JP2023168302A - partition structure - Google Patents

Abstract

To provide a partition structure which is excellent in assemblability and manufacturability.SOLUTION: A partition structure includes a furring strip which has a hollow part in a longitudinal direction and has a slit communicating the hollow part with the outside, and a partition member which is formed with a partition surface partitioning a space, has an end stored in the hollow part and is arranged through the slit, wherein the partition member has an overhanging part which is provided in the longitudinal direction and overhangs both sides in the out-of-plane direction of the partition surface in the hollow part, and a projection part projecting in a direction crossing the overhanging part in the hollow part, and the furring strip is slidable in the longitudinal direction in a state in which movement in the out-of-plane direction is restricted by the overhanging part and movement in a vertical direction is restricted by the overhanging part and the projection part.SELECTED DRAWING: Figure 4

Description

The present invention relates to a partition structure having a partition member that forms a partition surface that partitions a space.

DESCRIPTION OF RELATED ART Conventionally, the fence in which the main body part comprised by the upper crosspiece, the lower crosspiece, the vertical crosspiece, the small crosspiece, and the upper and lower frame is supported by a support and a bracket is known (for example, refer patent document 1). This fence consists of a pair of vertical frames, a pair of upper and lower frames, and a small frame that are connected to each other, and the upper and lower frames are assembled to the upper and lower frames, and the main body is supported by brackets on posts erected on the ground. ing. The upper and lower frames each have a protruding portion that extends outward from the surface of the fence. The projecting portions are slidably gripped and connected.

Japanese Patent Application Publication No. 2021-85301

In conventional partition structures such as the above-mentioned fence, the overhanging parts of the upper and lower frames of the main body are held by slide guides on the upper and lower crosspieces, but the slide guides are thin, approximately plate-shaped overhangs. The space between the parts that sandwich the projecting part from above and below is narrow. Therefore, when attaching the upper and lower frames by sliding them in the longitudinal direction of the upper and lower bars, it is necessary to keep the upper and lower frames and the upper and lower bars in a nearly horizontal state while sliding them, which makes the work easier. It is complicated and difficult to assemble.

In addition, the shapes of the slide guide and the overhang are complicated, and in order to slide smoothly, the slide guide with a narrow gap provided along the longitudinal direction and the thin approximately plate-shaped overhang have to be constructed with high precision. However, there was a problem with poor manufacturability.
The present invention has been made in view of such problems, and an object of the present invention is to provide a partition structure with excellent assembly and manufacturability.

The main invention for achieving this object is to form a rim having a hollow part extending in the longitudinal direction, a slit that communicates the hollow part with the outside, and a partitioning surface that partitions the space, and an end part a partition member accommodated in the hollow part and disposed through the slit, the partition member having an overhang provided along the longitudinal direction and projecting to both sides in the out-of-plane direction of the partition surface within the hollow part. and a protruding part that protrudes within the hollow part in a direction intersecting the protruding part, and the furring edge has movement in the out-of-plane direction regulated by the protruding part, and The partition structure is characterized in that it is slidable in the longitudinal direction while vertical movement is restricted by the overhang and the protrusion.
Other features of the present invention will become apparent from the description of this specification and the accompanying drawings.

According to the present invention, it is possible to provide a partition structure with excellent assemblability and manufacturability.

FIG. 2 is an external view showing a lattice unit according to the present embodiment. FIG. 3 is a longitudinal cross-sectional view showing a lattice unit according to the present embodiment. It is a perspective view which shows an upper furrow and an attachment member. It is a figure which looked at the upper part of a panel body from the direction along the longitudinal direction of an upper furring. FIG. 7 is a perspective view illustrating how the rim is slid onto the lattice body to which the attachment member is attached. It is a figure which shows the press part provided in the attachment member. It is a figure which shows the modification of a press part. It is a perspective view which shows the upper furrow and attachment member in the modification of a lattice unit. It is a figure which looked at the attachment member in the modification of a lattice unit from the direction along the longitudinal direction of an upper furring. FIG. 3 is a view of the protruding opposing portion viewed from above. FIG. 7 is a diagram of a modification of the protruding opposing portion viewed from above.

DESCRIPTION OF THE PREFERRED EMBODIMENTS A partition structure according to an embodiment of the present invention will be described below with reference to the drawings.
In this embodiment, as shown in FIGS. 1 and 2, a lattice unit is used as a partitioning structure that is installed, for example, on a block wall, and is installed at the boundary between the inside of a building and the outside, such as a road, to partition a space. This will be explained using an example.

The lattice unit 1 of this embodiment includes two pillars 2 erected at a distance from each other, and a panel body 3 attached to the pillars 2.
In the following explanation, when the lattice unit 1 in an upright state is viewed from the outside (road side), the vertical direction is the up-down direction, and the left-right direction is the left-right direction, and the left-right direction is the width direction of the lattice unit 1. The direction perpendicular to is shown as the depth direction. Even if each part of the lattice unit 1 or each member constituting the lattice unit 1 is in a standalone state, the directions that are the vertical direction, horizontal direction, and depth direction when standing upright. The direction will be specified and explained.

The pillar 2 is a rectangular pipe-shaped member having a hollow portion passing through it in the longitudinal direction. As shown in FIG. 2, the panel body 3 is in contact with a side surface 2a facing the outside (road side) of the column 2, is supported by a support member 4 fixed to the lower part of the column 2, and has an upper end connected to a connecting member. 5 is attached to the pillar 2.

The panel body 3 includes an upper furrow 6 and a lower furrow 7, and a panel body 10 that is provided between the upper furrow 6 and the lower furrow 7 and serves as a partition member. The panel body 10 includes a lattice body 8, which will be described later, and mounting members 9 that attach the upper and lower ends of the lattice body 8 to the upper furrow 6 or the lower furrow 7, respectively.

The upper furring edge 6 and the lower furring edge 7 are both extruded materials molded with the longitudinal direction as the extrusion direction, have a substantially rectangular cross-sectional shape, and have hollow portions 6a and 7a penetrating in the longitudinal direction. ing. The upper furrow 6 and the lower furrow 7 are vertically spaced from each other and have slits 6b and 7b provided in their opposing surfaces along the longitudinal direction. In the hollow parts 6a and 7a of the upper furrow 6 and the lower furrow 7, upper ends 80a of vertical members 80 of the lattice body 8 to which the attachment members 9 are attached, that is, the lattice main body 10, which will be described later, are attached to the upper furrow 6. The lower end portion 80b is accommodated in the lower furrow 7, and the lattice body 8 is arranged so as to extend over the upper furrow 6 and the lower furrow 7 through the slits 6b and 7b.

In the upper and lower furring edges 6 and 7, the upper end portions 80a and lower end portions 80b of the vertical members 80 of the lattice body 8 and the mounting members 9 are housed in the hollow portions 6a and 7a, and their configurations are the same. The top and bottom are reversed. For this reason, the configuration of the furrings 6 and 7 will be explained using the upper furring 6 as an example.

As shown in FIGS. 3 and 4, the upper body rim 6 includes a pair of wall portions 6c that face each other with an interval in the depth direction, and extends from the lower ends of the pair of wall portions 6c to the opposite sides. It has a pair of extension parts 6d and a facing part 6e that connects the pair of wall parts 6c, is provided above the extension part 6d with a space therebetween, and faces the extension part 6d. A slit 6b is formed between the extended ends of a pair of extension parts 6d facing each other in the depth direction, and is provided along the longitudinal direction. The opposing part 6e divides the hollow part 6a in the upper furrow 6 into upper and lower parts, and the lower part of the hollow part 6a communicates with the outside through the slit 6b.

As shown in FIGS. 1 and 5, the lattice body 8 includes four vertical members 80 arranged at intervals in the left-right direction and a plurality of horizontal lattices provided between opposing sides of the adjacent vertical members 80. The members 82 are connected in a grid pattern. A partitioning surface 8a is formed by the vertical members 80 and horizontal lattice members 82 of the lattice body 8, and the out-of-plane direction of the partitioning surface 8a is the depth direction.

The four vertical members 80 are formed longer than the distance between the upper furrow 6 and the lower furrow 7. Each vertical member 80 has an upper end portion 80a accommodated in the hollow portion 6a of the upper furrow 6, and a lower end portion 80b accommodated in the hollow portion 7a of the lower furrow 7.

The mounting members 9 are extruded members formed with the longitudinal direction as the extrusion direction, and are disposed at the upper and lower ends of the lattice body 8 and attached to each vertical member 80. As shown in FIG. 3, the mounting member 9 has a horizontal plate part 9a arranged horizontally, and a vertical plate part 9b arranged vertically in the orthogonal direction intersecting the horizontal plate part 9a. There is. The attachment member 9 has approximately the same length as the upper furrow 6 and the lower furrow 7.

The horizontal plate portion 9a is provided with a cutout portion 9c in the longitudinal direction at a position where the vertical members 80 are arranged, from which the upper end portion 80a or the lower end portion 80b of the vertical member 80 of the lattice body 8 projects. The cutout portion 9c has a U-shape with an open inner side, and its width in the longitudinal direction is slightly wider than the width of the vertical member 80. The horizontal plate portion 9a has an overhang portion 9d that extends in the depth direction from the side surface facing the inside and the side surface facing the outside of the vertical member 80 when the upper end portion 80a or the lower end portion 80b is placed in the notch portion 9c. have. That is, the portion of the horizontal plate portion 9a that protrudes further in the depth direction than the upper end 80a or the lower end 80b of the vertical member 80 corresponds to the overhang portion 9d, and the vertical plate protrudes in the orthogonal direction intersecting the overhang portion 9d. The portion 9b corresponds to a protrusion. The overhanging amount of the overhanging portion 9d that overhangs inside the upper end portion 80a or the lower end portion 80b and the overhanging amount of the overhanging portion 9d that overhangs outside the upper end portion 80a or the lower end portion 80b is approximately equal.

The vertical plate portion 9b is disposed at the edge of the notch portion 9c along the longitudinal direction, and is provided over the entire length in the longitudinal direction. The vertical plate portion 9b is disposed in the notch portion 9c and is arranged so as to face and abut the side surface facing the outside of the upper end portion 80a or the lower end portion 80b that protrudes beyond the horizontal plate portion 9a. The mounting member 9 has a vertical plate portion 9b fixed to the vertical member 80 by screws, clinching, or the like. When the mounting member 9 is fixed to the vertical member 80, the positions of the tips of the vertical plate portions 9b and the ends of the vertical members 80 are substantially aligned.

The lattice body 8 is a panel body 10 with mounting members 9 attached to the upper and lower ends, and as shown in FIG. It is accommodated in hollow parts 6a and 7a of the furring 7, which communicate with the outside through slits 6b and 7b. The state in which the mounting member 9 attached to the vertical member 80 is housed in the upper furrow 6 and the lower furrow 7 differs only in the vertical direction, so here, the upper furrow 6 side will be taken as an example. A state in which the attachment member 9 and the upper end portion 80a are accommodated in the hollow portion 6a of the upper furring 6 will be described.

When the attachment member 9 and the upper end portion 80a are housed in the hollow portion 6a of the upper furrow 6, as shown in FIG. The lower surface of the projecting portion 9d faces each other, and the lower surface of the opposing portion 6e of the upper furring 6, the upper end of the vertical plate portion 9b, and the upper end of the vertical member 80 closely face each other. In addition, the inner surfaces of the pair of wall portions 6c of the upper body rim 6 and the tip 9e of the projecting portion 9d of the attachment member 9 are close to each other and face each other.

The distance W1 between the upper surface of the extending portion 6d of the upper furrow 6 and the lower surface of the opposing portion 6e is slightly wider than the height H1 from the lower surface of the overhanging portion 9d to the tip 9f of the vertical plate portion 9b. The distance W2 between the inner surfaces of the pair of wall portions 6c of 6 is slightly wider than the width in the depth direction of the horizontal plate portion 9a, that is, the distance W3 between the tips 9e of the projecting portions 9d on both sides. Therefore, the upper surface of the extending portion 6d and the lower surface of the protruding portion 9d of the upper body rim 6, and at least one of the tip 9f of the vertical plate portion 9b and the opposing portion 6e are close to each other with a slight gap. At least one of the inner surfaces of the pair of wall portions 6c of the upper body rim 6 and the tip of the horizontal plate portion 9a are close to each other with a slight gap.

These gaps are caused by, for example, when manufacturing tolerances and assembly tolerances are accumulated, the tip of the horizontal plate portion 9a of the mounting member 9 attached to the grid body 8 interferes with the inner surface of the pair of wall portions 6c of the upper rim 6. This is a small gap provided to prevent the tip 9f of the vertical plate portion 9b from interfering with the facing portion 6e. Therefore, when the upper end portion of the lattice body 8 to which the attachment member 9 is attached is accommodated in the hollow portion 6a of the upper furrow 6, the attachment member 9 inside the upper furrow 6 may have a slight gap. Also, movement of the upper end portion 80a of the grid body 8 in the vertical direction and the depth direction is restricted.

Further, the upper furrow 6 is slid along the longitudinal direction so that the upper end portion of the lattice body 8 to which the attachment member 9 is attached is accommodated in the hollow portion 6a of the upper furrow 6. The upper furring 6 can be attached, and when sliding, the overhanging portion 9d of the attachment member 9 and the tip 9f of the vertical plate portion 9b serve as a guide for guiding the upper furring 6.

Further, as shown in FIG. 6, the mounting member 9 is provided with a pressing portion 9g that protrudes toward the opposing extension portion 6d on the overhang portion 9d of the horizontal plate portion 9a on one end side in the longitudinal direction. ing. The pressing portion 9g is formed by recessing the projecting portion 9d by, for example, press processing. The protrusion amount L1 of the pressing portion 9g is set to be larger than the gap generated between the tip 9f of the vertical plate portion 9b and the facing portion 6e when the lower surface of the projecting portion 9d is in contact with the upper surface of the extending portion 6d. There is. For this reason, the pressing portion 9g is configured such that when the upper furring edge 6 is slid from the other end side of the mounting member 9, the tip of the upper furring edge 6 in the sliding direction moves to the position where the pressing portion 9g is provided. , presses the opposing extension portions 6d downward. In a state where the upper furring 6 is attached to the lattice body 8, the pressing portion 9g presses the extension portion 6d, so that the upper furring 6 is restrained from sliding and fixed.

According to the lattice unit 1 of the present embodiment, the upper rim 6 and the lower rim 7 are restricted from moving in the out-of-plane direction and the up-down direction of the partition surface 8a by the mounting member 9 attached to the lattice body 8. Since it is slidable in the longitudinal direction in the state, it is possible to easily slide the upper and lower furring edges 6 and 7, and the lattice body 8 is placed in the hollow parts 6a and 7a of the upper and lower furring edges 6 and 7. It is possible to easily provide the upper furrow 6 and the lower furrow 7 at the end of the lattice body 8 by inserting the upper end 80a and the lower end 80b of the vertical member 80.

At this time, the out-of-plane direction of the upper furrow 6 and the lower furrow 7 is regulated by overhanging portions 9d that are arranged within the upper furrow 6 and the lower furrow 7 and extend to both sides in the out-of-plane direction, Regulation in the up-down direction is regulated by the overhanging portions 9d disposed within the flanges 6 and 7 and the vertical plate portion 9b protruding in a direction intersecting the overhanging portions 9d. Therefore, since the parts to be regulated are far apart both in the out-of-plane direction and in the vertical direction, a slight inclination is more permissible than when, for example, the parts are regulated by being gripped or clamped by narrowly spaced parts. Easy and highly flexible. Therefore, it is possible to slide the device more smoothly than when the device is gripped or clamped between narrowly spaced parts, and is easy to assemble.

Further, since there is no need to provide narrowly spaced sections as sections for regulating the out-of-plane and up-down directions of the furrings 6 and 7, high precision is not required in manufacturing and processing. Therefore, it has excellent manufacturability.

In addition, the parts that regulate the out-of-plane direction are a pair of wall portions 6c facing each other at a distance in the out-of-plane direction on the upper body rim 6, and the tips 9e of the overhanging portions 9d facing each wall portion 6c. Even if they make contact, the contact area is small, so the load due to friction is small. Further, the vertical direction is restricted by the extending portion 6d of the upper furring 6, the opposing portion 6e facing the extending portion 6d with a gap, and the upper or lower side of the overhanging portion 9d facing the extending portion 6d. Since the tip 9f of the vertical plate part 9b faces either one of the opposing parts 6e and the opposing part 6e, the load due to friction is small even if the tip 9f of the vertical plate part 9b contacts, and even if the overhanging part 9d contacts. Since only either the upper side or the lower side is held, the load due to friction is smaller than when the upper and lower sides are sandwiched. Therefore, even if the parts regulating the out-of-plane direction and the up-down direction come into contact, it is possible to easily slide.

Further, since the width W3 of the horizontal plate portion 9a in the out-of-plane direction is wider than the width W4 of the slits 6b and 7b, it is possible to prevent the furring edges 6 and 7 from coming off the grid body 8 when sliding. be.

Furthermore, since the overhanging portion 9d and the vertical plate portion 9b are provided on a separate attachment member 9 that is attached to the vertical members 80 of the lattice body 8, the vertical members 80 and the attachment members 9 of the lattice body 8 are It does not have a complicated shape and is easy to manufacture. In addition, by replacing the mounting member 9 with the vertical member 80 in which the overhanging portion 9d and the vertical plate portion 9b have different sizes, the specifications can be changed, for example, by changing the position of the furring edges 6 and 7 with respect to the lattice body 8. Therefore, it is possible to realize a highly versatile lattice unit 1. Further, since the shapes of the vertical members 80 and the mounting members 9 are simple, it is possible to contribute to an improvement in productivity, and it is also possible to realize automation of assembly.

Further, one end in the longitudinal direction of the mounting member 9 is provided with a pressing portion 9g that presses the extending portion 6d of the upper furring rim 6 from the horizontal plate portion 9a on the opposite side from the vertical plate portion 9b. , slide the upper rim 6 from the other end in the longitudinal direction of the lattice body 8 to which the mounting member 9 is attached, and insert the ends of the lattice body 8 and the mounting member 9 into the hollow part 6a of the upper rim 6. When the one end enters the upper furrow 6, the pressing portion 9g contacts the extension 6d of the upper furrow 6, and the pressing portion 9g pushes the extension 6d of the upper furrow 6. Press. Therefore, in a state where one end of the lattice body 8 to which the attachment member 9 is attached is housed in the upper furrow 6, it is possible to provide the upper furrow 6 to the lattice body 8 in a stable state.

Further, since the protruding amount L1 of the pressing portion 9g protruding on the side opposite to the vertical plate portion 9b in the overhanging portion 9d is larger than the distance W5 between the tip 9f of the vertical plate portion 9b and the upper body rim 6, the pressing portion When 9g presses the upper furring 6, the tip 9f of the vertical plate part 9b presses the opposing part 6e on the opposite side to the pressing part 9g. For this reason, since the pressing portion 9g and the vertical plate portion 9b stretch in the vertical direction inside the upper furrow 6, it is possible to stabilize the upper furrow 6 more reliably.

In the above embodiment, an example has been described in which the tip 9f of the vertical plate portion 9b of the mounting member 9 and the opposing portion 6e face each other with a slight gap, but the present invention is not limited to this, and for example, the upper end of the vertical member 80 may be configured to face the facing portion 6e with a slight gap therebetween. In this case, the vertical plate portion 9b of the mounting member 9 only needs to have a height that allows the mounting member 9 to be fixed to the vertical member 80.

Further, in the above embodiment, an example has been described in which the pressing portion 9g is provided on the overhanging portion 9d of the attachment member 9 by press working or the like, but the present invention is not limited to this, and for example, an elastic member may be attached.

Further, although an example in which the pressing portion 9g is provided on the mounting member 9 side has been described, the present invention is not limited to this. For example, as shown in FIG. 7, one end in the longitudinal direction of the facing portion 6e of the upper furring 6 is brought into contact with the tip 9f of the vertical plate portion 9b within the hollow portion 6a of the upper furring 6, and the panel A pressing portion 6f that presses the main body 10 toward the outside of the slit 6b may be provided. In this case, when the upper furrow 6 is slid and one end enters the upper furrow 6, the pressing portion 6f contacts the tip 9f of the vertical plate portion 9b of the mounting member 9, and presses Since the portion 6f presses the vertical plate portion 9b, it is possible to provide the panel main body 10 with the upper rim 6 in a stable state.

Further, in the above embodiment, the configuration in which the pressing portions 9g and 6f are provided only on one side in the longitudinal direction has been described as an example, but the pressing portions 9g and 6f may be provided on both sides in the longitudinal direction. do not have. In this case, since the upper furrow 6 and the panel main body 10 are in contact with each other on both sides in the longitudinal direction, it is possible to provide the upper furrow 6 on the panel main body 10 in a more stable state.

Next, a modification of the lattice unit 1 will be described.
The lattice unit 11 of the modified example differs from the lattice unit 1 described above only in the mounting member 12, and the other parts are the same. Therefore, the same components as those of the grid unit 1 are indicated by the same reference numerals in the drawings, and the explanation thereof will be omitted. In the modified example as well, when the mounting member 12 is housed in the upper furrow 6 and the lower furrow 7, the only difference is in the vertical direction, similar to the attachment member 9 of the lattice unit 1, so here also the upper furrow 6 This will be explained using the side as an example.

As shown in FIGS. 8 and 9, the mounting member 12 of the lattice unit 11 has a horizontal plate portion 12a and a vertical plate portion 12b, similar to the mounting member 9 of the lattice unit 1, and the horizontal plate portion 12a has a cutout. The mounting member 12 has a notch portion 12c, an overhanging portion 12d, and a pressing portion 12g, but is different from the mounting member 9 in that the overhanging portion 12d has a protruding opposing portion 12h.

The protruding opposing portion 12h is formed to protrude in the depth direction from the tip 12e of the protruding portion 12d in an arc shape when viewed from above, as shown in FIG. Then, with the attachment member 12 housed in the upper furrow 6, the tips of the protruding opposing parts 12h closely oppose or abut against a pair of wall parts 6c that the upper furrow 6 has. That is, the protruding opposing portion 12h is a protrusion that is approximately half the difference between the distance W2 between the inner surfaces of the pair of walls 6c of the upper body rim 6 and the distance W3 between the tips 12e of the projecting portions 12d on both sides in the depth direction. The amount L2 is formed.

The case where the tips of the protruding opposing portions 12h are close to each other means that the protruding opposing portions 12h, which are designed such that the tips of the protruding opposing portions 12h abut against the pair of walls 6c of the upper body rim 6, This is a case where the parts do not come into contact but face each other closely due to processing accuracy and manufacturing errors of the parts. Therefore, even if the tips of the protruding opposing portions 12h are close to each other and facing each other, the distance between the tip of the protruding opposing portions 12h and the pair of walls 6c of the upper body rim 6 is such that the protruding opposing portions 12h are provided. The distance between the tip 9e of the overhang 9d and the pair of walls 6c is narrower than the distance between the tip 9e of the overhang 9d and the pair of walls 6c.

In the longitudinal direction, when the pressing part 12g is provided on one side, the protruding opposing part 12h has two parts near the end opposite to the end where the pressing part 12g is provided and near the center. They are provided so as to protrude from both sides in the depth direction. The position where the protruding opposing portion 12h is provided is not limited to the vicinity of the end and the vicinity of the center, and is not limited to two locations in the longitudinal direction, but may be provided at one location or three or more locations. Further, the protruding opposing portion 12h may be provided only on one side in the depth direction.

The protruding opposing portion 12h is formed by compressing the protruding portion 12d from above with an arcuate compression portion by pressing, for example, and causing a portion of the protruding portion 12d in the longitudinal direction to slightly protrude in the depth direction. There is. In the mounting member 12, the distance W3 between the tips 12e of the projecting portions 12d provided on both sides in the depth direction is slightly smaller than the distance W2 between the inner surfaces of the pair of walls 6c of the upper body rim 6, as in the case of the mounting member 9. The distance W6 between the tips of the protruding opposing portions 12h that protrudes from both sides in the depth direction is approximately the same as or slightly wider than the distance W2 between the inner surfaces of the pair of wall portions 6c of the upper body rim 6. It is set as follows.

When sliding the upper furring 6 along the longitudinal direction so that the upper end of the lattice body 8 to which the mounting member 12 is attached is accommodated in the hollow part 6a of the upper furrow 6, first the mounting member 12 is slid. The overhanging portion 12d and the tip 12f of the vertical plate portion 12b serve as a guide for guiding the upper body rim 6. At this time, there is a slight gap between the projecting portion 12d and the pair of wall portions 6c.

When the protruding opposing portions 12h of the mounting member 12 that are slid into the hollow portion 6a enter the hollow portion 6a, the protruding opposing portions 12h provided at two locations in the longitudinal direction touch the pair of wall portions 6c. They come into contact with each other and enter while slightly widening the distance between the pair of wall portions 6c. At this time, the attachment member 12 enters in the longitudinal direction while being held between the pair of wall portions 6c.

When the tip of the upper body rim 6 in the sliding direction moves to the position where the pressing portion 12g is provided, it presses the opposing extending portion 6d downward. When the upper rim 6 is attached to the lattice body 8, the pressing part 12g presses the extension part 6d, and the mounting member 12 is held between the pair of walls 6c, so that the upper rim 6 Sliding movement is suppressed and it is fixed without wobbling in the depth direction.

According to the partition structure of the modified example, the upper furrow 6 and the lower furrow 7 are regulated in the out-of-plane direction by the protruding facing portion 12h of the mounting member 12 attached to the lattice body 8, and the overhanging portion 12d and the vertical Since it is possible to slide in the longitudinal direction while the vertical movement is restricted by the plate portion 12b, it is possible to easily slide the upper furrow 6 and the lower furrow 7. By inserting the ends of the lattice body 8 into the hollow portions 6a and 7a of the lattice body 8, it is possible to easily provide the upper furrow 6 and the lower furrow 7 at the ends of the lattice body 8.

At this time, the protruding opposing portion 12h that faces the upper furrow 6 and the lower furrow 7 protrudes in an out-of-plane direction from the overhang 12d and faces the upper furrow 6 and the lower furrow 7, so that the overhang The distance between the upper furrow 6 and the lower furrow 7 is narrower than the region facing the portion 12d. Therefore, it is possible to restrict the movement of the upper furrow 6 and the lower furrow 7 in the out-of-plane direction to a smaller extent. Further, when the protruding opposing portion 12h abuts the pair of walls 6c, the mounting member 12 is held between the pair of walls 6c, so that the movement of the upper furring rim 6 and the lower furring rim 7 in the out-of-plane direction is prevented. It becomes possible to prevent this. Since a part of the protruding part 12d protrudes, the protruding opposing part 12h, even if it comes into contact with the pair of wall parts 6c, is more likely to slide than if the protruding part 12d abuts over its entire length. friction is small. For this reason, it becomes possible to hold the grid body 8 more stably while having a structure that makes it easy to slide.

Further, since there is no need to provide narrowly spaced sections as sections for regulating the out-of-plane direction and the vertical direction of the upper furrow 6 and the lower furrow 7, high precision is not required in manufacturing and processing. Therefore, it has excellent manufacturability.

In the embodiment described above, an example has been described in which the protruding opposing portion 12h is formed to protrude in the depth direction in an arc shape when viewed from above, but the present invention is not limited to this. For example, as shown in FIGS. 11(a) and 11(b), a triangular or rectangular portion protrudes when viewed from above, or a protruding tip as shown in FIG. 11(c). It may have a portion that is substantially parallel to the tip 12e of the overhanging portion 12d, and may be connected to the overhanging portion 12d at an arc-shaped portion.

In the above-mentioned embodiment, an example using the lattice body 3 forming a lattice has been described, but the present invention is not limited to this, and any member that partitions a space, such as a panel or a fence, may be used.

Further, the above embodiments are for facilitating understanding of the present invention, and are not intended to be interpreted as limiting the present invention. It goes without saying that the present invention may be modified and improved without departing from its spirit, and that the present invention includes equivalents thereof.
This embodiment includes at least the following aspects of the invention.

Aspect 1: A furring edge having a hollow portion extending in the longitudinal direction and having a slit that communicates the hollow portion with the outside, and a partitioning surface that partitions the space, the end portion being accommodated in the hollow portion and the slit. a partition member disposed through the partition member, the partition member being provided along the longitudinal direction and projecting on both sides in the out-of-plane direction of the partition surface within the hollow portion; a protrusion protruding in a direction intersecting the protrusion; the furring rim has movement in the out-of-plane direction regulated by the protrusion; The partition structure is characterized in that it is slidable in the longitudinal direction while vertical movement is restricted by.

According to the partition structure of aspect 1, the furring edge is slidable in the longitudinal direction while the out-of-plane and vertical movement of the partition surface is restricted by the overhanging portion and the protruding portion of the partition member. The end portion of the partition member can be inserted into the hollow portion of the furrow to easily provide the furrow at the end of the partition portion.

At this time, the out-of-plane direction is regulated by the overhanging parts that are placed inside the rim and protrudes on both sides in the out-of-plane direction, and the up-down direction is regulated by the overhangs placed inside the rim. and a protruding part that protrudes in a direction intersecting the protruding part. Therefore, since the parts to be regulated are far apart both in the out-of-plane direction and in the vertical direction, a slight inclination is more permissible than when, for example, the parts are regulated by being gripped or clamped by narrowly spaced parts. It is easy to slide while changing your posture slightly. For this reason, it is possible to slide smoothly while changing the posture slightly, and it is easier to assemble than when the slide is gripped or held between narrowly spaced parts.

Further, since there is no need to provide narrowly spaced sections as sections for regulating the out-of-plane direction and the vertical direction of the furring rim, high precision is not required in manufacturing and processing. Therefore, it has excellent manufacturability.

Aspect 2: The partition structure according to Aspect 1, wherein the furring edge includes a pair of wall portions facing each other with an interval in an out-of-plane direction, and extending from ends of the pair of wall portions to sides opposite to each other. an extending portion that extends out and forms the slit therebetween; and an opposing portion that connects the pair of wall portions, is spaced apart in a direction intersecting the out-of-plane direction, and faces the extended portion; The protruding portion has an overhanging tip facing the pair of walls, and either an upper side or a lower side facing the extending portion, and the protruding portion has a protruding portion. It is characterized in that the tip of the holder faces the opposing portion.

According to the partition structure of aspect 2, the out-of-plane direction is restricted by the pair of walls facing each other with a space between them in the out-of-plane direction on the trunk edge, and the tips of the overhanging parts facing each wall. Even if they make contact, the load due to friction is small because the contact area is small. In addition, the vertical direction is restricted by the extending portion of the furring edge, the opposing portion facing the extending portion with a space between them, and either the upper or lower side of the overhang facing the extending portion and the opposing portion. Even if the tips of the protrusions were to come into contact with each other, the load due to friction would be small, and even if the protrusions did come into contact, it would only be on either the upper or lower sides, so the top and bottom would not be pinched. The load due to friction is smaller than when there is no friction. Therefore, even if the parts regulating the out-of-plane direction and the up-down direction come into contact, it is possible to easily slide.

Aspect 3: The partition structure according to Aspect 2, wherein the distance between the tips of the projecting portions on both sides is wider than the width of the slit.

According to the partition structure of aspect 3, since the width of the projecting portion in the out-of-plane direction is wider than the width of the slit, it is possible to prevent the furring edge from coming off from the partition member when sliding. .

Aspect 4: The partition structure according to any one of Aspects 1 to 3, wherein the partition member has a vertical member arranged along the vertical direction and whose end portion is accommodated in the hollow portion, The present invention is characterized in that it has a mounting member that is attached to the vertical member and includes the overhang portion and the protrusion portion.

According to the partition structure of aspect 4, the overhanging portion and the protruding portion are provided on separate attachment members that are attached to the vertical members of the partition member, so that the partition member and the attachment member do not have complicated shapes. However, it is easy to manufacture. In addition, by replacing mounting members with different sizes of overhangs and protrusions with vertical members, specifications can be changed, for example by changing the position of the rim relative to the partition member, making the partition highly versatile. It is possible to realize a structure. Furthermore, since the shapes of the partition member and the mounting member are simple, it is possible to contribute to an improvement in productivity, and it is also possible to realize automation of assembly.

Aspect 5: The partition structure according to any one of Aspects 1 to 4, wherein the furring edge is pressed on at least one end in the longitudinal direction of the protruding portion on a side opposite to the protruding portion. It is characterized by having a pressing part that does.

According to the partition structure of aspect 5, when the end of the partition member is inserted into the hollow part of the furring edge by sliding it from the other end side in the longitudinal direction of the partition member, one end is inserted into the hollow part of the furring edge. When it enters, the pressing part contacts the furring edge, and the projecting part presses the furring edge. Therefore, when one end of the partition member is accommodated in the furring, it is possible to provide the partitioning member with the furring in a stable state.

Aspect 6: The partition structure according to Aspect 5, wherein the pressing portion is provided to protrude on the opposite side to the protrusion, and the amount of protrusion of the pressing portion is equal to the distance between the tip of the protrusion and the It is characterized by being larger than the distance from the body rim.

According to the partition structure of aspect 6, the amount of protrusion of the pressing part that projects on the side opposite to the projecting part in the projecting part is larger than the distance between the tip of the projecting part and the furring edge, so that the pressing part is connected to the furring edge. When pressing, the tip of the protruding portion presses the rim on the side opposite to the pressing portion. For this reason, since the pressing part and the protruding part stretch the inside of the furrow in the vertical direction, it is possible to stabilize the furrow more reliably.

Aspect 7: The partition structure according to any one of Aspects 1 to 4, wherein the furring edge abuts the protrusion in the hollow portion at least one end in the longitudinal direction, and the partition structure The device is characterized in that it includes a pressing portion that presses the member outward of the slit.

According to the partition structure of aspect 7, when the end of the partition member is inserted into the hollow part of the furring edge by sliding it from the other end side in the longitudinal direction of the partition member, the partition member is inserted into the hollow part of the furring edge on one side. When it enters the end of the slit, the pressing part contacts the protrusion, the protrusion is pressed toward the slit, and the protrusion presses the rim. Therefore, when one end of the partition member is accommodated in the furring, it is possible to provide the partitioning member with the furring in a stable state.

Aspect 8: A rim having a hollow part along the longitudinal direction and having a slit communicating the hollow part with the outside, forming a partition surface partitioning the space, and having an end part accommodated in the hollow part and the slit. a partition member disposed through the partition member, the partition member being provided along the longitudinal direction and projecting on both sides in the out-of-plane direction of the partition surface within the hollow portion; a protrusion that protrudes in a direction intersecting the protrusion; the protrusion has a protrusion facing portion that protrudes in an out-of-plane direction from a portion thereof and faces the furring edge; The body rim is capable of sliding in the longitudinal direction with movement in the out-of-plane direction being regulated by the protruding opposing portion and movement in the vertical direction being regulated by the projecting portion and the protruding portion. This is a distinctive partition structure.

According to the partition structure of aspect 8, the furring rim is regulated in the out-of-plane direction by the protruding opposing portion of the partition member, and in the longitudinal direction while the vertical movement of the partition surface is regulated by the overhanging portion and the protruding portion. Therefore, it is possible to easily slide the furring, and it is possible to easily provide a furring at the end of the partition by inserting the end of the partition member into the hollow part of the furring. be.

At this time, the protruding opposing part facing the furring rim protrudes out of the plane from the overhanging part and faces the furring rim, so the distance between it and the furring rim is narrower than that of the part facing the overhanging part. . Therefore, it is possible to restrict the movement of the furring edge in the out-of-plane direction to a smaller extent. Since a part of the protruding part of the protruding opposing part protrudes and abuts against the furring edge, the friction during sliding is smaller than when the protruding part abuts over its entire length. For this reason, it becomes possible to hold the partition member more stably while having a structure that makes it easy to slide.

Further, since there is no need to provide narrowly spaced sections as sections for regulating the out-of-plane direction and the vertical direction of the furring rim, high precision is not required in manufacturing and processing. Therefore, it has excellent manufacturability.

1 lattice unit, 6 upper rim, 6a hollow part, 6b slit,
6c wall part, 6d extending part, 6e opposing part, 6f pressing part, 7 lower body edge,
7a hollow part, 7b slit, 8 lattice body, 8a partition surface,
9 mounting member, 9a horizontal plate part, 9b vertical plate part, 9d overhang part,
9g pressing part, 10 panel body, 80 vertical member, 80a upper end, 80b lower end,
12 mounting member, 12a horizontal plate part, 12b vertical plate part, 12d overhang part,
12g pressing part, 12h protruding opposing part,
L1 protrusion amount of the pressing part, W3 width in the depth direction of the horizontal plate part,
W4 slit width,

Claims (8)

A furring edge having a hollow portion extending in the longitudinal direction and having a slit communicating the hollow portion with the outside;
a partition member that forms a partition surface that partitions a space, and whose end portion is accommodated in the hollow portion and is disposed through the slit;
Equipped with
The partition member includes a projecting portion provided along the longitudinal direction and projecting in the hollow portion to both sides in an out-of-plane direction of the partition surface, and projecting in a direction intersecting the projecting portion within the hollow portion. It has a protrusion,
The movement of the furring edge in the out-of-plane direction is regulated by the overhang,
The partition structure is capable of sliding in the longitudinal direction while vertical movement is restricted by the overhang and the protrusion. The partition structure according to claim 1,
The furring edge includes a pair of wall portions that face each other at a distance in an out-of-plane direction, and an extension portion that extends from the ends of the pair of wall portions to opposite sides and forms the slit therebetween. and an opposing portion that connects the pair of wall portions, is spaced apart in a direction intersecting the out-of-plane direction, and faces the extending portion;
The overhanging portion has an overhanging tip facing the pair of walls, and either an upper side or a lower side facing the extending portion,
The partition structure is characterized in that the protruding portion has a protruding tip facing the opposing portion. The partition structure according to claim 2,
A partition structure characterized in that an interval between tips of the projecting portions on both sides is wider than a width of the slit. The partition structure according to any one of claims 1 to 3,
The partition member has a vertical member arranged along the vertical direction and whose end portion is accommodated in the hollow portion,
a mounting member that is attached to the vertical member and includes the overhang and the protrusion;
A partition structure characterized by having. The partition structure according to any one of claims 1 to 3,
A partition structure characterized in that at least one end in the longitudinal direction of the projecting portion is provided with a pressing portion that presses the furring edge on a side opposite to the projecting portion. The partition structure according to claim 5,
The pressing portion is provided to protrude on the opposite side to the protruding portion,
A partition structure characterized in that the amount of protrusion of the pressing portion is greater than the distance between the tip of the protruding portion and the rim. The partition structure according to any one of claims 1 to 3,
The furring rim is characterized in that it includes a pressing portion at least one end in the longitudinal direction that abuts the protruding portion within the hollow portion and presses the partition member toward the outside of the slit. Partition structure. A furring edge having a hollow portion extending in the longitudinal direction and having a slit communicating the hollow portion with the outside;
a partition member that forms a partition surface that partitions a space, and whose end portion is accommodated in the hollow portion and is disposed through the slit;
Equipped with
The partition member includes a projecting portion provided along the longitudinal direction and projecting in the hollow portion to both sides in an out-of-plane direction of the partition surface, and projecting in a direction intersecting the projecting portion within the hollow portion. a protrusion;
The projecting portion has a projecting opposing portion projecting in an out-of-plane direction from a part thereof and facing the furring edge,
The movement of the furring edge in the out-of-plane direction is regulated by the protruding opposing portion,
The partition structure is capable of sliding in the longitudinal direction while vertical movement is restricted by the overhang and the protrusion.

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