housing 2 is bright, and when the area is made small, the illuminance is dark.

In addition, the illuminance of the lamp 9 can also be adjusted using the control means 6, which has already been mentioned in the description of the control means 6.

In the anion and fragrance supply device of the present invention configured as described above, the rock salt contained in the first storage compartment naturally generates natural anions, and at the same time, the fragrance of the fragrance injector is operated by operating the control means installed in the second storage compartment. By spraying the liquid at regular intervals, the indoor air is healthy and comfortable.

In addition, since rock salts generate negative ions in themselves, it is possible to provide negative ions to a place of use without the use of electricity.

In addition, the light emitted from the lamp is reflected through the rock salt, the reflected light may be irradiated to the outside softly to have an indirect lighting effect.

Claims (6)

A housing having a storage space formed therein, the passage through which the negative ions generated in the storage space can be discharged to the outside; A rock salt stored inside the housing and in which negative ions generated in the housing are discharged through the passage; A storage member for storing rock salt therein and having a hole penetrating the outer circumference thereof so that negative ions generated from the rock salt can be discharged to the outside; A fragrance injector installed in the accommodation space and having a nozzle thereof exposed to the outside of the housing to inject the stored fragrance through the discharge pipe according to a set timing condition; And control means for controlling the injection interval time by pressing the discharge pipe of the fragrance injector according to the input time so that the fragrance injector can automatically inject the fragrance at predetermined time intervals. According to claim 1, wherein the housing is provided with a first storage chamber for storing the rock salt in the lower portion, the upper portion of the housing is equipped with a second storage chamber for mounting the fragrance injector and the control means rotatably open and close the first storage chamber Anion and fragrance supply apparatus, characterized in that. According to claim 1, The receiving member is an anion and fragrance supply apparatus characterized in that the inner and outer pipes are formed in a double tube form connected to one end thereof has an entrance function for storing rock salt. The apparatus of claim 1, wherein a blower fan is housed inside the inner tube of the housing member, and the blower fan is rotated by a motor to promote discharge of anions generated from the rock salt. . According to claim 1, Anion and fragrance supply apparatus characterized in that the lamp is further installed inside the inner tube of the housing to increase the temperature of the ion generating efficiency of the rock salt. According to claim 1, wherein the control means has an input unit for inputting the injection cycle time by pressing the time button exposed to the outside of the second storage chamber of the housing; A driver for recognizing a time input from the input unit and driving the solenoid valve according to a signal of the timer; And a switch for rotating the lever by operating the solenoid valve to pressurize the discharge tube of the perfume injector so that the perfume liquid is ejected through the discharge tube.

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