KR101777114B1 - Dewatering device of agricultural products using steam and cooling air - Google Patents

Abstract

The present invention relates to an apparatus for steaming and dehydrating crops using steam and cooling air. To this end, apparatus of the present invention comprises: a steaming drum including an insertion hopper and a release hopper formed at one side and the other side respectively, a transfer screw for transferring the crops inserted through the insertion hopper therein to the release hopper, and a steam supply part supplying steam; and a dehydration stand provided on the side of the release hopper so as to dehydrate the released crops. The steaming drum slants so that one side where the insertion hopper is formed and the other side where the release hopper is formed can have slope.

Description

TECHNICAL FIELD [0001] The present invention relates to an apparatus for dehydrating agricultural crops using steam and cooling air,

The present invention relates to an apparatus for steaming and dehydrating agricultural crops such as mugwort.

More particularly, the present invention relates to a method of manufacturing a steam-producing drum, in which a feed hopper is formed on one side of a cylindrical steam-generating drum and a discharge hopper is formed on the other side, (Steam) is supplied to the steam-heated drum to steam the agricultural crop source to be fed, and the steam is fed to the steam-driven drum to dehydrate the agricultural-crop source fed from the steam- The present invention relates to a device for steaming and dewatering.

In general, agricultural crops such as mugwort are grown wild in the mountains or cultivated, and then they make rice cakes and use them as herbs.

Recently, due to the increase of interest in health due to the improvement of domestic dietary level, the importance of vegetable intake such as mugwort among the agricultural crops is highly evaluated and the demand is increasing rapidly.

However, agricultural crops are not easy to ingest, such as decaying and hardening over time after harvesting, resulting in various problems with handling.

In order to solve such a problem, there has been developed a technique which can improve the utilization to be processed by various methods by collecting mugwort, etc., and then steaming it by steam (steam) or the like, In fact.

Among them, there is a need to remove moisture for long-term storage by rubbing agricultural crops such as mugwort, and various dehydrating devices having excellent water removal ability have been developed.

As one of various dewatering apparatuses like this, Patent Document 10-10-0104701 discloses an apparatus for dewatering organic waste by using a multiple pressure dewatering apparatus.

FIG. 1 is a view showing an organic waste disintegration apparatus using a multiple pressure dewatering apparatus. The apparatus includes a hopper for storing waste made of food waste, agricultural by-products or industrial waste containing moisture, (1), and a charging port (10) for charging the secondary battery (1) into the housing (20); a pressure generating device formed at an end of the primary treating section; The first housing (20) of the primary treatment unit includes a first screw (21) for transferring and compressing the food waste, and a second screw (21) for transferring the food waste from the liquid waste of the food waste The secondary processing unit forms a certain shape from the solid by the pressing force with the second housing 30, And a second pellet die 50 having a hole formed therein. The second housing 20 includes a heating device 31 for heating the solid component supplied through the pressure-generating device, And a second screw (32) for transferring and pressing the solid component.

The conventional apparatus for dewatering organic wastes using the multiple pressure dewatering apparatus includes a heating device 31 configured by using a heating element, a heater, a steam heater, or the like in the second housing 30, So that the solid material conveyed by the operation of the second screw 32 can be heated and dried.

However, as shown in FIG. 1, the apparatus for crushing and dehydrating organic wastes using the multiple pressurized dewatering apparatus is installed horizontally with the first housing 20 and the second housing 30, Accordingly, there is a problem in that solid matter is not affected evenly by steam (steam) during heating and drying of solid matter using a steam heater or the like.

In order to uniformly supply the heat generated by the steam by the first housing 20 and the second housing 30 installed in a horizontal state with respect to the ground, steam is supplied throughout the entire length of the second housing 30 It is necessary to provide a separate piping or the like for increasing the manufacturing cost.

Published Patent No. 10-2010-0104701 (September 29, 2010)

SUMMARY OF THE INVENTION The present invention has been made in order to solve the above-mentioned problems, and it is an object of the present invention to provide a steam drum having a cylindrical shape and a hopper formed on one side of the steam drum and a discharge hopper on the other side, (Steam) is supplied to the steam-feed drum, so that the steam-steamed steam is fed to the steam-feed drum, and the steam is fed to the steam-feed drum, The present invention also provides an apparatus for dehydrating agricultural crops using steam and cooling air to be dehydrated by the cooling air.

Another problem to be solved by the present invention is that one side of the steam drum on which the feed hopper is formed and the other side of the steam drum on which the discharge hopper is formed are inclined so that the steam is supplied from one side of the steam drum The agricultural crop circles which are fed into the feed hopper and moved through the steam drum are moved upward by the inclination of the steam drum to be evenly contacted with each other so that the steam can be evenly supplied into the steam drum. The present invention relates to an apparatus for dehydrating and sowing agricultural crops using steam and cooling air.

Another problem to be solved by the present invention is to remove moisture primarily from the cooling section in the cooling section by feeding the agricultural crop source conveyed through the steamed drum, Which is capable of increasing the dehydration effect in the process of removing moisture through a large number of crops by removing steam and cooling air.

In order to solve the above problems, an apparatus for dewatering agricultural crops using steam and cooling air according to the present invention includes a feed hopper and a discharge hopper formed on one side and the other side, respectively, and an agricultural crop source A steam drum having a feed screw for feeding the steam to the hopper; And a dewatering unit disposed on the side of the discharge hopper for dewatering the discharged agricultural crop source, wherein the steam drum has one side where the feed hopper is formed and another side where the discharge hopper is formed is inclined so as to have a slope The present invention relates to an apparatus for dehydrating and sowing agricultural crops using steam and cooling air.

The present invention is characterized in that a feeding hopper is formed on one side of a cylindrical steam-generating drum and a discharge hopper is formed on the other side of the steam-producing drum, and a feeding screw rotated by the power of the motor is installed therein. (Steam) is supplied to the steamed drum, so that the agricultural crop source is fed and the agricultural crop source transferred from the steamed drum is efficiently dewatered by the cooling air.

In the present invention, one side of the steam drum where the feed hopper is formed and the other side of the steam drum where the discharge hopper is formed are inclined so that the steam is fed from one side of the steam drum, Due to the nature, the agricultural crop circles, which are fed through the feed hopper and moved through the steam drum, are moved upward by the inclination of the steam drum, and are uniformly contacted with each other so that steam can be uniformly supplied into the steam drum. have.

In addition, the present invention is characterized in that, in the present invention, water is primarily removed from the cooling unit by the cooling air to the agricultural crop source conveyed and discharged through the steamed drum, and water is removed secondarily by squeezing the agricultural crop source in the pressing unit, It has a remarkable effect that the dehydration effect can be increased in the course of removing moisture from the water.

1 is a view showing an organic waste disintegration apparatus using a conventional multiple pressure dewatering apparatus.
FIG. 2 is a conceptual diagram showing an apparatus for dehydrating and sowing agricultural crops using steam and cooling air according to the present invention.
FIG. 3 is a cross-sectional view showing a steam drum in an apparatus for squeezing and dehydrating agricultural crops using steam and cooling air according to the present invention.
FIG. 4 is a view showing another example of a feed screw in an apparatus for steam-raising and dewatering agricultural products using steam and cooling air according to the present invention.
5 is a perspective view showing a dehydrating stand in an apparatus for dehydrating and sowing agricultural crops using steam and cooling air according to the present invention.
6 is a side view showing a dehydrating stand in an apparatus for dehydrating and sowing agricultural crops using steam and cooling air according to the present invention.
FIG. 7 is a perspective view showing another example of a dewatering unit in an apparatus for dewatering agricultural crops using steam and cooling air according to the present invention.

Advantages and features of embodiments of the present invention and methods of achieving them will become apparent with reference to the embodiments described in detail below with reference to the accompanying drawings. The present invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete, and will fully convey the scope of the invention to those skilled in the art. To fully disclose the scope of the invention to those skilled in the art, and the invention is only defined by the scope of the claims. Like reference numerals refer to like elements throughout the specification.

In the following description of the present invention, a detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear. The terms and words used in the present specification and claims should not be construed to be limited to ordinary or dictionary meanings defined in consideration of functions in the embodiments of the present invention, It should be construed in the meaning and concept consistent with the technical idea of the present invention based on the principle that the concept of the term can be appropriately defined in order to explain it in the best way.

Therefore, the embodiments described in the present specification and the configurations shown in the drawings are merely the most preferred embodiments of the present invention and do not represent all the technical ideas of the present invention. Therefore, various equivalents And variations are possible.

Before describing the present invention with reference to the accompanying drawings, it is not shown what is not necessary in order to reveal the gist of the present invention, that is, a publicly known structure that a person skilled in the art can easily add, .

The apparatus for dehydrating agricultural crops using steam and cooling air according to the present invention is a device for dehydrating agricultural crops using steam (steam) for long-term storage of agricultural crop resources such as mugwort, And to a device for dehydrating and sowing agricultural crops using steam and cooling air.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENT Hereinafter, an apparatus for deepening and sowing agricultural crops using steam and cooling air according to the present invention will be described in detail with reference to the accompanying drawings.

FIG. 2 is a conceptual view showing an apparatus for dehydrating agricultural crops using steam and cooling air according to the present invention, and FIG. 3 is a schematic view illustrating a steam drum in an apparatus for dehydrating agricultural crops using steam and cooling air according to the present invention. And FIG. 4 is a view showing another example of the conveying screw in the apparatus for dehydrating and sowing agricultural crops using steam and cooling air according to the present invention. FIG. 5 is a cross- 6 is a side view showing a dewatering device in an apparatus for dewatering and cultivating agricultural crops using steam and cooling air according to the present invention, and Fig. 7 is a side view showing a dehydrating stand in a device for steam and cooling according to the present invention. FIG. 3 is a perspective view showing another example of a dehydrating stand in an apparatus for dehydrating agricultural products by using air.

The apparatus for dehydrating agricultural crops using steam and cooling air according to the present invention comprises a steam drum 100 supplying steam (steam) in the course of feeding agricultural agricultural crops, And a dewatering unit 200 for dewatering the crop source.

The steaming drum 100 performs a function of feeding the agricultural crop source such as a soot and feeding the steam to the agricultural crop source by supplying the steam to the steam feed drum 100. The steam feed drum 110 feeds the feed hopper 110, (130) and a discharge hopper (140).

Such a steamed drum 100 may be formed in an overall cylindrical shape, as shown in the accompanying drawings.

When the conveying screw 120, which will be described later, is installed in the steam drum 100, the shape of the steam drum 100, which is formed in a cylindrical shape, By minimizing the gap, it is possible to prevent the problem that the agricultural crop source is caught in the gap and can not be transported despite the operation of the transporting screw 120, and further, the residue remaining as the residue is minimized, .

Depending on the design conditions, a moisture discharge hole 101 may be provided on one side of the steamed drum 100.

The water discharge hole 101 functions to discharge moisture generated by steam or the like supplied into the steamed drum 100 to the outside of the steamed drum 100.

Furthermore, a valve (not shown) for opening and closing the water discharge hole 101 may be further provided.

Thus, by operating the valve, it is possible to open and close the water discharge hole 101 to selectively and easily discharge the moisture inside the steam bath 100.

The feeding hopper 110 is formed at an upper side of one side of the steam generator drum 100, and the upper side is wide and the lower side is narrow.

The agricultural crop source is introduced through the feeding hopper 110 and is drawn into the steam generator drum 100 and is transported to the other side of the steam generator drum 100 by the operation of the feeding screw 120 which will be described later.

The feed screw 120 is provided inside the steam drum 100 to feed the agricultural crop source fed into the feed hopper 110 to the other side of the steam drum 100, And is connected to the motor and rotated according to the operation of the motor.

When the conveying screw 120 is rotated, the agricultural crop source is moved along the screw blade to the steamed drum 100, As shown in Fig.

According to the design conditions, as shown in FIG. 4, a plurality of through-shaped grooves 121 may be formed in the screw-shaped blade of the feed screw 120.

The grooves 121 serve to move moisture generated by steam or the like supplied into the steam-heating drum 100 to one side of the steam-steamer 100 through the grooves 121.

That is, even in the process of rotating the feed screw 120, the moisture inside the steamed drum 100 is smoothly moved to one side of the steamed drum 100 through the groove 121 formed in the screw-shaped blade, The steam is discharged to the outside of the steamed drum 100 through the discharge hole 101, so that it is possible to prevent the problems such as the water inside the steamed drum 100 from corrupting the agricultural crop source.

As shown in the accompanying drawings, the steam supply unit 130 is provided at a lower portion of the steam-heated drum 100, and supplies steam (steam) from the lower portion of the steam-heated drum 100 to the steam- Function.

The steam supply unit 130 may be provided at a lower side of the steam generator drum 100.

Further, the steam can be smoothly supplied through a plurality of pipes, and each pipe may be provided with a valve for opening and closing the pipe.

The discharge hopper 140 is formed at a lower portion of the other side of the steam generator drum 100 so that the agricultural crop source transferred to the other side of the steam drum 100 through the transfer screw 120 is discharged to the outside through the discharge hopper 140.

The steam-driven drum 100 having such a configuration may be provided at one side where the feed hopper 110 is formed and at the other side where the discharge hopper 140 is formed, so as to have an inclination.

In detail, as shown in the accompanying drawings, the other side of the steam drum 100 where the discharge hopper 140 is formed is formed so as to be higher than one side of the steam drum 100 where the feed hopper 110 is formed As shown in FIG.

The steam supplied from the steam supply unit 130 provided at the lower portion of the steam-driven drum 100 is moved upward from the one side of the steam-driven drum 100 to the steam-driven drum 100 ) Steam can be supplied evenly throughout the internal space.

The steam supply unit 130 is provided at one side of the steam generator drum 100 so that one side of the steam generator drum 100 where the feed hopper 110 is formed is connected to the other side of the steam generator drum 100 where the discharge hopper 140 is formed So that steam is intensively supplied to the agricultural crop source supplied through the input hopper 110 so that the agricultural crop source is directly poured and the steam is fed to the other side of the steam drum 100 by the feed screw 120 The amount of moisture generated during the process of steaming the agricultural crop source is most likely to be maintained at one side of the steamed drum 100 The moisture generated in accordance with the inclination of the steamed drum 100 can be rapidly discharged to the outside through the water discharge hole 101 formed at one side of the steamed drum 100. [

At this time, the degree of inclination of the steamed drum 100 may be set to have an inclination angle of about 10 ° to 25 ° with respect to the ground, and the inclination angle may be different according to the standard of the steamed drum 100.

For example, if the size of the steamed drum 100 is large and the agricultural crop source having a larger capacity is inserted, the steamed drum 100 may have an inclination angle of about 20 ° so as to smooth the discharge of water. When the size of the agricultural crop 100 is small and a relatively small capacity of the agricultural crop source is input, the water can smoothly flow even if it has an inclination angle of about 15 degrees.

5 and 6, the dewatering unit 200 is installed in the lower part of the discharge hopper 140 formed on the other side of the steam generator drum 100, And is mainly composed of a cooling unit 210 and a pressurization unit 220. The cooling unit 210 and the pressurization unit 220 function to remove moisture and to squeeze the agricultural crop source to remove moisture.

5, the cooling unit 210 includes a structure formed below the discharge hopper 140 and having a space for allowing air outside the cooling unit 210 to flow therein, A cooler grid 211, a through hole 212, a support 213, and a cooler 211. The coolant grid 211, the through-hole 212, the support 213, And a cooling fan (214).

In this case, the cooling unit 210 is formed in the form of a rectangular box. However, the cooling unit 210 may have any shape such as a cylindrical shape, or a structure in which a space is formed to allow outside air to flow therein. Of course.

The cooling section grid 211 is provided above the cooling section 210 of the dewatering station 200 so that the agricultural crop source discharged from the discharge hopper 140 is placed.

As shown in the accompanying drawings, the cooler grid 211 is formed in a lattice shape so that the agricultural crop circle is placed above the cooling grid 211, and the moisture transferred together with the agricultural crop circle is supplied to the cooler grid 211).

In the operation of the cooling fan 214 described later, the outside air is moved into the cooling unit 210 while depriving the high-temperature heat of the agricultural crop source placed on the cooling unit grid 211, and the cooling fan 214 So that the agricultural crop circles placed on the cooling section grid 211 can be quickly cooled.

According to the design conditions, the cooling part grid 211 provided on the cooling part 210 may be configured to be rotatable.

For example, the cooling section grid 211 formed in a plate shape with the intermediate portion as a rotation axis can be configured to be rotated. When the agricultural crop source discharged through the discharge hopper 140 is placed on one side of the cooling section grid 211, the cooling section grid 211 is rotated to move the agricultural crop source over the entire area of the cooling section grid 211 The time during which the coolant grid 211 is in contact with the air at the time of the rotation of the coolant grid 211 is increased so that the influence of the cooling effect by the cooling fan 214 can be increased and the discharge hopper 140 Through steam, it is possible for the operator to prevent safety accidents by preventing part of the steam discharged together with the agricultural crop source from being directly contacted by the operator.

The through hole 212 is formed in a side surface of the dewatering table 200 to function as an inlet and an outlet through which the cooling air flows.

At this time, the size of the through hole 212 may be made to correspond to the size of the cooling fan 214, which will be described later.

Therefore, it is possible to minimize the occurrence of a gap between the through hole 212 and the cooling fan 214, so that when the cooling fan 214 operates, the outside air sucks the heat of the agricultural crop circles, The high temperature heat source discharged to the outside through the cooling fan 214 is discharged to the outside through the through hole 212 and the cooling fan 214 So that the cooling effect can be further improved.

The support base 213 is provided on a side surface of the dewatering base 200 and functions to support a cooling fan 214, which will be described later.

The support base 213 supports the lower surface of the cooling fan 214 and is configured to firmly support the cooling fan 214. The support base 213 protrudes outward on the side surface of the dewatering table 200, And a bottom frame is formed at an end of the guide frame so that a cooling fan 214, which will be described later, is placed and supported on the upper side of the bottom frame.

The cooling fan 214 is supported by a support 213 and performs a function of discharging the air inside the dewatering unit 200 to the outside through the through hole 212.

That is, when the cooling fan 214 is operated, external air (cooling air) flows into the cooling unit 210 while taking the heat of the agricultural crop source placed on the cooling unit grid 211, The heat of the agricultural crops placed on the cooling section grid 211 is cooled by the operation direction of the cooling fan 214 and the predetermined moisture is removed can do.

Preferably, the cooling fan 214 is supported on the support 213 by a detachable structure.

When the cooling fan 214 supported by the support table 213 is operated to discharge the air inside the dewatering table 200 to the outside and the cooling fan 214 is separated from the support table 213, 211 and the pressurizing portion grid 221 of the pressing portion 220 to be described later can be discharged to the outside of the dewatering vessel 200 easily.

According to the design conditions, as shown in FIG. 7, a plurality of configurations including the through holes 212, the support rods 213, and the cooling fans 214 may be provided in one dewatering station 200.

The external air (cooling air) is placed on the cooling section grid 211 by a plurality of cooling fans 214 provided below the cooling section grid 211 in which the agricultural crop circulated by the discharge hopper 140 is placed. The amount of the cooling air can be selectively controlled and the operation time for removing the moisture can be controlled. Thus, the cooling fan 214 can be adjusted according to the operation amount of the agricultural crop source, So that unnecessary operation of the cooling fan can be prevented beforehand and efficient operation can be performed.

The pressurizing unit 220 functions to pressurize the agricultural crop source conveyed from the cooling unit 210 to remove moisture in the second stage. The pressurizing unit 220 includes a pressurizing unit grid 221, a hinge 222, and a pressurizing plate 223 .

The pressing unit 220 may have the same structure as that of the cooling unit 210 as shown in the accompanying drawings. Preferably, the pressing unit 220 may include a cooling unit 210 and a pressing unit 220, It is preferable that the structure is constituted.

The pressurizing part grid 221 is provided on the pressurizing part 220 of the dewatering station 200 so that the agricultural crop source conveyed from the cooling part grid 211 is placed.

As shown in the accompanying drawings, the pressurization part grid 221 is formed in a lattice shape so that the agricultural crop circles are placed on the pressurization part grid 221. The moisture transferred together with the agricultural crop circles is supplied to the pressurization part grid 221).

According to the design conditions, the grid size of the cooler grid 211 may be larger than the grid size of the presser grid 221.

The cooling part grid 211 functions to cool the agricultural crop source placed on the cooling part grid 211 using cooling air and to support the agricultural crop source in the process of removing predetermined moisture The pressurizing portion grid 221 presses the agricultural agricultural material placed on the pressurizing portion grid 221 through the pressurizing portion 223 to press the pressurizing portion grid 221 from the upper side to the lower side, In order to prevent the agricultural crop source from flowing into the lower portion of the pressurized portion grid 221.

That is, since the cooler grid 211 is relatively larger than the size of the presser grid 221, more water can be introduced into the cooler grid 211 from the cooler grid 211, 221 to minimize the introduction of the agricultural crop source into the dewatering tank 200 together with the moisture during the process of pressurizing the agricultural crop source.

The hinge 222 is formed on a side surface of the pressing portion 220 of the dewatering table 200 to be coupled with a pressing plate 223 to be described later.

The pressure plate 223 is rotatably coupled to the hinge 222 and functions to press the upper surface of the pressing portion grid 221 in accordance with the rotation of the pressing plate 223.

Thus, when the presser plate 223 is rotated, the agricultural crop source placed on the presser grid 221 is pressed from the upper side to the lower side to discharge the moisture remaining in the agricultural crop source to the lower side of the presser grid 221 .

At this time, the pressure plate 223 may be formed with a handle 224 on the opposite side to which the hinge 222 is coupled, as shown in the accompanying drawings. When the operator grasps the handle 224 and presses the pressure plate 223 So that the convenience of the work can be provided.

According to design conditions, the elastic member 225 may be further provided to elastically support the pressure plate 223 upward.

The elastic member 225 elastically supports the pressing plate 223 so that the pressing plate 223 is rotated upward so that the operator can rotate the pressing plate 223 in the downward direction, The pressing plate 223 is rotated upward by the elastic force of the elastic member 225 so that the pressing plate 223 is returned to the original position by releasing the force holding the pressing plate 223 after pressing the agricultural crop source.

Accordingly, the worker can perform the process of pressing the agricultural crop source only by rotating the pressing plate 223 downward, thereby improving the convenience of the work and improving the work efficiency.

According to the present invention, in the apparatus for dewatering agricultural agricultural products using steam and cooling air according to the present invention, a loading hopper 110 is formed on one side of a cylindrical steam generator drum 100, and a discharge hopper And a feed screw 120 which is rotated by the power of the motor is installed in the inside of the steam generator 100 so that the agricultural crop source to be fed through the feed hopper 110 is fed. ) To feed the agricultural crop source to be fed, and the agricultural crop source transferred from the steamed drum 100 can be efficiently dewatered by the cooling air.

One side of the steam generator drum 100 in which the feed hopper 110 is formed and the other side of the steam generator drum 100 in which the discharge hopper 140 is formed are inclined so as to have a slope, When the steam is supplied from one side, the agricultural crop circulated through the steam drum 100 is introduced into the feed hopper 110 due to the property of the steam rising up, and is moved upward by the inclination of the steamed drum 100 So that the steam can be evenly supplied into the steam-heated drum 100.

In addition, in the agricultural crop source conveyed and discharged through the steamed drum 100, water is firstly removed from the cooling unit 210 using cooling air, and the agricultural crop source is squeezed in the pressurization unit 220, By removing moisture, the dehydration effect can be increased in the process of removing water over a large number of times.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, It can be seen that branch substitution, modification and modification are possible.

100: Steam drum 101: Water discharging hole
110: Feed hopper 120: Feed screw
121: groove 130: steam supply part
140: Exhaust hopper 200: Dewatering base
210: cooling section 211: cooling section grid
212: Through hole 213: Support
214: cooling fan 220:
221: pressing portion grid 222: hinge
223: pressure plate 224: handle
225: elastic member

Claims (10)

A feed hopper 110 and a hopper 140 are formed on one side and the other side of the hopper 110 and a transfer screw 120 for transferring the agricultural crop source introduced into the hopper 110 into the hopper 140, A steam-heating drum (100) provided with a steam supply unit (130) for supplying steam; And
And a dewatering unit 200 provided on the drain hopper 140 for dewatering the discharged agricultural crop source,
The steam-heated drum 100 is
One side where the feed hopper 110 is formed and the other side where the discharge hopper 140 is formed is inclined so as to have an inclination,
The dewatering vessel (200)
A cooling unit 210 for cooling the agricultural crop source discharged from the discharge hopper 140; And
And a pressurization unit 220 for pressurizing the agricultural crop source transferred from the cooling unit 210 to remove moisture.
The method according to claim 1,
The steam-heated drum 100 is
And a water discharge hole (101) communicating with the outside is formed at a lower side of the steam generator and the steam generator.
The method according to claim 1,
The conveying screw 120
Wherein a plurality of grooves (121) penetrating through a screw-shaped blade are formed.
delete The method according to claim 1,
The cooling unit 210
And a cooling unit grid 211 provided on the dewatering unit 200 and on which the agricultural crop circulated from the discharge hopper 140 is placed,
The pressing portion 220
And a pressurizing part grid 221 on which the agricultural crop source transferred from the cooling part grid 211 is placed,
Wherein the cooling unit grid (211) and the pressing unit grid (221) are formed in a lattice shape.
The method of claim 5,
Wherein the lattice size of the cooler grid (211) is larger than the lattice size of the presser grid (221).
The method of claim 5,
The cooling unit 210
A through hole 212 formed in a side surface of the dewatering vessel 200 and allowing the inside and the outside to pass therethrough;
A support 213 provided on a side surface of the dewatering table 200; And
A cooling fan 214 installed in the support 213 for introducing outside air into the dewatering vessel 200 through the cooling part grid 211 and discharging the introduced air to the outside through the through hole 212; Wherein the steam and cooling air are used to produce steam and dehydrate the agricultural crop.
The method of claim 7,
The cooling unit 210
Wherein a plurality of structures including the through hole (212), the support table (213), and the cooling fan (214) are provided.
The method of claim 5,
The pressing portion 220
A hinge 222 formed on the side of the dewatering table 200;
And a pressure plate 223 rotatably coupled to the hinge 222,
And pressurizing the agricultural crop source placed on the pressing portion grid (221) when the pressing plate (223) is rotated.
The method of claim 9,
The pressing portion 220
And an elastic member (225) for elastically supporting the pressure plate (223) upward. The device for dehydrating agricultural agricultural products using steam and cooling air.

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