KR101111488B1 - Evaporating system - Google Patents

Abstract

The present invention relates to a steam generator for steaming, and more particularly, by branching the steam generated in the evaporation tank in the upper direction and the lateral direction by using a three-way valve, the steam supplied in the upper direction and the steam branched in the lateral direction It relates to a steam generator for steaming steamed by two kinds of steaming objects in parallel.

To this end, the present invention is the lower body is installed inside the evaporator having an internal space for storing water; An upper cover which covers the lower body and the upper end of the evaporation tank and has a through hole formed therein to guide the vapor generated in the evaporation tank to the outside; A three-way valve installed over the through hole of the upper cover; It provides a steam generator for steam comprising a heating rod mounted inside the evaporator to heat the water stored in the evaporator.

Evaporator, bottom body, top cover, 3-way valve, heating rod

Description

Steam generator for steaming {Evaporating system}

The present invention relates to a steam generator for steaming, and more particularly, to a steam generator for steaming steamed food such as rice cake by passing the steam inside the steamer.

In general, a device for generating and supplying steam necessary for preparing or cooking food is called a steam generator. Foods that can be made or cooked using the steam generator include rice cakes, dumplings, steamed buns, and crabs.

In addition, a container for accommodating food ingredients therein to prepare or cook food with steam is called a steam container. In particular, the steaming container for making rice cake is called rice cake.

Tteoksiru is made of earthenware, wood, bamboo, stainless steel, etc., and multi-layered on a steam cooker to steam the rice cake by passing hot steam into the siru.

Recently, steam generators for steaming steamed rice cakes have been developed in various ways for mass production of rice cakes.

By the way, the recent steam generators make steam and introduce it into the shiru steaming rice cake as in the previous method, but since only one type of food is made with one steam generator, not only snow white but also corn, etc. Likewise, it was necessary to construct different types of steaming objects at the same time.

The present invention has been made in view of the above point, by using a three-way valve to branch the steam generated in the evaporator in the upward and lateral direction, to the steam supplied in the upward direction and the steam branching in the lateral direction It is an object of the present invention to provide a steam generator for steaming steaming two kinds of steaming objects in parallel.

The above object is in the steam generator for steaming steam by passing the steam through the object to steam,

A lower body having an evaporator having an internal space for storing water therein;

An upper cover which covers the lower body and the upper end of the evaporation tank and has a through hole formed therein to guide the vapor generated in the evaporation tank to the outside;

A three-way valve installed over the through hole of the upper cover;

It includes a heating rod mounted inside the evaporator for heating the water stored in the evaporator, the steam generated in the evaporator by using a three-way valve in the state that the upper cover is seated on the lower body up and lateral Branching to is achieved by a steam generator for steam characterized in that to supply steam to two or more types of steamed objects.

According to the problem solving means as described above, the steam generator for steaming of the present invention branches the steam generated in the evaporation tank upward and laterally through a three-way valve, and the steam supplied in the upper direction of the upper cover is placed on the upper cover. Steam is supplied to the installed main pole to steam the first steaming object (eg, Snow White), and the steam supplied to the side of the upper cover is supplied to a separately prepared auxiliary pole to steam the second steaming object (eg, corn), Different kinds of food can be cooked in parallel.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings.

1 is a perspective view showing a steam generator for steam according to an embodiment of the present invention, FIG. 2 is a rear perspective view of FIG. 1, FIG. 3 is a front view of FIG. 1, and FIG. 4 is a rear view of FIG. 1. Figure 5 is a side view of Figure 1, Figure 6 is an exploded perspective view of Figure 1, Figure 7 is a perspective view showing the configuration of the three-way valve in Figure 1, Figures 8a and 8b constitute an operating state of the three-way valve It is also.

The present invention relates to a steam generator for steaming, and relates to a steam generator for steaming steamed food such as rice cake by passing steam inside the steam container.

Steam steam generator for steam according to an embodiment of the present invention is an evaporation tank (10) for accommodating water to generate steam, a heating rod (11) installed inside the evaporation tank (10) and heats the water; A water supply and drain pipe installed in the lower portion of the evaporation tank 10, and installed on the upper portion of the evaporation tank 10 includes a stack (16, 17) for stacking the steam container (steam 15).

The evaporator 10 has a volume space that can accommodate water therein, is formed in a cylindrical shape, the lower body 19 surrounds the outside of the evaporator 10 to heat the heat generated from the evaporator 10 It has a structure to insulate. At this time, the evaporation tank 10 may be formed in a polygonal shape such as a rectangular body in addition to a cylindrical shape.

A plurality of heating rods 11 are installed in the evaporator 10, and the heating rods 11 are installed in parallel while protruding forward from the lower side of the rear side of the evaporator 10, and the evaporation vessel 10 is provided. The water stored in) is uniformly heated at the bottom to generate steam.

In addition, the heating rod 11 is attached to the rear end of the power socket 18 so as to receive power to the power supply, at this time, the rear end and the power socket 18 of the heating rod 11 is removable by screwing. It is coupled to the heating rods 11 are each round bar structure to maximize the contact area with the water can be supplied with electricity to heat the water instantaneously.

In addition, the number of the heating rods 11 is provided in one embodiment of the present invention, but can be installed in various numbers depending on the volume capacity of the evaporation tank (10).

In addition, the rear sidewall of the evaporator 10 in which the heating rod 11 is installed is formed to be flat and concave rather than circular. At this time, the power socket 18 attached to the heating rod 11 is installed to protrude inward and outward half from the rear side wall of the evaporation tank (10).

In addition, the high water level sensor 20 and the low water level sensor 21 are installed to protrude into the evaporation tank 10 at one side of the rear side of the evaporation tank 10, and the height of the water filled in the evaporation tank 10 is what. Can be detected. Then, a temperature sensor 47 is installed on one side of the rear side of the evaporator 10 to measure the internal temperature of the water.

An upper cover 22 is installed at an upper end of the evaporator 10 to cover an upper end of the evaporator 10 and the lower main body 19, and the upper cover 22 is a rear surface of the upper end of the lower main body 19. It can be hinged to a hinge or the like to be rotatable in the front-rear direction.

The upper cover 22 has a rectangular structure having an empty space therein, through-holes 23 are formed in the upper and lower surfaces of the center of the upper cover 22, respectively, and the steam supply means in the upper cover 22 This is installed.

The steam supply means may be a structure in which a single pipe is installed upwards through the through hole 23 of the upper cover 22, but may supply steam, but only two pipes are provided above the upper cover 22. There is a disadvantage that can not cook the kind of food at the same time.

However, in the case where the steam supply means is a three-way valve 24, the three-way valve can supply steam by branching upwards and laterally of the upper cover, and thus has the advantage of cooking two kinds of food in a bottle shape. Have

The three-way valve 24 is a "T" type tubular structure as shown in Fig. 7, the juice team discharge portion 24a and the juice team discharge portion 24a formed in the vertical direction in the right direction (front surface). It is composed of a secondary steam discharge unit (24b) formed horizontally branched in reference to).

In the center of the juice team discharge portion 24a where the juice team discharge portion 24a and the auxiliary steam discharge portion 24b meet, a ball 25 having three ports is mounted, and by this ball 25 Steam introduced through the lower portion of the juice team discharge portion 24a is selectively discharged or simultaneously discharged to the upper portion or the auxiliary steam discharge portion 24b of the juice team discharge portion 24a as shown in FIGS. 8A and 8B. do.

That is, the ball 25 is ball-joined to the juice team discharge part 24a to enable 360 rotation, and the ports in three directions formed on the ball 25 form an angle of 90 degrees to each other, and the rotation angle of the ball 25 is reduced. The upper portion of the juice team discharge portion 24a and the auxiliary steam discharge portion 24b are selectively opened or simultaneously opened through the ports formed in three directions, and the lower portion of the juice team discharge portion 24a is always opened. At this time, by forming stoppers on the handle shaft 26 and the juice team discharge part 24a connected to the ball 25, the rotation angle of the ball 25 can be limited to 90 degrees.

The handle shaft 26 and the handle 27 are connected to the ball 25, wherein the handle shaft 26 extends in the front and protrudes outside the upper cover 22, and the front end of the handle shaft 26. The circular handle 27 is mounted, and the operation knob 28 is integrally formed on both sides of the handle 27 in a straight line to provide convenience of operation.

For example, when the operating knob 28 is turned vertically at a 90 degree angle from the horizontal state, the upper portion of the juice team discharge portion 24a is opened, and the auxiliary steam discharge portion 24b is closed (Fig. 8A). Reference). When the operation knob 28 is returned to its original position, the upper portion of the juice team discharge portion 24a is closed, and the auxiliary steam discharge portion 24b is opened (see FIG. 8B). At this time, the lower portion of the juice team discharge portion 24a is always in an open state regardless of which direction the operation knob 28 is turned.

In addition, when the operation knob 28 is turned at an angle of 45 degrees, the upper portion of the juice team discharge portion 24a and the auxiliary steam discharge portion 24b are simultaneously opened in half, and the lower portions of the juice team discharge portion 24a are two. It is opened by the port.

Here, the lower part of the juice team discharge part 24a faces the bottom surface of the evaporation tank 10, and the upper part of the juice team discharge part 24a faces the steamer 15 stacked on the loading racks 16 and 17, and Steam discharge portion 24b is directed toward the side of the upper cover (22).

An auxiliary steam discharge pipe 29 is connected to the auxiliary steam discharge part 24b, and an end of the auxiliary steam discharge pipe 29 protrudes toward the rear side of the upper cover 22, and the steam is discharged through the auxiliary steam discharge pipe 29. Some steam is removed from the generator body so that other steamers 15 can be cooked separately for food or cooking.

As shown in FIG. 6, the first packing 30 is attached to the lower surface of the upper cover 22 in a circular shape with a relatively large diameter, and is formed around the through hole 23 formed in the lower surface of the upper cover 22. The two packings 31 are attached, and by this packing, the internal pressure of the evaporation tank 10 can be made high by maintaining the airtightness of the evaporation tank 10 and the upper cover 22.

Through-hole 23 is formed in the center of the upper cover 22, the steam generated in the evaporation tank 10 through the three-way valve 24 through the through-hole 23 formed on the lower surface of the upper cover 22 Connected to the lower part of the, the steam flowing into the lower portion of the three-way valve 24 is moved to the juice team discharge portion 24a or the auxiliary steam discharge portion 24b according to the rotation angle of the ball 25 mounted therein. .

A diffusion cylinder 32 is attached to the upper end of the juice team discharge portion 24a. The diffusion cylinder 32 has a tubular structure covering the upper portion of the juice team discharge portion 24a, and the diffusion holes 33 having a very small size are drilled to steam steam generated in the evaporation tank 10. It is supplied evenly to (steam container).

In addition, the upper end of the upper cover 22 is installed so that the holding racks 16, 17 so that a plurality of steamers 15 can be stacked, according to the size of the steamer 15, In order to select the size, the first first loading stand 16 and the second second loading stand 17 having the same size have the same center and are formed in a rectangular frame. At this time, the shape of the loading rack (16, 17) may be configured in a variety of circular or rectangular in accordance with the shape of the steamer (15).

In addition, rubber packings are attached to upper ends of the first and second loading racks 16 and 17 to maintain airtightness of the loading racks 16 and 17 and the steaming tank 15 in a state in which a plurality of steamers 15 are stacked. Can be.

In addition, as shown in FIG. 13, the second mounting bracket 17 has a double wall structure, and a hollow portion 17c is disposed between the outer wall 17a and the inner wall 17b of the second mounting bracket 17. As the air is filled in the hollow portion 17c, the hollow portion 17c may serve as an air insulation layer to block the steam heat in the second loading stand 17 from being discharged to the outside. 22) It can block the heat of steam transmitted to it. In addition, a heat insulating material may be inserted into the hollow part 17c as necessary to increase the heat insulating effect.

Installing a long rod-shaped handle 46 toward the front of the second loading stand 17, to provide a convenience in moving the steam generator.

In addition, a locking means 34 is installed on the front surface of the upper cover 22, and the locking means 34 is not opened at a constant pressure in a state where the upper cover 22 covers the upper portion of the evaporation tank 10. Any device known to those skilled in the art can be selected without any limitation.

In addition, the upper cover 22 is installed in the horizontal direction by installing a long rectangular barrel drip 35 in the lower body 19 hinged by a hinge, the upper cover 22 when opening and closing the upper cover 22 The condensate flows down into the evaporation tank 10 by receiving condensate flowing downward along the lower surface of the bottom through the drip tray 35 and then draining to the outside through a drain pipe installed on one side of the drip tray 35. Or fall to the floor.

As described above, the heating rod 11 receives electricity and serves to instantaneously heat the water of the evaporation tank 10, and the power socket 18 attached to the rear end of the heating rod 11 is an evaporation tank. (10) is provided on the rear side, the first half of the power socket 18 is provided inside the evaporation tank 10, and the second half of the power socket 18 is provided over the outside of the evaporation tank 10, respectively. The power socket 18 is connected to the electric wire is supplied with power.

The filament is provided inside the heating rod 11 to generate heat instantaneously as the filament is energized, and the heat of the heating rod 11 heated to a high temperature is discharged to the outside through the power socket 18 again.

Casters 36 (moving wheels) are provided at each corner of the lower end of the lower main body 19 to move the lower main body 19, and a heating temperature, a cooking time, etc. are provided on the front of the lower main body 19. An adjustable operation panel 37 is attached.

Here, one embodiment of the present invention is the heating rod 11 in the evaporator 10 and the heating rod 11 power socket 18 to recycle the waste heat generated from the power socket 18 located outside on the extension line. Up through the water supply line (12).

At this time, the water supply pipe 12 is made of copper pipe and waste heat generated from the power socket 18 through heat exchange with the power socket 18 attached to the heating rod 11 is transferred to the water supply pipe 12 to the The water flowing inside is preheated.

The structure through which the water supply pipe 12 passes through the power socket 18 of the heating rod 11 is not limited in any form by the designer in the art. For example, the water supply pipe 12 crosses the four power sockets 18 horizontally (see FIG. 4), or vertically passes through the power supply sockets 18 so as to pipe the lower portion of the lower main body 19. do.

In addition, the water supply pipe 12 protrudes vertically upward from the bottom of the evaporator 10 and has a structure formed by bending the shape of the "n" in the evaporator 10 inside.

In addition, the lower end of the water supply pipe 12 is installed as close as possible to almost touch the bottom surface of the evaporation tank 10, the end of the structure is clogged, a plurality of ejection holes 38 in the circumferential direction at the end of the water supply pipe (12) ) Is formed, the water of the water supply pipe 12 is sprayed in all directions through the ejection hole 38 is evenly spread on the bottom surface of the evaporation tank (10).

As such, the purpose of spreading the water evenly on the bottom surface of the evaporation tank 10 through the ejection hole 38 is to make the water evaporate smoothly and evenly.

This is because the water supply direction becomes opposite to the direction (e.g., the direction in which water is evaporated from the liquid water to the water vapor) when the water supply is in the direction falling from the top of the evaporation tank 10, and the water supply suppresses the forward convection of the water molecules.

In addition, when supplying the amount of water to one side at a time, not only does the water supplied to the water suppress movement of evaporated water molecules, but also takes a long time to heat a large amount of water, and the difference between the temperature of the water supply and the place where it is not This is because the water molecules to be evaporated in the place where the temperature is high are cooled again so that steam does not uniformly occur in the evaporation tank 10.

In addition, since excessively low temperature water is introduced into the evaporator 10, a decrease in steam occurs temporarily, so that a slight change in temperature, pressure, and speed in the see-through occurs temporarily due to the temporary decrease in steam, resulting in a change in taste. .

In order to solve this problem, the present invention is to be supplied to the bottom of the evaporation tank 10 through the ejection hole 38 of the water supply pipe 12, the low temperature water layer, the hot water layer and the high temperature inside the evaporation tank 10 The steam layer is naturally generated, and the hot water layer acts as an interlayer insulating material between the hot steam layer and the cold water layer to actively use the hot water layer.

In addition, by supplying the water supply pipe 12 in the "n" shape at the bottom of the evaporation tank 10 to lengthen the path of the water supply atmospheric water, more heat is reserved from the water heated inside the evaporation tank 10 during intermittent water supply. It can absorb with heat.

As a result, the total consumption of electrical energy is the same, but changes in production volume, temperature, pressure, etc. of the generated steam can be reduced, and even if low-temperature water is continuously or intermittent, there is almost no change in the amount of steam flowing into the steamer. Can be improved.

9A and 9B are configuration diagrams illustrating an operating state of the water supply pipe and the buoyancy bulb in FIG. 1.

In addition, a buoyancy opening 39 is rotatably supported by the support 40 at the lower end of the water supply pipe 12, and the buoyancy opening 39 detects the water level of the water supplied through the water supply pipe 12 to supply the water supply pipe 12. ) To automatically adjust the water level.

The lower end of the water supply pipe 12 has a ball valve 41 is installed as a ball joint, the ball valve 41 is formed with a through hole in both directions, the rotation angle of the ball valve 41 of the water supply pipe 12 The opening amount is adjusted.

Hinge pins are attached to both sides of the ball valve 41 in a straight line, and the hinge pins are coupled to the support 40 of the buoyancy port 39, so that the hinge pins are moved at a predetermined angle as the buoyancy port 39 moves up and down. The ball valve 41 also rotates by the rotational angle of the hinge pin.

As a result, the buoyancy port 39 is moved in the vertical direction according to the height of the water surface stored in the evaporator 10 to operate the ball valve 41 in the water supply pipe 12 to adjust the amount of water supply.

Two drain pipes are installed at the lower end of the evaporation tank 10, the first drain pipe 13 is manually opened and closed by a valve operation of the operator, the on-off valve (two-way valve) is installed in the first drain pipe 13 When the inside of the evaporator 10 is to be cleaned or maintained, the water stored in the evaporator 10 is drained through the first drain pipe 13.

10A and 10B are sectional views showing an operating state of the second drain pipe.

The second drain pipe 14 is supercharged over a set height to prevent the water from overflowing in the evaporator 10 when the buoyancy port 39 is broken and supercharged above the height set in the evaporator 10. Drain the overflowed water by overflowing it.

The second drain pipe 14 is installed to protrude to a constant height in the vertical direction from the bottom of the evaporator 10, the buoyancy cap 42 is mounted on the upper end of the second drain pipe (14).

The buoyancy cap 42 is installed in a structure in which the cup is covered upside down to cover the upper end of the second drain pipe 14 in a cylindrical shape, a plurality of drain holes in the radial direction along the circumferential direction on the side upper end of the buoyancy cap 42 ( 43) is formed.

At this time, the drain hole 43 forms a parallel direction in the direction of the water surface, the drain hole 43 is adjusted to the set height of the water supplied to the evaporation tank 10, when the water level reaches the drain hole 43 As the buoyancy cap 42 floats upward due to buoyancy, water is discharged through the drain hole 43 to the second drain pipe 14 to maintain a constant water level.

The buoyancy cap 42 is made of a polymer such as polypropylene, and when the lower end of the buoyancy cap 42 is submerged in water, buoyancy is generated by the locked volume of the buoyancy cap 42, and the buoyancy cap 42 is buoyed by this buoyancy. Ascending above the water surface, the drain hole 43 normally closed is opened.

In addition, when the buoyancy cap 42 is not submerged in water, the buoyancy does not occur and the drain hole 43 is closed due to the weight of the buoyancy cap 42. By preventing the discharge through the drain hole 43, it is possible to further improve the steam generating efficiency.

Referring to the operation and effects of the steam generator for steam according to an embodiment of the present invention by such a configuration as follows.

Any food that can be made using the steam generator according to the present invention is applicable as long as it can be steamed using steam. For example, steamed objects are corn, sweet potatoes, white bread, snow white, dumplings, and the like.

First, a plurality of steamers 15 are stacked on the piles 16 and 17 mounted on the upper surface of the upper cover. The steamer 15 is open in the vertical direction in the form of a rectangular frame, the lower end of the steamer 15 is provided with a mesh formed with a hole of a predetermined size, and the cloth can be well permeated like steam burlap cloth.

Then, a small amount of food, which is a steaming object, is filled on the cloth, and a plurality of steamers 15 are stacked. Of course, since the steaming time is different depending on the food, the food of the same type is stacked in the steamer 15.

In the steam generator according to an embodiment of the present invention, the three-way valve 24 is installed inside the upper cover 22, and main struts 16 and 17 installed on the upper cover 22 and three-way valves ( Using the auxiliary steam discharge pipe (29) connected to the side of the 24) laminated with the steamer (15) containing the different food on the auxiliary stirrups of the workbench prepared separately, the three-way valve (24) and the handle (27) linked By operating and supplying steam, two kinds of food can be made in parallel.

For example, in the case of making snow white and corn using the steam generator of the present invention, a steamer 15 filled with snow white material is stacked on the mounted main poles 16 and 17 of the upper cover 22, and prepared separately. The auxiliary brace is stacked with steamed steamer (15) containing corn and then steamed by supplying steam.

In addition, one embodiment of the present invention is piped so that the water supply pipe 12 through the power socket 18 of the heating rod 11 exposed to the outside of the evaporation tank 10 before water supply to the evaporation tank 10, By supplying the waste heat generated from the power socket 18 of the heating rod 11 to the heat exchanger 11 by heat exchange, the water supply pipe 12 may increase the water efficiency by increasing the water supply temperature using the waste heat.

In addition, the end portion of the water supply pipe 12 is disposed close to the bottom surface of the evaporation tank 10, and the water is evaporated due to the water supply by spreading evenly in all directions while the water supply is branched into a plurality of streams through the ejection hole 38 It is possible to prevent the movement of molecules and to evaporate water uniformly at the same time at the bottom of the evaporator 10 to evaporate a large amount of water for the same time.

The water supply pipe 12 protrudes from the bottom surface of the evaporation tank 10 and is formed in an “n” shape so that the water supply pipe 12 is heated by the heating rod 11 inside the evaporation tank 10 before being supplied through the water supply pipe 12. Since the supplied water and the water supply pipe 12 are heat-exchanged, the water is further heated while passing through the water supply pipe 12 bent in an “n” shape to supply water into the evaporator 10. Thus, by reducing the temperature difference between the water supply and the water heated in the evaporator 10, the evaporation efficiency can be increased.

In addition, the rubber packing on the bottom surface of the upper cover 22 in contact with the upper end of the evaporation tank 10, to maintain the airtight between the upper cover 22 and the evaporation tank 10, water molecules in the evaporation tank 10 By the expansion of the steam has an effect that is smoothly generated.

The far infrared emitter 45 is installed on the bottom of the evaporation tank 10, and the far infrared emitter 45 is made of a material that emits far infrared rays such as germanium, loess rock, ceramics, gallstone and tourmaline.

In general, water is polymerized by hydrogen bonds to form a large group of water molecules (clusters), and the large groups of water molecules are purified by using far infrared rays emitted from the far infrared emitter of the present invention. Split into molecules and replace with activated alkaline reduced water.

That is, when far-infrared radiation is emitted from the far-infrared emitter 45 installed at the bottom of the evaporation tank 10, each atom and molecule of water is excited by the photon which is energy of far-infrared rays, and the hydrogen bond which is the polymerization of water molecules is cut off, Water is activated as a small volume of water.

The activated water is atomized into fine particles such as mist when it becomes steam, and the atomized vapor particles penetrate between the particles of the steaming object (eg, rice cake material) to soften the steaming object. Maintain freshness for a long time.

In particular, the germanium is in contact with the skin due to its semiconductor properties, the germanium ions (outer electrons) enters the body to increase the vitality. In addition, it enters the body with various harmful substances and is discharged out of the body within 20-30 hours, so there is no poisoning or side effects.

The loess eleven has the following characteristics.

1) Antirust, removal of harmful substances and heavy metal decomposition

It is composed of 30,000 to 150,000 multi-layer porous materials per 1cm3, and it has a magnet function at 100 ℃ or higher to remove rust and wide specific surface area to adsorb and decompose pollutants, heavy + A11 metals, etc. In addition, it has been shown to neutralize cement toxicity, antibacterial, insect repellent and strong deodorant.

2) Mineral Elution

More than 40 kinds of minerals that elevate the human body are eluted, which is effective for metabolism and skin health management.

3) Water Quality Control and Water Purification

Acidic or strong alkaline water is weakly alkaline (pH7.2 ~ 7.4) and water quality is activated by water purification.

4) rich oxygen content

Soaking the mandala in water lowers COD (chemical oxygen demand) and BOD (biological oxygen demand), which gives vitality to the living body as well as antiseptic action.

5) Far Infrared Radiation

Resonance, resonance, and absorption by far-infrared radiation are effective in maintaining freshness of food, increasing taste, promoting blood circulation and metabolism.

The characteristics of the green jade is as follows.

1) Emissivity of far infrared rays is very high.

2) a lot of Gi (나온) comes out.

3) Excellent antibacterial effect.

4) Excellent antifungal inhibitory ability.

5) Excellent deodorizing ability.

In the case of rice cakes sold on the market, a softener of processed chemicals is added to prevent the rice cakes from hardening for 24 hours. However, when the far-infrared emitter 45 of the present invention is put into water to generate steam, the rice cake is soft and soft for 24 to 48 hours without adding a softener.

Then, by installing a second drain pipe 14 protruding in the vertical direction from the bottom of the evaporation tank 10, by forming a drain hole 43 in the buoyancy cap 42 attached to the upper end of the second drain pipe 14 When the buoyancy port 39 interlocked with the ball valve 41 of the water supply pipe 12 in order to automatically adjust the water level in the evaporator 10 is broken, the water supercharged from the water supply pipe 12 is drained. It can be prevented from flowing to the outside of the lower body 19 by flowing through the drain to the second drain pipe (14).

In addition, when making snow white using the steam generator of the present invention is completed in about 10 minutes including the steaming time. This has the effect of reducing the cooking time more than twice than the conventional steam generator for steam.

And, since the corn takes a relatively longer time to steam than snow white, after the snow white is finished, the three-way valve 24 installed in the upper cover 22 is rotated 90 degrees in one direction, juice team discharge portion (24a) The steam is supplied to the steamer (15) containing the corn through the auxiliary steam outlet (24b) to open the auxiliary steam outlet (29) to close the steam.

In addition, according to the size of the steamer, the upper cover 22 may selectively stack the steamer on any one of the first yard 16 and the second yard 17. 11A and 11B are perspective views showing before and after the small size steamer is mounted on the loading rack of FIG. 1, and FIGS. 12A and 12B are perspective views showing the front and rear shape of the large size steamer on the loading rack of FIG. 1. to be.

1 is a perspective view showing a steam generator for steam according to an embodiment of the present invention

Figure 2 is a rear perspective view of Figure 1

3 is a front view of FIG. 1

4 is a rear view of FIG.

5 is a side view of FIG. 1

6 is an exploded perspective view of FIG.

7 is a perspective view showing the configuration of the three-way valve in FIG.

8a and 8b is a configuration diagram of the operating state of the three-way valve

9a and 9b is a configuration diagram showing the operating state of the water supply pipe and buoyancy sphere in FIG.

10A and 10B are cross-sectional views showing an operating state of the second drain pipe.

11A and 11B are perspective views illustrating a small size steamer mounted on the loading rack of FIG.

12A and 12B are perspective views showing a state in which a large sized steamer is mounted on the loading rack of FIG.

Figure 13 is a cross-sectional view for explaining the cross-section of the loading stand according to an embodiment of the present invention

<Description of the symbols for the main parts of the drawings>

10: evaporation tank 11: heating rod

12: water supply pipe 13: the first drain pipe

14: the second drain 15: steamer

16: 1st gearbox 17: 2nd gearbox

18: power socket 19: lower body

20: high water level sensor 21: low water level sensor

22: upper cover 23: through hole

24: 3-way valve 24a: juice team discharge part

24b: auxiliary steam outlet 25: ball

26: axis 27: handle

28: operation knob 29: auxiliary steam discharge pipe

30: first packing 31: second packing

32: diffusion cylinder 33: diffusion hole

34: locking means 35: drip receiver

36: caster 37: operation panel

38: blowoff hole 39: buoyancy sphere

40: support 41: ball valve

42: buoyancy cap 43: drain hole

45 Far-infrared emitter 46 handle

47: temperature sensor

Claims (14)

In the steam generator for steaming steam by passing the steam through the object to steam, A lower body 19 having an evaporation tank 10 having an internal space for storing water therein; An upper cover 22 covering upper ends of the lower body 19 and the evaporation tank 10 and having a through hole 23 formed therein to guide the vapor generated from the evaporation tank 10 to the outside; Steam supply means installed over the through hole 23 of the upper cover 22; An upper rack which can stack a plurality of steamers 15 on an upper surface of the upper cover 22; 3 includes a heating rod 11 mounted inside the evaporator 10 to heat the water stored in the evaporator 10, and the upper cover 22 is seated on the lower body 19. Steam generator for steam characterized in that for supplying steam to two or more types of steamed objects by branching the steam generated in the evaporator 10 in the upward and lateral directions by using the directional valve (24). The method according to claim 1, The steam supply means is a three-way valve 24, the three-way valve 24 A juice team discharge part 24a for discharging the steam generated in the evaporation tank 10 in an upward direction; An auxiliary steam discharge part 24b branched laterally from the juice team discharge part 24a; A ball joint rotatably inside the juice team discharge part 24a, and a port in three directions for adjusting the opening and closing amount of the juice team discharge part 24a and the auxiliary steam discharge part 24b according to the rotation angle is provided therein. A ball 25 formed; Is connected to the ball 25 by a shaft 26 to adjust the rotation angle of the ball 25 and the shaft 26 extends in front of the upper cover 22 to include a handle 27 exposed Steam generator for steaming characterized in that. The method according to claim 2, A diffusion cylinder 32 is installed to cover the upper end of the juice team discharge portion 24a, and a plurality of diffusion holes 33 are formed on the surface of the diffusion cylinder 32, and through the diffusion hole 33. Steam generator for steam, characterized in that the steam is diffused into the steamer (15). The method according to claim 2, Auxiliary steam discharge pipe 29 is coupled to the side of the three-way valve 24, the steam branched laterally from the three-way valve 24 is discharged through the auxiliary steam discharge pipe (29) prepared separately steam Steam generator for steam characterized in that it is supplied to. The method according to claim 1, It includes a water supply pipe 12 piped to the lower end of the evaporation tank 10, the water supply pipe 12 protrudes upward from the bottom surface of the evaporation tank 10, the end of which is directed toward the bottom of the evaporation tank (10) Steam generator for steaming, characterized in that formed to be bent to. The method according to claim 5, The water supply pipe 12 is piped to the lower end of the evaporation tank 10 via the power socket 18 of the heating rod 11 exposed to the outside of the evaporation tank 10, the water supply pipe 12 is a heating rod ( Steam steam generator characterized in that the waste heat generated in the power socket (18) of 11) is received by heat exchange and preheated to feed water to the evaporation tank (10). The method according to claim 5, The end surface of the water supply pipe 12 is clogged, the discharge hole 38 is formed in the circumferential direction at the end of the water supply pipe 12, and the water is ejected into a plurality of streams through the discharge hole 38 Steam generator for steaming characterized in that. The method according to claim 5, A ball valve 41 rotatably supported in the water supply pipe 12 and having a through hole formed therein to control a flow rate of water; Buoyancy port (39) for detecting the water level of the water supplied to the evaporator (10); A support (40) connecting the ball valve (41) and the buoyancy port (39) so that the ball valve (41) is interlocked with the buoyancy port (39), and having one end hinged by a ball valve (41) and a hinge pin; Steam generator for steaming comprising a. The method according to claim 1, And a first drain pipe 13 and a second drain pipe 14 piped to the lower end of the evaporation tank 10, wherein the drain pipe opens and closes the water stored in the evaporation tank 10 by manual opening and closing. The second drain pipe (14) is installed to protrude upward from the evaporator (10) steam steam generator, characterized in that the overflow when the supercharged water over the set height of the second drain pipe (14). The method according to claim 9, The second drain pipe 14 includes a buoyancy cap 42 attached to cover the upper end of the second drain pipe 14, and a plurality of drain holes 43 formed in the buoyancy cap 42 in the circumferential direction. When the water is supercharged above the set height of the second drain pipe 14, the buoyancy cap 42 floats on the water and the water is discharged to the second drain pipe 14 through the drain hole 43 as the drain hole 43 is opened. Steam generator for steaming, characterized in that. delete The method according to claim 1, The loading stand 16 is formed in the form of a circular frame or a rectangular frame according to the shape of the steamer 15, has the same center to be selectively usable according to the size of the steamer 15, and the loading stand 17 at regular intervals. Steam generator for steaming, characterized in that further formed. The method according to claim 1, On the upper side of the rear side wall of the lower main body 19, a drip 35 is installed so that the drip 35 receives condensate flowing along the bottom of the top cover 22 when the top cover 22 is opened and closed. Steam generator for steam characterized in that the flow to the outside. The method according to claim 1, Steam generator for steam, characterized in that the bottom of the evaporator 10 is installed a far-infrared emitter made of any one selected from germanium, elvan, ceramic, jade, tourmaline.

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