WO2012138160A2 - Construction method for changeable green house structure - Google Patents

Construction method for changeable green house structure Download PDF

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Publication number
WO2012138160A2
WO2012138160A2 PCT/KR2012/002596 KR2012002596W WO2012138160A2 WO 2012138160 A2 WO2012138160 A2 WO 2012138160A2 KR 2012002596 W KR2012002596 W KR 2012002596W WO 2012138160 A2 WO2012138160 A2 WO 2012138160A2
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WO
WIPO (PCT)
Prior art keywords
vertical frame
cylinder
groove
green house
frame
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PCT/KR2012/002596
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French (fr)
Korean (ko)
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WO2012138160A3 (en
Inventor
김기영
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주식회사 홀인원
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Publication of WO2012138160A2 publication Critical patent/WO2012138160A2/en
Publication of WO2012138160A3 publication Critical patent/WO2012138160A3/en

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    • A—HUMAN NECESSITIES
    • A01—AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
    • A01G—HORTICULTURE; CULTIVATION OF VEGETABLES, FLOWERS, RICE, FRUIT, VINES, HOPS OR SEAWEED; FORESTRY; WATERING
    • A01G9/00—Cultivation in receptacles, forcing-frames or greenhouses; Edging for beds, lawn or the like
    • A01G9/24—Devices or systems for heating, ventilating, regulating temperature, illuminating, or watering, in greenhouses, forcing-frames, or the like
    • A01G9/241—Arrangement of opening or closing systems for windows and ventilation panels
    • A—HUMAN NECESSITIES
    • A01—AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
    • A01G—HORTICULTURE; CULTIVATION OF VEGETABLES, FLOWERS, RICE, FRUIT, VINES, HOPS OR SEAWEED; FORESTRY; WATERING
    • A01G9/00—Cultivation in receptacles, forcing-frames or greenhouses; Edging for beds, lawn or the like
    • A01G9/24—Devices or systems for heating, ventilating, regulating temperature, illuminating, or watering, in greenhouses, forcing-frames, or the like
    • A—HUMAN NECESSITIES
    • A01—AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
    • A01G—HORTICULTURE; CULTIVATION OF VEGETABLES, FLOWERS, RICE, FRUIT, VINES, HOPS OR SEAWEED; FORESTRY; WATERING
    • A01G9/00—Cultivation in receptacles, forcing-frames or greenhouses; Edging for beds, lawn or the like
    • A01G9/14—Greenhouses
    • A—HUMAN NECESSITIES
    • A01—AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
    • A01G—HORTICULTURE; CULTIVATION OF VEGETABLES, FLOWERS, RICE, FRUIT, VINES, HOPS OR SEAWEED; FORESTRY; WATERING
    • A01G9/00—Cultivation in receptacles, forcing-frames or greenhouses; Edging for beds, lawn or the like
    • A01G9/14—Greenhouses
    • A01G9/16—Dismountable or portable greenhouses ; Greenhouses with sliding roofs
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02A—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
    • Y02A40/00—Adaptation technologies in agriculture, forestry, livestock or agroalimentary production
    • Y02A40/10—Adaptation technologies in agriculture, forestry, livestock or agroalimentary production in agriculture
    • Y02A40/25—Greenhouse technology, e.g. cooling systems therefor

Definitions

  • the present invention relates to a method for constructing a variable greenhouse structure, wherein a vertical cell formed in a rectangular shape is movable up and down by a guide and a cylinder, and automatically adjusts the temperature inside the greenhouse structure, during weather worsening due to typhoons or snow, or energy.
  • the present invention relates to a method for constructing a variable greenhouse structure capable of controlling the volume of an interior for savings.
  • the conventional vinyl house has a structure in which a plurality of arch-shaped frames are arranged in a rib shape at regular intervals and connected to each other by horizontal frames to fix them, and then cover the outside with vinyl.
  • the inside of the vinyl is covered with a thermal insulation film to keep the inside temperature constant, and in summer, both sides of the vinyl house are opened and closed to prevent the internal temperature from rising. .
  • the conventional vinyl house is provided to maintain the internal temperature at the optimum temperature for plant growth, but when the external temperature is optimal, such as in summer, even if both sides of the vinyl house are opened, the temperature is higher than necessary. There is a high rise or poor room temperature control, which can cause crop failure or damage.
  • the vinyl house has a problem in that the weak vinyl is oxidized and corroded in the heat in summer so that the transparency is poorly absorbed in the winter and thus does not absorb the sun properly, which greatly affects the growth of crops.
  • the present invention is to solve the above problems, it is an object of the construction on the ground by automating the variable of the greenhouse structure due to the aging of the rural population.
  • the broken cell is intended to be made of glass or plastic material to be recycled after replacement.
  • the purpose is to provide an appropriate volume by varying the greenhouse structure according to the type and purpose of crops or livestock.
  • the present invention for achieving the above object in the construction method for installing a variable greenhouse structure (10) for growing crops or raising livestock, the construction method perforated to form a first vertical frame insertion groove 220 in the ground Step S100;
  • the vertical frame cylinder groove 400, the roof frame cylinder groove 210, and the wind pressure regulator cylinder groove 211 are installed in the vertical frame cylinder 400, the roof frame cylinder 410, and the wind pressure regulator cylinder 411. Step (S300);
  • the cylinder case 300 is installed on the ground, and the installation step of fixing the flexible pipe 412 to the upper surface of the first vertical frame 100 and the cylinder case 300 in the first vertical frame insertion groove 220 (S400). ;
  • the first vertical frame 100, the second vertical frame 110, the third vertical frame 111 is coupled, the upper surface of the third vertical frame 111 and the bottom of the roof frame 112 is coupled (S600) It is characterized by including the configuration.
  • the step of drilling the first vertical frame insertion groove 220 is to form a first vertical frame insertion groove 220 to fix the first vertical frame 100 to the ground in accordance with the crop cultivation or livestock size. It is characterized by.
  • the vertical frame cylinder groove 200, the roof frame cylinder groove 210, the wind pressure adjusting cylinder cylinder 211 drilling step (S200) is the vertical frame cylinder 40 and the roof frame cylinder 410, wind pressure adjusting table The groove is formed so that the cylinder 411 is partially embedded.
  • the vertical frame cylinder 400, the roof frame cylinder 410, the wind pressure adjusting cylinder 411 installation step (S300) is the vertical frame cylinder groove 200, roof frame cylinder groove 210, wind pressure adjusting table Part of the cylinders 400, 410, 411 are embedded in the groove formed in the drilling step (S300) of the cylinder groove 211, it is characterized in that the anchor bolt 40 is fixed to the groove bottom surface.
  • the cylinder case 300, the first vertical frame 100, the flexible pipe 412 in the installation step (S400), the cylinder case 300 is a fixed plate 50 is formed on the lower outer side anchor bolt (40) It is fixed to the ground, the first vertical frame 100 is inserted into the first vertical frame insertion groove 220, a plurality of fixing plate 50 is formed in the lower side of the first vertical frame 100, the anchor bolt ( 40) is fixed to the ground.
  • the rubber protrusion 130 is formed on the outer surface of the first vertical frame 100 fixed to the ground by the anchor bolt 40 in the second vertical frame 110 and the third vertical frame 111 coupling step (S500).
  • the transfer guide 121 formed on the outer side of the second vertical frame 110 and coupled to the second vertical frame guide groove 230 formed in the cylinder case 300 by being in close contact with the inside of the second vertical frame 110. And it is characterized in that coupled to the transfer projection 120 formed on the lower inner surface of the third vertical frame (111).
  • the 140 is coupled to maintain the internal temperature.
  • the present invention provides the following effects.
  • the present invention relates to a variable greenhouse structure, and provides an effect that can control the greenhouse structure without great effort by automating the variable of the greenhouse structure due to the aging of the rural population.
  • maintenance is effective by removing and replacing only broken cells during partial damage of the greenhouse structure, and the replaced cells are made of glass or plastic material to provide an effect of recycling.
  • FIG. 1 is a construction state diagram for a method for constructing a variable greenhouse structure according to the present invention.
  • Figure 2a, Figure 2b is a drilling step of the first vertical frame insertion groove for the construction method of the present invention variable greenhouse structure.
  • Figure 2c is a vertical frame cylinder, roof frame cylinder, wind pressure adjustment cylinder buried groove drilling step for the variable greenhouse structure construction method of the present invention.
  • Figure 2d is a vertical frame cylinder, roof frame cylinder, wind pressure adjustment cylinder buried and wind pressure adjustment step installation step for the variable greenhouse structure construction method of the present invention.
  • Figure 2e is a cylinder case, a first vertical frame and a flexible pipe installation step for the variable greenhouse structure construction method of the present invention.
  • Figure 2f is a coupling step with the first vertical frame after combining the second vertical frame and the third vertical frame for the construction method of the variable greenhouse structure of the present invention.
  • Figure 2g is a roof frame and the third vertical frame coupling step for the variable greenhouse structure construction method of the present invention.
  • Figure 3 is a cross-sectional view of the greenhouse structure for the present invention variable greenhouse structure construction method.
  • Figure 4 is a construction block diagram for the construction method of the present invention variable greenhouse structure.
  • Feeding protrusion 121 Feeding guide
  • FIG. 1 is a construction state diagram of the present invention
  • Figure 2 is a cross-sectional view of the greenhouse structure of the construction state diagram shown in Figure 1
  • Figure 3 is a construction flow diagram of the construction of the greenhouse structure of the construction state diagram shown in Figure 1
  • Figure 4 The construction block diagram for constructing the greenhouse structure of the construction state diagram shown in FIG.
  • the construction step of the greenhouse structure 10 comprises a first vertical frame insertion groove 220 drilling step (S100); Vertical frame cylinder 400, roof frame cylinder 410, wind pressure adjustment cylinder 411 buried groove drilling step (S200); Vertical frame cylinder 400, roof frame cylinder 410, wind pressure control cylinder 411 buried and wind pressure control unit 30 installation step (S300); Cylinder case 300, the first vertical frame 100 and the flexible pipe 412 installation step (S400); Combining the second vertical frame 110 and the third vertical frame 111 and then combining the first vertical frame 100 with the first vertical frame 100 (S500); Roof frame 112 and the third vertical frame 111 is made of a coupling step (S600).
  • S100 first vertical frame insertion groove 220 drilling step
  • the first vertical frame insertion groove 220 drilling step (S100) is a first vertical frame for fixing the first vertical frame 100 on the ground on which the greenhouse structure 10 is constructed
  • the frame insertion groove 220 is formed.
  • the vertical frame cylinder 400, the roof frame cylinder 410, and the wind pressure control cylinder 411 are partially embedded in the perforated grooves by drilling the ground, and the cylinders 400, 410 and 411.
  • the anchor bolt 40 is fixed to the bottom surface to support the external wind pressure or the weight of the greenhouse structure 10.
  • the wind pressure control unit 30 is installed in the installed wind pressure control cylinder 411 vertical frame cylinder 400, the roof frame cylinder 410, the wind pressure control cylinder provided to change the direction of the wind direction 411 is made of buried and wind pressure control unit 30 installation step (S300).
  • each of the cylinders 400, 410, and 411 is installed, and as shown in FIG. 2E, the cylinder case 300 surrounds the vertical frame cylinder 400, and a fixing plate 50 is formed below the outer side of the cylinder case 300.
  • the first vertical frame 100 is inserted into the first vertical frame insertion groove 220, a plurality of fixing plates 50 on the lower side of the outer side of the first vertical frame 100 Is formed is fixed to the ground by the anchor bolt (40), in order to protect the shaft of the vertical frame cylinder 400 from the outside of the cylinder case 300, the flexible tube 412 is coupled to the upper cylinder case 300, the first The vertical frame 100 and the flexible pipe 412 consists of the installation step (S400).
  • first vertical frame 100 is installed, as shown in Figure 2f, a rubber protrusion 130 is formed on the outer upper surface of the first vertical frame 100 fixed to the ground by the anchor bolt 40,
  • the inner side of the second vertical frame 110 is in close contact with the second vertical frame guide groove 230 formed in the cylinder case 300, the transfer guide 121 and the first formed on the outer surface of the second vertical frame 110
  • the second vertical frame 110 is coupled to the transfer protrusion 120 formed at the bottom of the inner side of the vertical frame 111 and the height is adjusted by moving the third vertical frame 111 by the lifting and lowering operation of the vertical frame cylinder 400.
  • the third vertical frame 111 is combined with the first vertical frame 100 and the coupling step (S500).
  • first vertical frame 100, the second vertical frame 110, the third vertical frame 111 is coupled, the insulating groove 150 and the roof frame formed on the upper surface in the third vertical frame 111
  • the roof frame 112 and the third vertical frame 111 are combined with each other (S600), and the greenhouse structure 10 is constructed as shown in FIG. 2G. will be.
  • FIG. 3 a cross-sectional view of the greenhouse structure 10, and operates the third vertical frame 111 by the lifting and lowering operation of the vertical frame cylinder 400, the third vertical frame 111
  • the second vertical frame 110 is moved according to the operation of the movement, and is inserted into the second vertical frame guide groove 230 and the third vertical frame guide groove 240 formed in the cylinder case 300 when descending, It consists of adjusting the height according to the operation of the roof frame cylinder 410 to raise and lower the roof frame 112 according to the selection.

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  • Life Sciences & Earth Sciences (AREA)
  • Environmental Sciences (AREA)
  • Greenhouses (AREA)

Abstract

The present invention relates to a construction method for a changeable green house structure, wherein square perpendicular cells can move up and down using guides and cylinders, the internal temperature of the green house is automatically controlled, and a control of internal volumetric space is possible in times of adverse meteorological conditions, such as typhoons and snow, or for saving energy. The present invention provides an effect of controlling the green house structure without great difficulties by automating changes made to the green house structure, which is prompted by the aging farming population; enables energy saving by opening and shutting the green house structure automatically on the basis of climate conditions, wherein during times of high temperatures in summer and low temperatures of winter, the green house structure can be completely opened or the height of the green house structure can be lowered to decrease the internal volumetric space; and enables effective maintenance by allowing only the damaged cells to be replaced when the green house structure is partially damaged. Additionally, when wind pressures are high, the green house structure provides protection against a disaster such as a typhoon, by lowering the height of the green house structure and by raising the wind direction through a wind pressure control panel disposed exterior to the green house structure, thereby decreasing damage to the green house structure. Further, the green house structure can be changed depending on the desired purpose, such as changing the type of agricultural product stored or livestock housed or controlling temperatures during the day and night, thereby providing an effect of maintaining an appropriate volumetric area in the green house.

Description

가변형 온실구조물 시공방법Variable greenhouse structure construction method
본 발명은 가변형 온실구조물 시공방법에 관한 것으로, 사각으로 형성된 수직 셀이 가이드와 실린더에 의해 상하로 이동가능하고, 온실구조물 내부의 온도를 자동조절하며, 태풍이나 눈 등으로 인한 기상악화시 또는 에너지 절약을 위한 실내 체적조절이 가능한 가변형 온실구조물을 시공하는 방법에 관한 것이다.The present invention relates to a method for constructing a variable greenhouse structure, wherein a vertical cell formed in a rectangular shape is movable up and down by a guide and a cylinder, and automatically adjusts the temperature inside the greenhouse structure, during weather worsening due to typhoons or snow, or energy. The present invention relates to a method for constructing a variable greenhouse structure capable of controlling the volume of an interior for savings.
종래의 비닐하우스는 아치형태의 프레임을 늑골형태로 일정간격 다수개 배열하고 이들을 수평프레임으로 서로 연결하여 고정시킨 다음 그 외부로 비닐을 씌운 구조로 되어 있다.The conventional vinyl house has a structure in which a plurality of arch-shaped frames are arranged in a rib shape at regular intervals and connected to each other by horizontal frames to fix them, and then cover the outside with vinyl.
또한, 겨울과 같은 계절에는 보온을 위해 비닐의 외부로 보온막을 씌워 내부의 온도를 일정하게 유지하도록 하고 있으며, 여름에 내부온도의 상승을 막기 위해 비닐하우스의 양측이 개폐되도록 하여 통풍을 시켜주고 있다.In addition, during the winter season, the inside of the vinyl is covered with a thermal insulation film to keep the inside temperature constant, and in summer, both sides of the vinyl house are opened and closed to prevent the internal temperature from rising. .
또한, 비닐을 이중으로 설치하여 내측 비닐에 지하수를 분사하여 수막을 형성하므로 지하수를 통해 열을 하우스 내부의 열을 낮춰주는 방법을 사용하고 있다.In addition, since the vinyl is installed in a double and ground water is injected into the inner vinyl to form a water film, a method of lowering the heat inside the house through the ground water is used.
그러나, 종래의 비닐하우스는 내부의 온도를 식물의 생장에 최적화된 온도를 유지시켜 주기 위해 제공된 것이나 여름철과 같이 외부온도가 최적상태일 경우에는 비닐하우스의 양측을 개방시켜 주더라도 필요 이상으로 온도가 많이 올라가거나 실내 온도제어가 잘 안되어 농작물의 생장에 장애가 되거나 큰 피해를 입게 되는 폐단이 있다.However, the conventional vinyl house is provided to maintain the internal temperature at the optimum temperature for plant growth, but when the external temperature is optimal, such as in summer, even if both sides of the vinyl house are opened, the temperature is higher than necessary. There is a high rise or poor room temperature control, which can cause crop failure or damage.
또한, 비닐하우스는 여름에 열에 약한 비닐이 산화 부식되어 투명도가 떨어져 겨울에 햇볕을 제대로 흡수시키지 못하여 농작물의 생장에 큰 악영향을 끼치게 되어 부분 손상시 전체비닐을 교체해야하는 문제점이 있다.In addition, the vinyl house has a problem in that the weak vinyl is oxidized and corroded in the heat in summer so that the transparency is poorly absorbed in the winter and thus does not absorb the sun properly, which greatly affects the growth of crops.
또한, 태풍이나 눈 등의 기상악화로 약한 비닐과 프레임이 무너지거나 날아가는 일이 발생하여 농작물이 피해를 입는 문제점이 있다.In addition, there is a problem that the crop is damaged due to the collapse or flying of the weak vinyl and the frame due to bad weather such as typhoons or snow.
또한, 현재 농업 인구의 고령화로 인해 비닐하우스 설치 및 유지보수가 어렵다는 문제점이 있다.In addition, there is a problem that the installation and maintenance of the plastic house is difficult due to the aging of the agricultural population.
본 발명은 상기와 같은 문제점을 해결하기 위한 것으로, 농촌 인구의 고령화로 인해 온실구조물의 가변을 자동화하여 지면에 시공하는 것을 목적으로 한다.The present invention is to solve the above problems, it is an object of the construction on the ground by automating the variable of the greenhouse structure due to the aging of the rural population.
또한, 온실구조물을 기후조건에 따라 자동으로 개폐되도록 함으로써, 여름철 온도가 높거나 낮을 때, 완전히 개방시키거나 구조물을 낮춤으로 내부온도를 적정온도를 유지시켜주는 것을 목적으로 한다.In addition, by automatically opening and closing the greenhouse structure in accordance with the climatic conditions, when the summer temperature is high or low, the purpose of maintaining the internal temperature to maintain the proper temperature by fully opening or lowering the structure.
또한, 온실구조물의 부분파손시 사용자가 파손된 셀 만을 교체함으로 간편한 유지보수를 제공하는 것을 목적으로 한다.In addition, it is an object of the user to provide a simple maintenance by replacing only the damaged cells when the partial damage of the greenhouse structure.
또한, 파손된 셀은 교체 후 재활용 되도록 유리 또는 플라스틱 재질로 이루어지는 것을 목적으로 한다.In addition, the broken cell is intended to be made of glass or plastic material to be recycled after replacement.
또한, 강한 풍압이 발생 될 때, 온실구조물을 낮추고 외부에 구비된 풍압조절대의 작동으로 풍향을 상승시켜 줌으로 온실구조물의 피해를 줄여주는 것을 목적으로 한다.In addition, when strong wind pressure is generated, the purpose of reducing the greenhouse structure by lowering the greenhouse structure and by increasing the wind direction by the operation of the wind pressure controller provided on the outside.
또한, 농작물 또는 가축의 종류와 목적에 따라 온실구조물을 가변시켜 적정 체적을 제공하는 것을 목적으로 한다.In addition, the purpose is to provide an appropriate volume by varying the greenhouse structure according to the type and purpose of crops or livestock.
상기와 같은 목적을 달성하기 위한 본 발명은 농작물 재배 또는 가축을 키우는 가변형 온실구조물(10)을 설치하는 시공방법에 있어서, 상기 시공방법에는 지면에 제1수직프레임 삽입홈(220)을 형성하는 천공단계(S100);The present invention for achieving the above object in the construction method for installing a variable greenhouse structure (10) for growing crops or raising livestock, the construction method perforated to form a first vertical frame insertion groove 220 in the ground Step S100;
상기 지면에 수직프레임 실린더(400), 지붕프레임 실린더(410), 풍압조절대 실린더(411)를 매설하기 위해 수직프레임 실린더 홈(200), 지붕프레임 실린더 홈(210), 풍압조절대 실린더 홈(211) 천공단계(S200);In order to embed the vertical frame cylinder 400, roof frame cylinder 410, wind pressure cylinder 411 on the ground, vertical frame cylinder groove 200, roof frame cylinder groove 210, wind pressure cylinder cylinder groove ( 211) drilling step (S200);
상기 형성된 수직프레임 실린더 홈(200), 지붕프레임 실린더 홈(210), 풍압조절대 실린더 홈(211)에 수직프레임 실린더(400), 지붕프레임 실린더(410), 풍압조절대 실린더(411)를 설치하는 단계(S300);The vertical frame cylinder groove 400, the roof frame cylinder groove 210, and the wind pressure regulator cylinder groove 211 are installed in the vertical frame cylinder 400, the roof frame cylinder 410, and the wind pressure regulator cylinder 411. Step (S300);
지면에 실린더 케이스(300)가 설치되고, 상기 제1수직프레임 삽입홈(220)에 제1수직프레임(100)과 실린더 케이스(300) 상면에 플렉서블 관(412)을 고정하는 설치단계(S400);The cylinder case 300 is installed on the ground, and the installation step of fixing the flexible pipe 412 to the upper surface of the first vertical frame 100 and the cylinder case 300 in the first vertical frame insertion groove 220 (S400). ;
상기 설치된 제1수직프레임(100)에 결합 된 제2수직프레임(110)과 제3수직프레임(111)을 결합하는 단계(S500);Coupling a second vertical frame (110) and a third vertical frame (111) coupled to the installed first vertical frame (100) (S500);
상기 제1수직프레임(100)과 제2수직프레임(110), 제3수직프레임(111)이 결합 되고, 상기 제3수직프레임(111) 상면과 지붕프레임(112) 하면이 결합 되는 단계(S600)를 포함하여 구성한 것을 특징으로 한다.The first vertical frame 100, the second vertical frame 110, the third vertical frame 111 is coupled, the upper surface of the third vertical frame 111 and the bottom of the roof frame 112 is coupled (S600) It is characterized by including the configuration.
또한, 상기 제1수직프레임 삽입홈(220) 천공단계(S100)는 농작물 재배 또는 가축 크기에 맞게 지면에 상기 제1수직프레임(100)을 고정하기 위해 제1수직프레임 삽입 홈(220)을 형성시키는 것을 특징으로 한다.In addition, the step of drilling the first vertical frame insertion groove 220 (S100) is to form a first vertical frame insertion groove 220 to fix the first vertical frame 100 to the ground in accordance with the crop cultivation or livestock size. It is characterized by.
또한, 상기 수직프레임 실린더 홈(200), 지붕프레임 실린더 홈(210), 풍압조절대 실린더 홈(211) 천공단계(S200)는 수직프레임 실린더(40)와 지붕프레임 실린더(410), 풍압조절대 실린더(411)가 일부 매설되도록 홈을 형성시킨 것을 특징으로 한다.In addition, the vertical frame cylinder groove 200, the roof frame cylinder groove 210, the wind pressure adjusting cylinder cylinder 211 drilling step (S200) is the vertical frame cylinder 40 and the roof frame cylinder 410, wind pressure adjusting table The groove is formed so that the cylinder 411 is partially embedded.
또한, 상기 수직프레임 실린더(400), 지붕프레임 실린더(410), 풍압조절대 실린더(411) 설치단계(S300)는 상기 수직프레임 실린더 홈(200), 지붕프레임 실린더 홈(210), 풍압조절대 실린더 홈(211) 천공단계(S300)에서 형성된 홈에 상기 각 실린더(400,410,411)가 일부 매설되고, 앵커볼트(40)로 홈 바닥면에 고정되는 것을 특징으로 한다.In addition, the vertical frame cylinder 400, the roof frame cylinder 410, the wind pressure adjusting cylinder 411 installation step (S300) is the vertical frame cylinder groove 200, roof frame cylinder groove 210, wind pressure adjusting table Part of the cylinders 400, 410, 411 are embedded in the groove formed in the drilling step (S300) of the cylinder groove 211, it is characterized in that the anchor bolt 40 is fixed to the groove bottom surface.
또한, 상기 실린더 케이스(300)와 제1수직프레임(100), 플렉서블 관(412) 설치단계(S400)에서 실린더 케이스(300)는 외측면 하부에 고정판(50)이 형성되어 앵커볼트(40)로 지면에 고정되며, 제1수직프레임(100)이 제1수직프레임 삽입홈(220)에 삽입되고, 제1수직프레임(100) 외측면 하부에 복수개의 고정판(50)이 형성되어 앵커볼트(40)로 지면에 고정되는 것을 특징으로 한다.In addition, the cylinder case 300, the first vertical frame 100, the flexible pipe 412 in the installation step (S400), the cylinder case 300 is a fixed plate 50 is formed on the lower outer side anchor bolt (40) It is fixed to the ground, the first vertical frame 100 is inserted into the first vertical frame insertion groove 220, a plurality of fixing plate 50 is formed in the lower side of the first vertical frame 100, the anchor bolt ( 40) is fixed to the ground.
또한, 상기 제2수직프레임(110)과 제3수직프레임(111) 결합단계(S500)에서 앵커볼트(40)로 지면에 고정된 제1수직프레임(100) 외측 상면에 고무돌기(130)가 형성되고, 제2수직프레임(110) 내측이 밀착되어 실린더 케이스(300)에 형성된 제2수직프레임 가이드 홈(230)에 결합 되고, 상기 제2수직프레임(110) 외측면에 형성된 이송가이드(121)와 제3수직프레임(111) 내측면 하단에 형성된 이송돌기(120)와 결합 되는 것을 특징으로 한다.In addition, the rubber protrusion 130 is formed on the outer surface of the first vertical frame 100 fixed to the ground by the anchor bolt 40 in the second vertical frame 110 and the third vertical frame 111 coupling step (S500). The transfer guide 121 formed on the outer side of the second vertical frame 110 and coupled to the second vertical frame guide groove 230 formed in the cylinder case 300 by being in close contact with the inside of the second vertical frame 110. And it is characterized in that coupled to the transfer projection 120 formed on the lower inner surface of the third vertical frame (111).
또한, 상기 제3수직프레임(111)과 지붕프레임(112)의 결합단계(S600)에서 제3수직프레임(111) 상면에 형성된 단열홈(150)과 상기 지붕프레임(112) 하면에 형성된 단열돌기(140)가 결합 되어 내부 온도를 유지시켜주는 것을 특징으로 한다.In addition, in the coupling step (S600) of the third vertical frame 111 and the roof frame 112, the insulation groove 150 formed on the upper surface of the third vertical frame 111 and the insulation projection formed on the lower surface of the roof frame 112. The 140 is coupled to maintain the internal temperature.
본 발명은 다음과 같은 효과를 제공한다.The present invention provides the following effects.
본 발명은 가변형 온실구조물에 관한 것으로, 농촌 인구의 고령화로 인해 온실구조물의 가변을 자동화함으로 큰 힘이 들지 않고 온실구조물을 제어할 수 있는 효과를 제공한다.The present invention relates to a variable greenhouse structure, and provides an effect that can control the greenhouse structure without great effort by automating the variable of the greenhouse structure due to the aging of the rural population.
또한, 기후조건에 따라 온실구조물을 자동으로 개폐되도록 함으로써, 여름철 온도가 높을 때와 겨울철 온도가 낮을 때 완전히 개방시키거나 높이를 낮춤으로 효과적인 에너지 효율을 제공한다.In addition, by automatically opening and closing the greenhouse structure according to the climatic conditions, it provides an efficient energy efficiency by fully opening or lowering the height when the summer temperature is high and the winter temperature is low.
또한, 온실구조물의 부분파손시 파손된 셀 만 제거하여 교체함으로 유지보수가 효과적이며, 교체한 셀은 유리 또는 플라스틱 재질로 이루어져 재활용이 가능하도록 하는 효과를 제공한다.In addition, maintenance is effective by removing and replacing only broken cells during partial damage of the greenhouse structure, and the replaced cells are made of glass or plastic material to provide an effect of recycling.
또한, 강한 풍압이 발생 될 때, 온실구조물을 낮추고 외부에 구비된 풍압조절대의 작동으로 풍향을 상승시켜 줌으로 온실구조물의 피해를 줄여 줌으로 태풍피해와 같은 재해를 막아주는 효과를 제공한다.In addition, when strong wind pressure is generated, it lowers the greenhouse structure and increases the wind direction by the operation of the wind pressure controller provided outside, thereby reducing the damage of the greenhouse structure, thereby providing an effect of preventing disasters such as typhoon damage.
또한, 농작물 또는 가축의 종류와 목적에 따라 온실구조물을 가변시켜 적정체적의 효과를 제공한다.In addition, by varying the greenhouse structure according to the type and purpose of crops or livestock, it provides the effect of the appropriate volume.
도 1은 본 발명 가변형 온실구조물 시공방법에 대한 시공상태도이다.1 is a construction state diagram for a method for constructing a variable greenhouse structure according to the present invention.
도 2a, 도 2b는 본 발명 가변형 온실구조물 시공방법에 대한 제1수직프레임 삽입홈 천공단계이다.Figure 2a, Figure 2b is a drilling step of the first vertical frame insertion groove for the construction method of the present invention variable greenhouse structure.
도 2c은 본 발명 가변형 온실구조물 시공방법에 대한 수직프레임 실린더, 지붕프레임 실린더, 풍압조절대 실린더 매설 홈 천공단계이다.Figure 2c is a vertical frame cylinder, roof frame cylinder, wind pressure adjustment cylinder buried groove drilling step for the variable greenhouse structure construction method of the present invention.
도 2d은 본 발명 가변형 온실구조물 시공방법에 대한 수직프레임 실린더, 지붕프레임 실린더, 풍압조절대 실린더 매설 및 풍압조절대 설치단계이다.Figure 2d is a vertical frame cylinder, roof frame cylinder, wind pressure adjustment cylinder buried and wind pressure adjustment step installation step for the variable greenhouse structure construction method of the present invention.
도 2e은 본 발명 가변형 온실구조물 시공방법에 대한 실린더 케이스, 제1수직프레임 및 플렉서블 관 설치단계이다.Figure 2e is a cylinder case, a first vertical frame and a flexible pipe installation step for the variable greenhouse structure construction method of the present invention.
도 2f은 본 발명 가변형 온실구조물 시공방법에 대한 제2수직프레임과 제3수직프레임 결합 후 제1수직프레임과 결합단계이다.Figure 2f is a coupling step with the first vertical frame after combining the second vertical frame and the third vertical frame for the construction method of the variable greenhouse structure of the present invention.
도 2g은 본 발명 가변형 온실구조물 시공방법에 대한 지붕프레임과 제3수직프레임 결합단계이다.Figure 2g is a roof frame and the third vertical frame coupling step for the variable greenhouse structure construction method of the present invention.
도 3는 본 발명 가변형 온실구조물 시공방법에 대한 온실구조물 단면도이다.Figure 3 is a cross-sectional view of the greenhouse structure for the present invention variable greenhouse structure construction method.
도 4는 본 발명 가변형 온실구조물 시공방법에 대한 시공블록도이다.Figure 4 is a construction block diagram for the construction method of the present invention variable greenhouse structure.
10. 온실구조물 30. 풍암조절대10. Greenhouse Structure 30. Wind Rock Control Panel
40. 앵커볼트 50. 고정판40. Anchor Bolt 50. Mounting Plate
100. 제1수직프레임 110. 제2수직프레임100. 1st vertical frame 110. 2nd vertical frame
111. 제3수직프레임 112. 지붕프레임111. Third Vertical Frame 112. Roof Frame
120. 이송돌기 121. 이송가이드120. Feeding protrusion 121. Feeding guide
130. 고무돌기 140. 단열돌기130. Rubber projection 140. Insulation projection
150. 단열홈150. Insulation groove
200. 수직프레임 실린더 홈 210. 지붕프레임 실린더 홈200. Vertical frame cylinder groove 210. Roof frame cylinder groove
211. 풍압조절 실린더 홈 220. 제1수직프레임 삽입홈211. Wind pressure adjustment cylinder groove 220. First vertical frame insertion groove
230. 제2수직프레임 가이드 홈 240. 제3수직프레임 가이드 홈230. 2nd vertical frame guide groove 240. 3rd vertical frame guide groove
300. 실린더 케이스300. Cylinder Case
400. 수직프레임 실린더 410. 지붕프레임 실린더400. Vertical Frame Cylinder 410. Roof Frame Cylinder
411. 풍압조절대 실린더 412. 플렉서블 관411. Air pressure cylinder 412. Flexible pipe
이하, 첨부된 도면을 참조하여 본 발명에 대한 실시 예를 상세히 설명하면 다음과 같다.Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings.
도 1은 본 발명의 시공상태도이며, 도 2는 도 1에 도시된 시공상태도의 온실구조물 단면도이고, 도 3은 도 1에 도시된 시공상태도의 온실구조물을 시공하는 시공흐름도이며, 도 4는 도 1에 도시된 시공상태도의 온실구조물을 시공하는 시공블록도이다.1 is a construction state diagram of the present invention, Figure 2 is a cross-sectional view of the greenhouse structure of the construction state diagram shown in Figure 1, Figure 3 is a construction flow diagram of the construction of the greenhouse structure of the construction state diagram shown in Figure 1, Figure 4 The construction block diagram for constructing the greenhouse structure of the construction state diagram shown in FIG.
본 발명에 따른 온실구조물(10)의 시공단계는 제1수직프레임 삽입홈(220) 천공단계(S100); 수직프레임 실린더(400), 지붕프레임 실린더(410), 풍압조절대 실린더(411) 매설 홈 천공단계(S200); 수직프레임 실린더(400), 지붕프레임 실린더(410), 풍압조절대 실린더(411) 매설 및 풍압조절대(30) 설치단계(S300); 실린더 케이스(300), 제1수직프레임(100) 및 플랙서블 관(412) 설치단계(S400); 제2수직프레임(110)과 제3수직프레임(111) 결합 후 제1수직프레임(100)과 결합단계(S500); 지붕프레임(112)과 제3수직프레임(111) 결합단계(S600)로 이루어진다.The construction step of the greenhouse structure 10 according to the present invention comprises a first vertical frame insertion groove 220 drilling step (S100); Vertical frame cylinder 400, roof frame cylinder 410, wind pressure adjustment cylinder 411 buried groove drilling step (S200); Vertical frame cylinder 400, roof frame cylinder 410, wind pressure control cylinder 411 buried and wind pressure control unit 30 installation step (S300); Cylinder case 300, the first vertical frame 100 and the flexible pipe 412 installation step (S400); Combining the second vertical frame 110 and the third vertical frame 111 and then combining the first vertical frame 100 with the first vertical frame 100 (S500); Roof frame 112 and the third vertical frame 111 is made of a coupling step (S600).
상기 각 단계와 도면을 참조하여 시공방법을 상세히 설명한다.The construction method will be described in detail with reference to the respective steps and drawings.
상기 도 2a와 도 2b에서 보는 바와 같이, 제1수직프레임 삽입홈(220) 천공단계(S100)는 온실구조물(10)이 시공되는 지면에 제1수직프레임(100)을 고정시키기 위한 제1수직프레임 삽입홈(220)을 형성시키는 단계로 이루어진다.As shown in Figure 2a and 2b, the first vertical frame insertion groove 220 drilling step (S100) is a first vertical frame for fixing the first vertical frame 100 on the ground on which the greenhouse structure 10 is constructed The frame insertion groove 220 is formed.
도 2c에서 보는 바와 같이, 수직프레임 실린더(400)와 지붕프레임 실린더(410), 풍압조절대 실린더(411)를 일부 매설하기 위해 지면을 천공시켜 수직프레임 실린더 홈(200)과 풍압조절 실린더 홈(211)을 형성시키고, 중앙에서 지붕프레임(112)을 승·하강 시키기 위한 지붕프레임 실린더 홈(210)을 형성시키는 지붕프레임 실린더(410), 풍압조절대 실린더(411) 매설 홈 천공단계(S200)가 이루어진다.As shown in Figure 2c, the vertical frame cylinder 400 and the roof frame cylinder 410, the wind pressure adjusting cylinder 411 to bury the ground to bury the vertical frame cylinder groove 200 and the wind pressure control cylinder groove ( 211) to form a roof frame cylinder 410, wind pressure adjusting cylinder 411 buried groove drilling step for forming a roof frame cylinder groove 210 for raising and lowering the roof frame 112 in the center (S200) Is done.
또한, 도 2d에서 보는 바와 같이, 지면을 천공시켜 수직프레임 실린더(400)와 지붕프레임 실린더(410), 풍압조절대 실린더(411)가 상기 천공된 홈에 일부 매설되고, 상기 각 실린더(400,410,411) 바닥면에 앵커볼트(40)로 고정되어 외부의 풍압 또는 온실구조물(10)의 무게를 지탱해 주는 것으로 이루어진다.In addition, as shown in FIG. 2D, the vertical frame cylinder 400, the roof frame cylinder 410, and the wind pressure control cylinder 411 are partially embedded in the perforated grooves by drilling the ground, and the cylinders 400, 410 and 411. The anchor bolt 40 is fixed to the bottom surface to support the external wind pressure or the weight of the greenhouse structure 10.
또한, 상기 설치된 풍압조절대 실린더(411)에 풍압조절대(30)가 설치되어 풍향의 방향을 바꿔주는 역할을 하도록 구비되는 수직프레임 실린더(400), 지붕프레임 실린더(410), 풍압조절대 실린더(411) 매설 및 풍압조절대(30) 설치단계(S300)로 이루어진다.In addition, the wind pressure control unit 30 is installed in the installed wind pressure control cylinder 411 vertical frame cylinder 400, the roof frame cylinder 410, the wind pressure control cylinder provided to change the direction of the wind direction 411 is made of buried and wind pressure control unit 30 installation step (S300).
또한, 상기 각 실린더(400,410,411)가 설치되고, 도 2e에서 보는 바와 같이, 실린더 케이스(300)가 수직프레임 실린더(400)를 감싸고, 상기 실린더 케이스(300) 외측면 하부에 고정판(50)이 형성되어 앵커볼트(40)로 지면에 고정되며, 제1수직프레임(100)이 제1수직프레임 삽입홈(220)에 삽입되고, 제1수직프레임(100) 외측면 하부에 복수개의 고정판(50)이 형성되어 앵커볼트(40)로 지면에 고정시키며, 수직프레임 실린더(400)의 축을 외부로부터 보호하기 위해 실린더 케이스(300) 상측으로 플렉서블 관(412)이 결합 되는 실린더 케이스(300), 제1수직프레임(100) 및 플렉서블 관(412) 설치단계(S400)로 이루어진다.In addition, each of the cylinders 400, 410, and 411 is installed, and as shown in FIG. 2E, the cylinder case 300 surrounds the vertical frame cylinder 400, and a fixing plate 50 is formed below the outer side of the cylinder case 300. Is fixed to the ground by the anchor bolt 40, the first vertical frame 100 is inserted into the first vertical frame insertion groove 220, a plurality of fixing plates 50 on the lower side of the outer side of the first vertical frame 100 Is formed is fixed to the ground by the anchor bolt (40), in order to protect the shaft of the vertical frame cylinder 400 from the outside of the cylinder case 300, the flexible tube 412 is coupled to the upper cylinder case 300, the first The vertical frame 100 and the flexible pipe 412 consists of the installation step (S400).
또한, 상기 제1수직프레임(100)이 설치되고, 도 2f에서 보는 바와 같이, 앵커볼트(40)로 지면에 고정된 제1수직프레임(100) 외측 상면에 고무돌기(130)가 형성되고, 제2수직프레임(110) 내측이 밀착되어 실린더 케이스(300)에 형성된 제2수직프레임 가이드 홈(230)에 결합 되고, 상기 제2수직프레임(110) 외측 면에 형성된 이송가이드(121)와 제3수직프레임(111) 내측면 하단에 형성된 이송돌기(120)와 결합 되어 수직프레임 실린더(400)의 승·하강 작동으로 제3수직프레임(111)이 움직여 높낮이가 조절되는 제2수직프레임(110)과 제3수직프레임(111) 결합 후 제1수직프레임(100)과 결합단계(S500)로 이루어진다.In addition, the first vertical frame 100 is installed, as shown in Figure 2f, a rubber protrusion 130 is formed on the outer upper surface of the first vertical frame 100 fixed to the ground by the anchor bolt 40, The inner side of the second vertical frame 110 is in close contact with the second vertical frame guide groove 230 formed in the cylinder case 300, the transfer guide 121 and the first formed on the outer surface of the second vertical frame 110 The second vertical frame 110 is coupled to the transfer protrusion 120 formed at the bottom of the inner side of the vertical frame 111 and the height is adjusted by moving the third vertical frame 111 by the lifting and lowering operation of the vertical frame cylinder 400. ) And the third vertical frame 111 is combined with the first vertical frame 100 and the coupling step (S500).
또한, 상기 제1수직프레임(100)과 제2수직프레임(110), 제3수직프레임(111)이 결합 되고, 상기 제3수직프레임(111)에 상면에 형성된 단열홈(150)과 지붕프레임(112) 하면에 형성된 단열돌기(140)와 결합 되는 지붕프레임(112)과 제3수직프레임(111) 결합단계(S600)로 이루어지며, 도 2g에서 보는 바와 같이 온실구조물(10)이 시공되는 것이다.In addition, the first vertical frame 100, the second vertical frame 110, the third vertical frame 111 is coupled, the insulating groove 150 and the roof frame formed on the upper surface in the third vertical frame 111 The roof frame 112 and the third vertical frame 111 are combined with each other (S600), and the greenhouse structure 10 is constructed as shown in FIG. 2G. will be.
또한, 도 3에서 보는 바와 같이, 온실구조물(10)의 단면도이며, 수직프레임 실린더(400)의 승·하강 작동으로 제3수직프레임(111)을 작동시켜주며, 상기 제3수직프레임(111)의 작동에 따라 연결된 제2수직프레임(110)이 움직이게 되고, 하강시 실린더 케이스(300)에 형성된 제2수직프레임 가이드 홈(230)과 제3수직프레임 가이드 홈(240)에 삽입되며, 사용자의 선택에 따라 지붕프레임(112)을 승·하강 시켜주는 지붕프레임 실린더(410)를 작동함에 따라 높낮이를 조절하는 것으로 이루어진다.In addition, as shown in Figure 3, a cross-sectional view of the greenhouse structure 10, and operates the third vertical frame 111 by the lifting and lowering operation of the vertical frame cylinder 400, the third vertical frame 111 The second vertical frame 110 is moved according to the operation of the movement, and is inserted into the second vertical frame guide groove 230 and the third vertical frame guide groove 240 formed in the cylinder case 300 when descending, It consists of adjusting the height according to the operation of the roof frame cylinder 410 to raise and lower the roof frame 112 according to the selection.

Claims (7)

  1. 농작물 재배 또는 가축을 키우는 가변형 온실구조물(10)을 설치하는 시공방법에 있어서,In the construction method for installing a variable greenhouse structure (10) for growing crops or raising livestock,
    상기 시공방법에는 지면에 제1수직프레임 삽입홈(220)을 형성하는 천공단계(S100);The construction method includes a drilling step (S100) for forming a first vertical frame insertion groove 220 on the ground;
    상기 지면에 수직프레임 실린더(400), 지붕프레임 실린더(410), 풍압조절대 실린더(411)를 매설하기 위해 수직프레임 실린더 홈(200), 지붕프레임 실린더 홈(210), 풍압조절대 실린더 홈(211) 천공단계(S200);In order to embed the vertical frame cylinder 400, roof frame cylinder 410, wind pressure cylinder 411 on the ground, vertical frame cylinder groove 200, roof frame cylinder groove 210, wind pressure cylinder cylinder groove ( 211) drilling step (S200);
    상기 형성된 수직프레임 실린더 홈(200), 지붕프레임 실린더 홈(210), 풍압조절대 실린더 홈(211)에 수직프레임 실린더(400), 지붕프레임 실린더(410), 풍압조절대 실린더(411)를 설치하는 단계(S300);The vertical frame cylinder groove 400, the roof frame cylinder groove 210, and the wind pressure regulator cylinder groove 211 are installed in the vertical frame cylinder 400, the roof frame cylinder 410, and the wind pressure regulator cylinder 411. Step (S300);
    상기 지면에 실린더 케이스(300)가 설치되고, 상기 제1수직프레임 삽입홈(220)에 제1수직프레임(100)과 실린더 케이스(300) 상면에 플렉서블 관(412)을 고정하는 설치단계(S400);The cylinder case 300 is installed on the ground, and the installation step of fixing the flexible pipe 412 on the upper surface of the first vertical frame 100 and the cylinder case 300 in the first vertical frame insertion groove 220 (S400). );
    상기 설치된 제1수직프레임(100)에 결합 된 제2수직프레임(110)과 제3수직프레임(111)을 결합하는 단계(S500);Coupling a second vertical frame (110) and a third vertical frame (111) coupled to the installed first vertical frame (100) (S500);
    상기 제1수직프레임(100)과 제2수직프레임(110), 제3수직프레임(111)이 결합 되고, 상기 제3수직프레임(111) 상면과 지붕프레임(112) 하면이 결합 되는 단계(S600);The first vertical frame 100, the second vertical frame 110, the third vertical frame 111 is coupled, the upper surface of the third vertical frame 111 and the bottom of the roof frame 112 is coupled (S600) );
    를 포함하여 구성한 것을 특징으로 하는 가변형 온실구조물 시공방법.Variable greenhouse structure construction method characterized in that configured to include.
  2. 제1항에 있어서,The method of claim 1,
    상기 제1수직프레임 삽입홈(220) 천공단계(S100)는 농작물 재배 또는 가축 크기에 맞게 지면에 상기 제1수직프레임(100)을 고정하기 위해 제1수직프레임 삽입 홈(220)을 형성시키는 것을 특징으로 하는 가변형 온실구조물 시공방법.The first vertical frame insertion groove 220 drilling step (S100) is to form a first vertical frame insertion groove 220 to fix the first vertical frame 100 on the ground to fit the crop cultivation or livestock size Variable greenhouse structure construction method characterized in that.
  3. 제1항에 있어서,The method of claim 1,
    상기 수직프레임 실린더 홈(200), 지붕프레임 실린더 홈(210), 풍압조절대 실린더 홈(211) 천공단계(S200)는 수직프레임 실린더(400)와 지붕프레임 실린더(410), 풍압조절대 실린더(411)가 일부 매설되도록 홈을 형성시킨 것을 특징으로 하는 가변형 온실구조물 시공방법.The vertical frame cylinder groove 200, roof frame cylinder groove 210, wind pressure cylinder cylinder groove 211 drilling step (S200) is the vertical frame cylinder 400 and roof frame cylinder 410, wind pressure cylinder ( 411) is a variable greenhouse structure construction method characterized in that the groove is formed to be partially embedded.
  4. 제1항에 있어서,The method of claim 1,
    상기 수직프레임 실린더(400), 지붕프레임 실린더(410), 풍압조절대 실린더(411) 설치단계(S300)는 상기 수직프레임 실린더 홈(200), 지붕프레임 실린더 홈(210), 풍압조절대 실린더 홈(211) 천공단계(S300)에서 형성된 홈에 상기 각 실린더(400,410,411)가 일부 매설되고, 앵커볼트(40)로 홈 바닥면에 고정되는 것을 특징으로 하는 가변형 온실구조물 시공방법.The vertical frame cylinder 400, the roof frame cylinder 410, wind pressure adjustment cylinder 411 installation step (S300) is the vertical frame cylinder groove 200, roof frame cylinder groove 210, wind pressure cylinder cylinder groove Part 2, each of the cylinders (400, 410, 411) is embedded in the groove formed in the drilling step (S300), the variable greenhouse structure construction method, characterized in that fixed to the groove bottom surface with an anchor bolt (40).
  5. 제1항에 있어서,The method of claim 1,
    상기 실린더 케이스(300)와 제1수직프레임(100), 플렉서블 관(412) 설치단계(S400)에서 실린더 케이스(300)는 외측면 하부에 고정판(50)이 형성되어 앵커볼트(40)로 지면에 고정되며, 제1수직프레임(100)이 제1수직프레임 삽입홈(220)에 삽입되고, 제1수직프레임(100) 외측면 하부에 복수개의 고정판(50)이 형성되어 앵커볼트(40)로 지면에 고정되는 것을 특징으로 하는 가변형 온실구조물 시공방법.In the cylinder case 300, the first vertical frame 100, and the flexible pipe 412 installation step (S400), the cylinder case 300 has a fixed plate 50 formed on the lower side of the outer surface, and the ground is anchor bolt 40. It is fixed to, the first vertical frame 100 is inserted into the first vertical frame insertion groove 220, a plurality of fixing plate 50 is formed in the lower side of the first vertical frame 100 anchor bolt 40 Variable greenhouse structure construction method characterized in that fixed to the ground.
  6. 제1항에 있어서,The method of claim 1,
    상기 제2수직프레임(110)과 제3수직프레임(111) 결합단계(S500)에서 앵커볼트(40)로 지면에 고정된 제1수직프레임(100) 외측 상면에 고무돌기(130)가 형성되고, 제2수직프레임(110) 내측이 밀착되어 실린더 케이스(300)에 형성된 제2수직프레임 가이드 홈(230)에 결합 되고, 상기 제2수직프레임(110) 외측면에 형성된 이송가이드(121)와 제3수직프레임(111) 내측면 하단에 형성된 이송돌기(120)와 결합 되는 것을 특징으로 하는 가변형 온실구조물 시공방법.A rubber protrusion 130 is formed on an outer upper surface of the first vertical frame 100 fixed to the ground by the anchor bolt 40 in the second vertical frame 110 and the third vertical frame 111 coupling step (S500). The inner side of the second vertical frame 110 is in close contact with the second vertical frame guide groove 230 formed in the cylinder case 300, the transfer guide 121 formed on the outer surface of the second vertical frame 110 and Method of constructing a greenhouse structure, characterized in that coupled to the transfer projections 120 formed on the lower inner surface of the third vertical frame (111).
  7. 제1항에 있어서,The method of claim 1,
    상기 제3수직프레임(111)과 지붕프레임(112)의 결합단계(S600)에서 제3수직프레임(111) 상면에 형성된 단열홈(150)과 상기 지붕프레임(112) 하면에 형성된 단열돌기(140)가 결합 되어 내부 온도를 유지시켜주는 것을 특징으로 하는 가변형 온실구조물 시공방법.Insulating grooves (150) formed on the upper surface of the third vertical frame (111) and the lower surface of the roof frame (112) in the coupling step (S600) of the third vertical frame (111) and the roof frame (112). ) Is a method of construction of a variable greenhouse structure, characterized in that to maintain the internal temperature.
PCT/KR2012/002596 2011-04-08 2012-04-05 Construction method for changeable green house structure WO2012138160A2 (en)

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CN109874574A (en) * 2019-04-20 2019-06-14 抚州市新创汇信息技术有限公司 A kind of intelligent temperature control agricultural planting greenhouse

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