KR20230115007A - Prefab greenhouse structure - Google Patents

Abstract

In the greenhouse structure according to an embodiment of the present invention, a pair of pillars spaced apart from each other and positioned in parallel, the center of which is located between the pillars and both ends are connected to the upper ends of the pillars by a first connecting plate. , A pair of rafters in which each first end portion is connected to the middle by a first connecting plate and the second end portions opposite to the first end portion are connected to each other by a second connecting plate while being spaced apart from the column and the middle , And a plurality of bodies each including a middle column whose upper part is connected to the rafters by a second connecting plate and whose lower part opposite to the upper part is connected to the middle by a third connecting plate, and is positioned to be spaced apart from each other. wealth; a plurality of assembling parts positioned through the first connecting plates, the second connecting plates, and the third connecting plates of the body parts and connecting the body parts to each other; And a cover part made of a sheet shape, a part of which is located along the rafters and pillars while closing between the body parts, and a cover part that is located along the middle and the pillar while closing the remaining part between the body parts, but includes the pillars, middle, rafters and Each of the central pillars may be made of a pair of C-beam members, and the assembly portion may be characterized in that each of the C-beam members is made of one C-beam member.

Description

Prefab greenhouse structure {Prefab greenhouse structure}

The present invention relates to a greenhouse structure, and more particularly, to a prefabricated greenhouse structure that can be easily assembled and disassembled and has high strength and rigidity even with a minimum of materials and processes.

A greenhouse is a building that can grow crops freely by controlling light, temperature, and humidity. Such a greenhouse is set as set up because the exterior of the single-story frame is surrounded by vinyl, air bubble vinyl (sometimes called 'bubble wrap'), polycarbonate, glass, etc. to transmit sunlight and solar heat, and to prevent outdoor air from entering the inside. It can maintain room temperature. Crops can be grown all year round inside the greenhouse, and the crop harvest can also be controlled.

In addition, the greenhouse is mainly constructed to form a cultivation space having an arch shape using a circular pipe, and may be closed with vinyl, air bubble vinyl, or the like. However, due to the sagging of the vinyl, the spacing between the columns in the greenhouse is limited. In addition, since the circular pipes are in point contact with each other and are difficult to be firmly connected and fixed, the greenhouse structure is difficult to have high strength and rigidity.

The technical problem to be achieved by the greenhouse structure according to the technical idea of the present invention is to provide a greenhouse structure that can be easily assembled and constructed, and can be easily dismantled in a state of construction.

In addition, a technical problem to be achieved by the greenhouse structure according to the technical idea of the present invention is to provide a greenhouse structure that has high strength and rigidity while reducing construction costs and time.

In addition, a technical problem to be achieved by the greenhouse structure according to the technical idea of the present invention is to provide a greenhouse structure capable of realizing standardization of parts and processes.

The technical problem to be achieved by the greenhouse structure according to the technical idea of the present invention is not limited to the above-mentioned problem, and another problem not mentioned will be clearly understood by those skilled in the art from the description below.

A greenhouse structure according to an embodiment according to the technical idea of the present invention is a pair of pillars spaced apart from each other and positioned in parallel, positioned between the pillars, and both ends are connected to the upper ends of the pillars by a first connecting plate. As long as the middle connected to the middle, each first end portion is connected to the middle by a first connecting plate, and the second end portions opposite to the first end portion are connected to each other by a second connecting plate while being spaced apart from the column and the middle. Each of the pair of rafters and a central column having an upper portion connected to the rafters by a second connecting plate and a lower portion opposite to the upper portion connected to the middle by a third connecting plate, positioned so as to be spaced apart from each other. A plurality of body parts to be; a plurality of assembling parts positioned through the first connecting plates, the second connecting plates, and the third connecting plates of the body parts and connecting the body parts to each other; And a cover part made of a sheet shape, a part of which is located along the rafters and pillars while closing between the body parts, and a cover part that is located along the middle and the pillar while closing the remaining part between the body parts, but includes the pillars, middle, rafters and Each of the central pillars may be made of a pair of C-beam members, and the assembly portion may be characterized in that each of the C-beam members is made of one C-beam member.

In addition, the first connecting plate is made of a pair, and is located between the upper ends of the C-beam members of the column, between the end portions of the C-beam members in the middle, and between the first end portions of the C-beam members of the rafter, , First pillar connection holes located along the pillars are formed to correspond between the upper portions of the C-beam members of the column, and the first middle connection holes located along the middle to correspond between the end portions of the middle C-beam members are formed. First rafter connection holes are formed along the rafters to correspond between the first end portions of the C-beam members of the rafters, and the fastening members attach the C-beam members of the columns to correspond to the first column connection holes, respectively. It penetrates and is fastened to the column, passes through the middle C-beam members through the first middle connection holes and is fastened to the middle, penetrates the C-beam members of the rafters to correspond to the first rafter connection holes and is fastened to the rafters, , The middle and rafters are fixed in the first connecting plate, and the second connecting plate is located between the second end portions of the C-beam members of a pair of mutually adjacent rafters and between the upper portions of the C-beam members of the middle column. And, the second rafter connection hole located along the pair of rafters is formed so as to correspond between the second end portions of the C-beam members of the pair of rafters and correspond between the upper ends of the C-beam members of the middle column. Second middle pillar connection holes are formed along the middle pillar, fastening members are fastened to the rafters by penetrating the C-beam members of the pair of rafters so as to correspond to the second rafter connection holes, respectively, and the second middle pillar It is fastened to the middle column by penetrating the C-beam members of the middle column to correspond to the connection holes, and the pair of rafters and the middle column are fixed at the second connecting plate, and the third connecting plate is the C-beam member of the middle column. It is located between the second end portions and between the middle parts of the C-beam members of the middle 112, and is located along the middle pillar 114 to correspond between the lower parts of the C-beam members of the middle pillar. Column connecting holes are formed, and third middle connecting holes are formed along the middle to correspond between middle portions of the middle C-beam members, and fastening members are formed to correspond to the third middle pillar connecting holes, respectively. It penetrates through the C-beam members of and is fastened to the middle column, penetrates through the middle C-beam members to correspond to the third middle connection holes, and is fastened to the middle, so that the middle column and the middle can be fixed at the third connecting plate.

In addition, at least one assembly opening having a shape corresponding to a longitudinal section of the assembly part is formed in each of the first connection plate, the second connection plate, and the third connection plate, and the assembly part is inserted into the assembly opening to form the first connection plate and the third connection plate. It is coupled to each of the second connecting plate and the third connecting plate to connect the body parts.

In addition, the assembling unit includes a circular rod-shaped ridge member, and a U-shaped mounting member having a partially open portion and a predetermined curvature is positioned at an upper end of the second connecting plate, and the ridge member is attached to the mounting member. It can be inserted and fixed.

In addition, the greenhouse structure is formed in a plate shape, each of which is positioned to cross the pillars of the body part in parallel with the assembly part, spaced apart from each other along the pillars, and a plurality of auxiliary plates in contact with a part of the cover part; At least one roof auxiliary member formed in a rod shape, connecting the ridge member and the auxiliary board member located on the uppermost side of the auxiliary board members between the body parts and positioned to correspond to the rafters; And doedoe made of a rod shape, it may further include at least one pillar auxiliary member positioned parallel to the pillars so as to connect the auxiliary plate materials between the body parts.

In addition, the greenhouse structure may further include a support member formed in a rod shape and positioned below the middle portions of the body parts so as to correspond to the middle pillars.

In addition, the greenhouse structure may further include at least one support pillar positioned on the ground to support the support member when the body parts are positioned perpendicular to the support member and positioned on the ground.

In addition, a pair of external pads are installed on one surface of the auxiliary plate material located on the uppermost side of the auxiliary plate material, the external pads are positioned parallel to each other along the auxiliary plate material, and each inner pad is provided on both sides of the support member. A first outer cover located along the rafters, the cover portion being positioned so as to be in contact with the rafters along the rafters while closing between the body portions; a second outer cover positioned along the pillars to be in contact with the pillars while closing between the body parts while corresponding to the lower end of the first outer cover; and an inner cover positioned to correspond to the first outer cover and the second outer cover, while closing between the body parts, and positioned so as to be in contact with the middle parts and the pillars along the middle parts and the pillars, wherein the lower end of the first outer cover part is coupled to the outer pad located on the upper side, and the upper portion of the second outer cover is coupled to the outer pad located on the lower side, with the inner cover separated into a pair along between the inner pads, each inner The cover may be coupled to the inner pad.

In addition, each of the body parts is positioned so as to form symmetry with each other with respect to the middle pillar while connecting the rafter and the middle, and the upper part is the rafter between the first connecting plate and the second connecting plate by the fourth connecting plate It may be connected to, and a pair of oblique pillars may further include a lower portion opposite to the upper portion connected to a middle between the first connecting plate and the third connecting plate by a fifth connecting plate.

In addition, the fourth connecting plate is located between the middle parts of the C-beam members of the rafter and between the upper ends of the C-beam members of the oblique column, and is located along the rafter to correspond between the middle parts of the C-beam members of the rafter. Fourth rafter connection holes are formed, and fourth oblique pillar connection holes are formed along the oblique pillars so as to correspond between the upper portions of the C-beam members of the oblique pillars, and the fastening members are respectively connected to the fourth rafter connection holes. It is fastened to the rafters by penetrating the C-beam members of the rafters to correspond to the 4th oblique column connection holes, and is fastened to the oblique columns by penetrating the C-beam members of the oblique columns to correspond to the fourth oblique column connection holes. , The fifth connecting plate is located between the lower portions of the C-beam members of the oblique column and between the middle C-beam members between the first and third connecting plates, and the C-beam members of the oblique column Fifth oblique pillar connection holes 51 located along the oblique pillars are formed to correspond between the lower portions, and fifth middle connection holes located along the middle to correspond between the middle parts of the central C-beam members are formed. formed, the fastening members are fastened to the oblique column by penetrating the C-beam members of the oblique column to correspond to the fifth oblique column connection holes, and pass through the central C-beam members to correspond to the fifth middle connection holes to form the middle By being fastened to, the oblique pillar and the middle can be fixed at the fifth connecting plate.

The greenhouse structure according to embodiments according to the technical idea of the present invention has the following effects.

(1) The greenhouse structure can be easily assembled and constructed, and can be easily dismantled in the constructed state.

(2) The greenhouse structure can be constructed with reduced cost and time, and can be constructed to have high strength and rigidity.

(3) Standardization of parts and processes for greenhouse structures can be implemented.

However, the effects that can be achieved by the greenhouse structure according to an embodiment of the present invention are not limited to those mentioned above, and other effects not mentioned can be clearly understood by those skilled in the art from the description below. will be.

In order to more fully understand the drawings cited herein, a brief description of each drawing is provided.
1 is a perspective view showing a greenhouse structure according to an embodiment of the present invention.
2 is a view showing first to fifth connecting plates in a greenhouse structure according to an embodiment of the present invention.
3 is a perspective view showing parts connected by a first connection part in a greenhouse structure according to an embodiment of the present invention.
Figure 4 is a perspective view showing a portion connected by a second connecting portion in the greenhouse structure according to an embodiment of the present invention.
5 is a perspective view showing parts connected by a third connection part in a greenhouse structure according to an embodiment of the present invention.

Since the present invention can make various changes and have various embodiments, specific embodiments are illustrated in the drawings and will be described in detail through detailed description. However, this is not intended to limit the present invention to specific embodiments, and it should be understood that the present invention includes all modifications, equivalents, and substitutes included in the spirit and scope of the present invention.

In describing the present invention, if it is determined that a detailed description of related known technologies may unnecessarily obscure the subject matter of the present invention, the detailed description will be omitted. In addition, numbers (eg, 1st, 2nd, etc.) used in the description process of this specification are only identifiers for distinguishing one component from another component.

In addition, in this specification, when one component is referred to as “connected” or “connected” to another component, the one component may be directly connected or directly connected to the other component, but in particular Unless otherwise described, it should be understood that they may be connected or connected via another component in the middle.

In addition, in the present specification, components expressed as '~ part' may be two or more components combined into one component, or one component may be differentiated into two or more for each more subdivided function. In addition, each of the components to be described below may additionally perform some or all of the functions of other components in addition to its own main function, and some of the main functions of each component may be different from other components. Of course, it may be performed exclusively by a component.

Hereinafter, embodiments according to the technical idea of the present invention will be described in detail in turn.

1 is a perspective view showing a greenhouse structure 100 according to an embodiment of the present invention, and FIG. 2 is a perspective view of a first connecting plate 10 to a fifth connection in the greenhouse structure 100 according to an embodiment of the present invention. These are drawings showing the plate 50, Figure 3 is a perspective view showing a portion connected by the first connection portion 10 in the greenhouse structure 100 according to an embodiment of the present invention, Figure 4 is one of the present invention A perspective view showing a portion connected by the second connection part 20 in the greenhouse structure 100 according to the embodiment, and FIG. 5 is a perspective view of the greenhouse structure 100 according to the embodiment of the present invention to the third connection part 30. It is a perspective view showing the parts connected by.

1 to 5, the greenhouse structure 100 according to an embodiment of the present invention includes a body part 101, an assembly part 102, a cover part 103, an auxiliary plate 104, a roof It includes an auxiliary material 105, a pillar auxiliary material 106, a support member 107 and an auxiliary pillar 108, and may be installed on the ground 1 to form a cultivation space 100'.

The body portion 101 is composed of a plurality of pieces, each of which has a plate shape, is positioned vertically on the ground 1, and is spaced apart from each other to form a space corresponding to the cultivation space 100'.

In addition, the body portion 101 may include a pillar 111, a middle 112, a rafter 113, a middle pillar 114, and a slanted pillar 115. Here, the pillar 111, the middle 112, the rafter 113, the middle pillar 114, and the oblique pillar 115 are each made of a pair of C-beam members having a predetermined length, and a pair of C-beams. The section members may each have a C-shaped cross-sectional area, and may be positioned so that portions opposite to the open portion are in contact with each other.

The poles 111 are made of a pair, each of which is positioned vertically on the ground 1, and may be spaced apart from each other and positioned in parallel.

The middle 112 may be positioned between the pillars 111 and connected to each of the pillars 111 by the first connecting plate 10 . Here, both longitudinal sections of the middle 112 may be in contact with the top side portion of the pillar 111, and the middle 112 may be positioned perpendicular to the pillar 111 and positioned on the upper side of the ground 1.

Rafters 113 are made of a pair, each extending from the upper surface of the pillar 111 can be connected to each other. Here, the first end portion of the rafter 113 is positioned to correspond to the post 111 and can be connected to the post 111 by the first connecting plate 10, the opposite side of the first end part of the rafter 113 The phosphorus second end portions may be connected to each other by the second connecting plate 20 . That is, the rafters 113 may be connected to each other in the second connecting plate 20. Each of the rafters 113 may be positioned so as to be gradually spaced apart from the middle 112 at the upper side of the middle 112 as they are gradually spaced apart from the pillar 111 .

The middle column 114 may be connected to the rafters 113 while being positioned to be orthogonal to the middle 112. Here, the upper portion of the middle column 114 may be connected to the rafters 113, especially the connecting portion of the rafters 113, by the second connecting plate 20, the opposite side of the upper portion of the middle column 114. The lower portion may be connected orthogonally to the middle 112 by the third connecting plate 30 .

The oblique pillars 115 are formed as a pair, and may be positioned so as to form symmetry with each other with respect to the middle pillar 114 while connecting the rafter 113 and the middle 112, respectively. Here, the upper part of the slanted pillar 115 may be connected to the rafter 113 between the first connecting plate 10 and the second connecting plate 20 by the fourth connecting plate 40, and the slanted pillar 115 The lower part opposite to the upper part of ) may be connected to the middle 112 between the first connecting plate 10 and the third connecting plate 30 by the fifth connecting plate 50 . In addition, the oblique pillars 115 may be positioned to be orthogonal to the rafters 113.

As described above, the pillars 111, the middle 112, the rafters 113, the middle pillars 114, and the oblique pillars 115 are the first connecting plate 10 and the second connecting plate 20 each having a plate shape. ), the third connecting plate 30, the fourth connecting plate 40, and the fifth connecting plate 50 are connected to each other to form one body portion 101 while forming the same plane.

The first connecting plate 10 is made of a pair, between the upper ends of the C-beam members of the column 111, between the end portions of the C-beam members of the middle 112 and the C-beam member of the rafter 113. It is located between the first end portions of the columns 111, the middle 112 and the rafters 113 can be connected to each other (see FIG. 3).

In addition, first pillar connection holes 11, first middle connection holes 12, and first rafter connection holes 13 may be formed in the first connection plate 10 (see FIG. 2(a)). ).

The first pillar connection holes 11 may be positioned along the pillar 111 so as to correspond between the upper portions of the C-beam members of the pillar 111, and the first middle connection holes 12 are of the middle 112. It may be located along the middle 112 so as to correspond between the end portions of the C-beam members, and the first rafter connection holes 13 correspond to the rafters 113 between the first end portions of the C-beam members ( 113) can be located along.

In the above state, the fastening members 110 are fastened to the pillar 111 through the C-beam members of the pillar 111 so as to correspond to the first pillar connection holes 11, respectively, and the first middle connection hole ( 12) through the C-beam members of the middle 112 and fastened to the middle 112, and through the C-beam members of the rafters 113 to correspond to the first rafter connection holes 13, the rafters 113 can be contracted to. Due to this, the pillar 111, the middle 112 and the rafters 113 can be fixed in the first connecting plate 10.

The fastening members 110 of this embodiment may be formed in the form of bolts or screws, respectively, and may be combined with nuts.

In addition, at least one first assembly opening 10a having a shape corresponding to the longitudinal section of the assembly part 102 may be formed in the first connecting plate 10 so that the assembly part 102 to be described in detail later passes therethrough. . The first assembly opening 10a may be formed in the first connection plate 10 to be spaced apart from the first pillar connection holes 11, the first middle connection holes 12, and the first rafter connection holes 13. can

The second connecting plate 20 is made of one, but is located between the second end portions of the C-beam members of the pair of rafters 113 adjacent to each other and between the upper portions of the C-beam members of the middle column 114. It is possible to connect a pair of rafters 113 and the middle column 114 to each other (see FIG. 4).

In addition, a mounting member 21, second rafter connection holes 22, and second middle pillar connection holes 23 may be formed in the second connecting plate 20 (see FIG. 2(b)).

The mounting member 21 is formed in a U shape and may be positioned at an upper end of the second connecting plate 20 . Here, the mounting member 21 may have a partially open portion and have a predetermined curvature.

The second rafter connection holes 22 may be located along the pair of rafters 113 so as to correspond between the second end portions of the C-beam members of the pair of rafters 113, and the second central pillar connection hole (23) may be positioned along the middle column 114 to correspond between the upper portions of the C-beam members of the middle column 114.

In the above state, the fastening members 110 pass through the C-beam members of the pair of rafters 113 to correspond to the second rafter connection holes 22, respectively, and are fastened to the rafters 113, and the second It may be fastened to the middle pillar 114 through the C-beam members of the middle pillar 114 to correspond to the middle pillar connection holes 23 . Due to this, the pair of rafters 113 and the middle column 114 may be fixed at the second connecting plate 20.

In addition, at least one second assembly opening 20a having a shape corresponding to the longitudinal section of the assembly part 102 may be formed in the second connection plate 20 so that the assembly part 102 to be described in detail later passes therethrough. . The second assembly opening 20a may be formed in the second connection plate 20 to be spaced apart from the mounting member 21, the second rafter connection holes 22, and the second middle pillar connection holes 23.

The third connecting plate 30 is located between the second end portions of the C-beam members of the middle pillar 114 and between the middle parts of the C-beam members of the middle 112, and the middle pillar 114 and the middle ( 112) can be connected to each other (see FIG. 5).

In addition, third middle pillar connection holes 31 and third middle connection holes 33 may be formed in the third connection plate 30 (see FIG. 2(c)).

The third middle pillar connection holes 31 may be located along the middle pillar 114 so as to correspond between the lower portions of the C-beam members of the middle pillar 114, and the third middle pillar connection holes 33 are in the middle ( 112) may be positioned along the middle 112 so as to correspond between the middle portions of the C-beam members.

In the above state, the fastening members 110 penetrate the C-beam members of the middle pillar 114 to correspond to the third middle pillar connection holes 31 and are fastened to the middle pillar 114, and the third middle pillar 114 It may be fastened to the middle 112 by penetrating the C-beam members of the middle 112 to correspond to the connection holes 33 . Due to this, the middle pillar 114 and the middle 112 may be fixed at the third connecting plate 30 .

In addition, at least one third assembly opening 30a having a shape corresponding to the longitudinal section of the assembly part 102 may be formed in the third connection plate 30 so that the assembly part 102 to be described in detail later passes therethrough. . The third assembly opening 30a may be formed in the third connection plate 30 to be spaced apart from the third middle pillar connection holes 31 and the third middle connection holes 33 .

On the other hand, the middle (112) is made of a pair, can be connected to form an angle smaller than 180 ° in the third connecting plate (30). Here, middle connection holes 33 may be formed in the third connection plate 30 to correspond to angles formed by the middle sides 112 .

The fourth connecting plate 40 is located between the middle portions of the C-beam members of the rafter 113 and between the upper portions of the C-beam members of the oblique column 115, and the rafter 113 and the oblique column 115 can be connected to each other. Here, the fourth connecting plate 40 may be located on the rafter 113 between the first connecting plate 10 and the second connecting plate 20 .

In addition, fourth rafter connection holes 41 and fourth oblique column connection holes 42 may be formed in the fourth connection plate 40 (see FIG. 2(d)).

The fourth rafter connecting holes 41 may be located along the rafter 113 so as to correspond between the middle parts of the C-beam members of the rafter 113, and the fourth oblique pillar connecting holes 42 may be located in the oblique pillar 115 ) may be positioned along the oblique pillar 115 so as to correspond between the upper portions of the C-beam members.

In the above state, the fastening members 110 pass through the C-beam members of the rafter 113 to correspond to the fourth rafter connection holes 41 and are fastened to the rafter 113, and the fourth oblique column connection hole It can be fastened to the oblique pillar 115 by penetrating the C-beam members of the oblique pillar 115 to correspond to (42). Due to this, the rafters 113 and the oblique pillars 115 can be fixed at the fourth connecting plate 40.

In addition, at least one fourth assembly opening 40a having a shape corresponding to the longitudinal section of the assembly part 102 may be formed in the fourth connection plate 40 so that the assembly part 102, which will be described in detail later, passes therethrough. . The fourth assembly opening 40a may be formed in the fourth connection plate 40 to be spaced apart from the fourth rafter connection holes 41 and the fourth oblique pillar connection holes 42 .

The fifth connecting plate 50 is between the lower portions of the C-beam members of the oblique column 115 and between the C-beam members of the middle 112 between the first connecting plate 10 and the third connecting plate 30. , it is possible to connect the oblique pillars 115 and the middle 112 to each other. Here, the fifth connecting plate 50 may be located in the middle 112 between the first connecting plate 10 and the third connecting plate 30 .

In addition, fifth oblique pillar connection holes 51 and fifth middle connection holes 52 may be formed in the fifth connection plate 50 (see FIG. 2(e)).

The fifth oblique pillar connection holes 51 may be located along the oblique pillar 115 so as to correspond between the lower portions of the C-beam members of the oblique pillar 115, and the fifth middle connection holes 52 are located in the middle ( 112) may be positioned along the middle 112 so as to correspond between the middle portions of the C-beam members.

In the above state, the fastening members 110 are fastened to the oblique pillar 115 by penetrating the C-beam members of the oblique pillar 115 to correspond to the fifth oblique pillar connection holes 51, respectively. It may be fastened to the middle 112 by penetrating the C-beam members of the middle 112 to correspond to the connection holes 52 . Due to this, the oblique pillars 115 and the middle 112 may be fixed at the fifth connecting plate 50 .

In addition, at least one fifth assembly opening 50a having a shape corresponding to the longitudinal section of the assembly part 102 may be formed in the fifth connecting plate 50 so that the assembly part 102, which will be described in detail later, passes therethrough. . The fifth assembly opening 50a may be formed in the fifth connection plate 50 to be spaced apart from the fifth oblique pillar connection holes 51 and the fifth middle connection holes 52 .

The first connecting plate 10, the second connecting plate 20, the third connecting plate 30, the fourth connecting plate 40 and the fifth connecting plate 50 are each made of steel. It can be manufactured by laser cutting the plate. The first connecting plate 10, the second connecting plate 20, the third connecting plate 30, the fourth connecting plate 40, and the fifth connecting plate 50 may be standardized.

The assembling part 102 is made up of a plurality of pieces, and the body parts 101 may be connected to each other. Here, the assembly part 102 is made of a C-beam member, and is positioned along the direction crossing the middle 112 of the body part 101 to connect the body parts 101 to each other, and the body part 101 It is possible to form a framework of the greenhouse structure 100 in combination with the body parts 101, and maintain each of the body parts 101 positioned on the ground 1.

In particular, the assembly part 102 passes through the first connecting plate 10, the second connecting plate 20, the third connecting plate 30, the fourth connecting plate 40 and the fifth connecting plate 50, respectively. to be positioned perpendicular to the first connecting plate 10, the second connecting plate 20, the third connecting plate 30, the fourth connecting plate 40 and the fifth connecting plate 50, in particular, They may be positioned through the first assembly opening 10a, the second assembly opening 20a, the third assembly opening 30a, the fourth assembly opening 40a, and the fifth assembly opening 50a, respectively.

In particular, the assembling unit 102 may further include a circular bar-shaped ridge member 121 . The ridge member 121 may be inserted into the mounting member 21 and positioned at an upper portion of the second connecting plate 20 . Here, the diameter of the ridge member 121 may be larger than the diameter of the mounting member 21 , so that the ridge member 121 can be maintained firmly inserted into the mounting member 21 . In addition, the ridge member 121 may be located at the top of the greenhouse structure 100 .

The cover part 103 is formed in a sheet shape, and may be made of vinyl, air bubble vinyl, polycarbonate, glass, or the like. Here, a part of the cover part 103 may be positioned along the rafters 113 and the pillars 111 while closing between the body parts 101, and may be positioned to form the outer surface of the greenhouse structure 100. Here, since the ridge member 121 is formed in a circular shape, damage to the cover part 103 due to direct contact with the cover part 103 can be prevented even if it is directly contacted while being covered by the cover part 103 .

In addition, the remaining part of the cover part 103 is positioned along the middle 112 and the pillar 111 while closing between the body parts 101, and may be positioned to form the inner surface of the greenhouse structure 100. . The cover part 103 as described above may form a double structure.

In addition, the cover unit 103 may include a first outer cover 131 , a second outer cover 133 and an inner cover 135 .

The first outer cover 131 may be positioned to contact the rafters 113 along the rafters 113 while closing between the body parts 101 . Here, the first outer cover 131 may contact the ridge member 121 while covering the ridge member 121 .

The second outer cover 133 may be positioned to contact the pillars 111 along the pillars 111 while closing between the body parts 101 while corresponding to the lower end of the first outer cover 131 . The second outer cover 133 may be combined with the first outer cover 131 and positioned outside the cultivation space 100'.

The inner cover 135 is positioned in the cultivation space 100' while corresponding to the first outer cover 131 and the second outer cover 133, while closing between the body parts 101 and the middle 112 and It may be positioned to be in contact with the middle 112 and the pillars 111 along the pillars 111 .

The auxiliary plate member 104 is made of a plurality of pieces, each formed in a plate shape, positioned to cross the pillars 111 of the body part 101 so as to be parallel to the assembly part 102, and may be spaced apart from each other. Here, the auxiliary plate 104 may be in contact with a part of the cover part 103, that is, the first outer cover 131 and the second outer cover 133.

In particular, the auxiliary plate 104 located on the uppermost side among the auxiliary plate materials 104 (hereinafter, referred to as "top auxiliary plate 104") is adjacent to the rafter 113 and is at the top of the column 111. can be located Here, a pair of external pads 141 may be installed on one surface of the uppermost auxiliary plate 104 (see FIG. 4). The external pads 141 are made of vinyl and may be positioned parallel to each other along the uppermost auxiliary plate 104 . In addition, the first outer cover 131 and the second outer cover 133 of the cover part 103 may be spaced apart from each other along the outer pads 141 and separated. The lower portion of the first outer cover 131 may be coupled to the outer pad 141 located on the upper side, and the upper portion of the second outer cover 133 may be coupled to the external pad 141 located on the lower side. there is. Due to this, the first outer cover 131 and the second outer cover 133 can be installed in a separated state and can be easily installed, and can be replaced only for necessary parts according to conditions.

On the other hand, the auxiliary plate 104 of this embodiment may be made of preservative wood.

The roof auxiliary material 105 is formed in a bar shape, and may be positioned so as to connect the ridge member 121 and the uppermost auxiliary plate 104 between the body parts 101 and correspond to the rafters 113. Here, the roof aid 105 supports the cover portion 103 located along the rafters 113, that is, the first outer cover 131, and corresponds to the rafters 113 in combination with the rafters 113. It is possible to prevent sagging of the cover part 103 to be. This roof aid 105 may be made of a piece of wood.

The pillar auxiliary material 106 is made of a rod shape, and may be positioned parallel to the pillars 111 so as to connect the auxiliary plate material 104 between the body parts 101 . Here, the pillar auxiliary material 106 supports the cover portion 103 located along the pillar 111, that is, the second outer cover 133, and corresponds to the pillars 111 in combination with the pillars 111. It is possible to keep the cover part 103 in an unfolded state. This pillar auxiliary material 106 may be made of a piece of wood.

The supporting member 107 is formed in a rod shape, and may be positioned to connect the middle 112 of the body parts 101 to correspond to the middle pillar 114. Here, the support member 107 may be located on the lower side of the middle 112 and come into contact with the middle 112 to support the middle 112 . In addition, the supporting member 107 may be made of a square tree.

In addition, a pair of inner pads 171 may be installed on the support member 107 . The inner pads 171 may be located on both sides of the support member 107 and may be positioned along the support member 107 . In addition, the inner cover 135 of the cover part 103 may be formed as a pair by being separated along the inner pads 171 (see FIG. 5 ). The pair of inner covers 135 may be coupled to the inner pad 171 in a separated state, and the space between the pair of inner covers 135 is sealed by the support member 107 and the inner pad 171. can be maintained as is. Due to this, the inner cover 135 can be installed in a separated state as a pair and can be easily installed, and can be replaced only for necessary parts according to conditions.

The support pillar 108 is located on the ground 1 and is in contact with the lower surface of the support member 107 in a state where the body parts 101 are positioned in the vertical direction and connected by the assembly part 102 to form the support member 107 can support Due to this, the support pillar 108 is positioned so as to be orthogonal to the support member 107, and in combination with the support member 107, it is possible to prevent sagging of the middle 112 of the body portion 101, and the body portion 101 In combination with the pillars 111 of ), it is possible to stably withstand the load applied to the body parts 101.

In addition, the support pillar 108 can be installed as needed or separated from the installed state. For example, when a load is applied to the greenhouse structure 100 due to snow, strong wind, etc., the support pillar 108 may be installed to withstand the load, and when work is performed in the cultivation space 100', the support pillar (108) can be eliminated.

In addition, since the inner cover 135 of the cover part 103 is separated from the support member 107 and formed as a pair, even though the support pillar 108 supports the support member 107, the inside of the cover part 103 It does not come into contact with the cover 135 and may not damage the cover part 103 .

The greenhouse structure 100 according to the present embodiment includes a body part 101, an assembly part 102, a cover part 103, an auxiliary plate 104, a roof auxiliary material 105, a pillar auxiliary material 106, a support member ( 107) and the auxiliary pillar 108 may be assembled by connecting them to each other. Here, the body portion 101 includes a pillar 111, a middle 112, a rafter 113, a middle pillar 114, and an oblique pillar 115, and the pillar 111, the middle 112, the rafters ( 113), the middle pillar 114 and the slanted pillar 115 are each made of a pair of C-beam members, and the plate-shaped first connecting plate 10, the second connecting plate 20, and the third connecting plate (30) In a state where the fourth connecting plate 40 and the fifth connecting plate 50 are placed therebetween, it may be fixed by a fastening member 110 having a shape such as a bolt or screw. In addition, the first connecting plate 10, the second connecting plate 20, the third connecting plate 30, the fourth connecting plate 40, and the fifth connecting plate 50 are inserted between the C-beam members. In, the fastening members 110 are C-beam members and the first connecting plate 10, the second connecting plate 20, the third connecting plate 30, the fourth connecting plate 40, and the fifth connecting plate ( 50), the pillar 111, the middle pillar 112, the rafter 113, the middle pillar 114, and the oblique pillar 115 may be connected to form the body portion 101. In addition, the assembly part 102 is made of a C-beam member, and the first connecting plate 10, the second connecting plate 20, the third connecting plate 30, the fourth connecting plate 40, and the fifth connecting plate The frame of the greenhouse structure 100 may be formed by connecting the body parts 101 while passing through the 50. Therefore, since the greenhouse structure 100 of the present embodiment can be assembled through insertion and fastening operations, it can be easily assembled and constructed, and can be easily dismantled even in a constructed state.

In addition, since the greenhouse structure 100 according to the present embodiment can be assembled through insertion and fastening operations as described above, a greenhouse having a desired size is manufactured according to the length of the body part 101 and the assembly part 102. It is possible to omit steps such as marking, leveling, right angle alignment, etc. for greenhouse construction by aligning the assembling part 102 and connecting it to the body parts 101. Due to this, the greenhouse structure 100 according to the present embodiment can reduce construction time and cost, and in forming the cultivation space 100 ', the pillar 111, the middle 112, the rafters ( 113), the first connecting plate 10, the second connecting plate 20, the third connecting plate 30 and the fourth connecting plate 40 used to connect the middle pillar 114 and the slanted pillar 115. ) and the fifth connecting plate 50 by inserting the assembly part 102 to connect the body parts 101 to form a cultivation space 100 ', and the auxiliary plate 104, the roof auxiliary material 105, the pillar auxiliary material 106, the support member 107 and the auxiliary pillar 108 through the combination can have high strength and rigidity.

In addition, in the greenhouse structure 100 according to this embodiment, the body part 101 and the assembly part 102 are made of C-beam members, the auxiliary plate 104 is made of preservative wood, the roof auxiliary material 105, The pillar auxiliary material 106 and the support member 107 are made of a square wood, and the first connecting plate 10, the second connecting plate 20, and the third connecting plate 10 for connecting the body part 101 and the assembly part 102 Connection plate 30 The fourth connection plate 40 and the fifth connection plate 50 may be formed in a plate shape having holes and openings, respectively. Because of this, the greenhouse structure 100 according to the present embodiment is made of a combination of parts having a certain standard, and can be constructed through assembly of parts, and is formed using C-beam members and plate-shaped members, Standardization of parts and processes can be implemented.

In the above, the technical spirit of the present invention has been described in detail with preferred embodiments, but the technical spirit of the present invention is not limited to the above embodiments, and those skilled in the art within the scope of the technical spirit of the present invention Various modifications and changes are possible by the person.

100: greenhouse structure
101: body part
101: column
102: assembly part
103: cover part
104: auxiliary plate
105: roof aid
106: column auxiliary
107: support member
108: auxiliary pillar
111: pillar
112: medium
113: rafters
114: middle column
115: oblique pillar

Claims (10)

A pair of pillars spaced apart from each other and positioned in parallel, the middle of which is located between the pillars and both ends are connected to the upper ends of the pillars by a first connecting plate, each first end part is a first connecting plate A pair of rafters connected to the middle by a second end portion opposite to the first end portion are connected to each other by a second connecting plate while being spaced apart from the column and the middle, and the upper portion is connected to the rafter by the second connecting plate A plurality of body parts each including a middle pillar connected to the middle pillars and having a lower part opposite to the upper part connected to the middle by a third connecting plate, and positioned to be spaced apart from each other;
a plurality of assembling parts positioned through the first connecting plates, the second connecting plates, and the third connecting plates of the body parts and connecting the body parts to each other; and
It is made in the shape of a sheet, and includes a cover part, which is located along the rafters and pillars while closing between the body parts, and the remaining part is located along the middle and pillars while closing between the body parts,
The greenhouse structure, characterized in that the pillar, the middle, the rafter, and the middle pillar are each made of a pair of C-beam members, and the assembly portion is each made of one C-beam member.
According to claim 1,
The first connecting plates are made of a pair, and are respectively located between the upper ends of the C-beam members of the column, between the end portions of the C-beam members in the middle, and between the first end portions of the C-beam members of the rafter, First pillar connection holes located along the pillars are formed to correspond between the upper ends of the C-beam members of the middle, and first middle connection holes located along the middle are formed to correspond between the end portions of the middle C-beam members. First rafter connecting holes located along the rafter are formed to correspond between the first end portions of the C-beam members of the rafter,
The fastening members pass through the C-beam members of the column to correspond to the first column connection holes and are fastened to the column, pass through the middle C-beam members through the first middle connection holes, and are fastened to the middle, and the first rafter connection It penetrates the C-beam members of the rafters to correspond to the holes and is fastened to the rafters, so that the columns, middle and rafters are fixed at the first connecting plate,
The second connecting plate is located between the second end portions of the C-beam members of a pair of rafters adjacent to each other and between the upper ends of the C-beam members of the middle column, and the second connecting plate of the C-beam members of the pair of rafters The second rafter connection holes located along the pair of rafters are formed to correspond between the end portions, and the second middle column connection holes located along the middle column to correspond between the upper ends of the C-beam members of the middle column are formed. is formed,
The fastening members pass through the C-beam members of a pair of rafters to correspond to the second rafter connection holes and are fastened to the rafters, and pass through the C-beam members of the middle column to correspond to the second middle column connection holes, Fastened to the column, the pair of rafters and the middle column are fixed at the second connecting plate,
The third connecting plate is located between the second end portions of the C-beam members of the middle column and between the middle portions of the C-beam members of the middle 112, and corresponds to the lower portions of the C-beam members of the middle column. Third middle pillar connection holes located along the middle pillar 114 are formed, and third middle pillar connection holes located along the middle are formed to correspond between the middle portions of the middle C-beam members,
The fastening members pass through the C-beam members of the middle column to correspond to the third middle column connection holes and are fastened to the middle column, and pass through the middle C-beam members to correspond to the third middle column connection holes and are fastened to the middle, , The central column and the central greenhouse structure, characterized in that fixed in the third connecting plate.
According to claim 1,
At least one assembly opening having a shape corresponding to a longitudinal section of the assembly part is formed in each of the first connection plate, the second connection plate, and the third connection plate, and the assembly part is inserted into the assembly opening to form the first connection plate and the second connection plate. A greenhouse structure, characterized in that coupled to each of the plate and the third connecting plate to connect the body parts.
According to claim 1,
The assembling unit includes a circular bar-shaped ridge member,
A U-shaped mounting member having a partially open portion and a predetermined curvature is positioned at the upper end of the second connecting plate,
A greenhouse structure, characterized in that the ridge member is inserted into and fixed to the mounting member.
The method of claim 2, wherein the greenhouse structure,
A plurality of auxiliary plates each formed in a plate shape, positioned to cross the pillars of the body part in parallel with the assembly part, spaced apart from each other along the pillars, and in contact with a part of the cover part;
At least one roof auxiliary member formed in a rod shape, connecting the ridge member and the auxiliary board member located on the uppermost side of the auxiliary board members between the body parts and positioned to correspond to the rafters; and
The greenhouse structure further comprises at least one pillar auxiliary member formed in a rod shape and positioned parallel to the pillars so as to connect the auxiliary plate materials between the body parts.
The method of claim 5, wherein the greenhouse structure,
The greenhouse structure characterized in that it further comprises a support member formed in a rod shape and positioned below the middle of the body to connect the middle of the body to correspond to the middle of the pillar.
The method of claim 6, wherein the greenhouse structure,
The greenhouse structure of claim 1, further comprising at least one support column positioned so that the body portions are orthogonal to the support member and positioned on the ground to support the support member when placed on the ground.
According to claim 6,
A pair of external pads are installed on one side of the auxiliary plate located on the uppermost side of the auxiliary plate, and the external pads are positioned parallel to each other along the auxiliary plate,
On both sides of the support member, internal pads are positioned along the support member, respectively;
cover part,
A first outer cover positioned along the rafters to contact the rafters while closing between the body portions;
a second outer cover positioned along the pillars to be in contact with the pillars while closing between the body parts while corresponding to the lower end of the first outer cover; and
Including an inner cover positioned corresponding to the first outer cover and the second outer cover and positioned so as to be in contact with the middle parts and pillars along the middle parts and pillars while closing between the body parts,
The lower portion of the first outer cover is coupled to the outer pad located on the upper side, and the upper portion of the second outer cover is coupled to the external pad located on the lower side;
In a state where the inner cover is separated into a pair along between the inner pads, each inner cover is coupled to the inner pad.
The method of claim 1, wherein each of the body parts,
It is positioned so as to form symmetry with each other with respect to the middle column while connecting the rafters and the middle, respectively, and the upper part can be connected to the rafters between the first connecting plate and the second connecting plate by the fourth connecting plate, and the upper part The greenhouse structure further comprises a pair of oblique pillars, the lower part of which is opposite to the fifth connecting plate, connected to the middle between the first connecting plate and the third connecting plate.
According to claim 9,
The fourth connecting plate is located between the middle parts of the C-beam members of the rafter and between the upper ends of the C-beam members of the oblique column, and is located along the rafter to correspond between the middle parts of the C-beam members of the rafter. 4 rafter connection holes are formed, and a fourth oblique pillar connection hole located along the oblique pillar is formed to correspond between the upper ends of the C-beam members of the oblique pillar,
The fastening members pass through the C-beam members of the rafter to correspond to the fourth rafter connection holes and are fastened to the rafter, and pass through the C-beam members of the oblique column to correspond to the fourth oblique column connection holes and are fastened to the oblique column, , rafters and oblique columns are fixed at the fourth connecting plate,
The fifth connecting plate is located between the lower portions of the C-beam members of the oblique column and between the middle C-beam members between the first and third connecting plates, and between the lower portions of the C-beam members of the oblique column. Fifth oblique pillar connecting holes 51 positioned along the slanted pillar are formed to correspond to, and fifth middle connecting holes positioned along the middle to correspond between middle portions of the middle C-beam members are formed,
The fastening members pass through the C-beam members of the oblique column to correspond to the fifth oblique column connection holes and are fastened to the oblique column, and pass through the middle C-beam members to correspond to the fifth middle connection holes and are fastened to the middle, The greenhouse structure, characterized in that the oblique pillars and the middle are fixed at the fifth connecting plate.

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