JP2018189186A - Fixation member for coupling and fixing two members, and fixation structure - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a novel technology enabling anybody to easily perform attachment/removal work of coupling and fixing two members, and further capable of stably maintaining a state of reliably preventing falling, in a fixed state after attachment.SOLUTION: A fixation member 20 is arranged on a rear face side of a vertical frame 12, and attached so as to be able to corotate with a screw 28 screwed from a front face side. On a side face 30a of a column 30 opposite to the fixation member, a front groove 32 is formed, wherein when the fixation member is postured vertically, the front groove allows insertion of the fixation member; and in the back of the column, a back groove 33 is formed, wherein the back groove can store the fixation member postured laterally. Between the front groove and the back groove, locking parts 34a, 34b are formed, which lock engagement pieces 24a, 24b projecting outward from a body 21 of the laterally-postured fixation member.SELECTED DRAWING: Figure 6

Description

The present invention relates to a fixing member for connecting and fixing two members. More specifically, the two members can be connected and fixed by a simple one-touch operation, whereby a fixing structure that is not easily disassembled can be obtained and maintained. The present invention relates to a fixing member that can easily perform the work of removing two members from the fixing structure. Moreover, it is related with the fixing structure obtained using this fixing member.

Patent Document 1 describes “a sliding door frame mounting structure in which upper and lower sliding door rails and left and right sliding door door rails are all detachably mounted at a construction site” (paragraph 0003). As an example, in the display case A, there is shown a fixing structure in which the sliding door door rails 14a and 14b and the sliding door upper rail 13 are detachably fixed to the column frame members 3a and 3b and the top frame member 1a, respectively ( FIG. 1).

In this fixing structure, the mounting bracket 16 is fixed to the sliding door door rails 14a and 14b and the sliding door upper rail 13 with screws, and the fixed mounting bracket 16 is inserted into each groove 6 of the column frame members 3a and 3b and the top frame member 1a. It can be obtained by fitting, and the elastic member 17a, 17b of the mounting bracket 16 is pressed against the edge of the groove 6 and acts like a leaf spring, thereby providing a detachable fixing structure (paragraphs 0009 to 0010). , FIGS. 4 to 6).

Utility Model Registration No. 3014993

According to the prior art described in Patent Literature 1, the mounting bracket 16 fixed to the sliding door door rails 14a and 14b and the sliding door upper rail 13 is inserted into / removed from each groove 6 of the column frame members 3a and 3b and the top frame member 1a. However, in the fixed structure, friction is caused by the elastic pieces 17a, 17b being pressed against the edge of the groove 6 and acting like a leaf spring. Since the connection state of these two members is only maintained by force, there is a possibility that accidental dropout may occur. Therefore, it is not suitable for a structure for fixing heavy objects such as when a building member such as a sliding door frame is attached to a member to be attached such as a pillar or a structural frame.

Therefore, the problem to be solved by the present invention is that anyone can easily perform the work of attaching / detaching to / from the attached member, and after being attached, the state where it is surely prevented from coming off is stabilized. It is to provide a new technology that can be maintained.

In order to solve this problem, the invention according to claim 1 of the present application is a fixing member used for connecting and fixing the first member to the second member, and the fixing member protrudes outward from the main body. An engaging piece that is disposed on the back side of the first member and rotates relative to the first member between at least a first direction and a second direction different from the first direction. The opening passage formed in the second member can be inserted when the fixing member is in the first orientation, and the opening passage of the second member can be inserted when the fixing member is in the second orientation. The engagement piece is accommodated in a back space formed continuously in the back, and the lock piece is locked to a lock portion formed between the opening passage of the second member and the back space. The fixing member is formed by connecting and fixing two members.

The invention according to claim 2 of the present application is the fixing member according to claim 1, wherein a female screw is formed in the main body of the fixing member, and a screw passing through a hole penetrating the front and back from the front side of the first member can be screwed. It is characterized by being.

The invention according to claim 3 of the present application is the fixing member according to claim 1 or 2, wherein an urging force for projecting the engaging piece of the fixing member outward from the main body is applied and the engaging piece is resisted against the urging force. The fixing member is provided with an urging means for enabling embedment in the main body.

The invention according to claim 4 of the present application is characterized in that in the fixing member according to any one of claims 1 to 3, the fixing member has a protrusion protruding outward from a surface different from the engagement piece installation surface of the main body. .

The invention according to claim 5 of the present application is the fixing member according to claim 4, wherein the pair of protrusions protrude outwardly near the second member side end portions of the pair of side surfaces facing each other of the main body having a substantially rectangular parallelepiped shape. The engaging pieces are provided at the opposing positions, and the pair of convex portions are provided at the diagonal positions so as to protrude outward near the first member side end portions of the other opposing pair of side surfaces of the main body. It is characterized by being able to.

The invention according to claim 6 of the present application is the fixing member according to any one of claims 1 to 5, wherein the width dimension (A1) of the engaging member installation surface of the fixing member body is the opening width of the opening passage of the second member. It is substantially the same as or smaller than (Wa), and the protrusion width dimension (A2) of the engagement piece is larger than the opening width (Wa).

The invention according to claim 7 of the present application is a fixing structure obtained by connecting and fixing the first member to the second member using the fixing member according to any one of claims 1 to 6.

According to the present invention, by the work of bringing the fixing member attached in advance to the first member close to the second member and passing it through the opening passage (and the work of rotating in the direction of tightening the fixing member as necessary), The first member can be fixed to the second member with one touch. The operation of removing the first member from the second member can also be performed by rotating the fixing member from the second direction to the first direction and then pulling the first member away from the second member. it can. These operations can be easily performed by women and beginners.

In a state where the first member is attached to the second member via the fixing member (fixing structure), the engaging piece of the fixing member is a locking portion between the opening passage of the second member and the back space. Therefore, it is possible to maintain a stable fixed state.

According to the embodiment in which the urging means for urging the engaging piece of the fixing member outward is provided (Claim 3), the opening passage of the second member in a state where the fixing member is in the second direction. And the engaging piece enters the inner space through the opening passage and simultaneously protrudes outward by the urging means, so that the engaging piece can be locked to the locking portion. The rotation operation for changing from the first direction to the second direction is not necessary, and it is possible to fix by a simpler operation.

According to the embodiment in which the fixing member is provided with the convex portion (Claim 4), even if the screw is further tightened from the fixed state in which the engaging piece is locked to the locking portion, the convex portion hits the inner surface of the opening passage. Prevents rotation of the fixing member. Therefore, once this fixed state is obtained, the fixing member does not rotate substantially even if the screw is tightened to completely fix the first member to the second member. The fixed state is stably maintained.

It is a front view which shows the sliding door frame fixing structure obtained using the fixing member by one Embodiment of this invention. It is the perspective view (a), (b), and (c) which looked at the fixing member used for this sliding door frame fixing structure from a different angle. They are a front view (a), a bottom view (b), a rear view (c), and a left side view (d) of this fixing member. It is an expanded sectional view of this fixing member. In the sliding door frame fixing structure shown in FIG. 1, it is sectional drawing of the pillar (to-be-attached member) to which a sliding door frame (building member) is attached via the fixing member shown in FIGS. 2 to 4 are views (a) to (c) showing, in the order of steps, operations when the sliding door frame to which the fixing members shown in FIGS. 2 to 4 are attached in advance are attached to the pillars. FIG. 5 is a front view showing the positional relationship between the fixing member and the column, omitting the sliding door frame (vertical frame), the leaf spring, and the screw. Sectional view (upper view) and front view (lower view) showing the state (sliding door frame fixing structure) in which the installation work is completed by tightening screws from the state of FIG. 6 (c), as in FIGS. 6 (a) to (c). It is. FIGS. 8A and 8B are views showing the operation when removing the sliding door frame from the sliding door frame fixing structure shown in FIG. 7 in order of steps, and FIG. 8A is a view showing a state in which the screw is loosened from the state of FIG. 6 and FIG. 7 is a cross-sectional view similar to each of the upper diagrams, and FIG. 8B is a front view similar to each of the lower diagrams of FIG. 6 and FIG. 7 showing a state obtained by screw loosening following FIG. . It is the figure (c)-(e) which shows the work further performed for the sliding door frame removal from the state shown in Drawing 8 in order of a process. In each figure, the upper figure is a cross-sectional view similar to each upper figure in FIGS. 6 and 7, and the lower figure is a front view similar to each lower figure in FIGS. In the sliding door frame fixing structure shown in FIG. 1, a cross section similar to FIG. 5 showing another embodiment of a column (attached member) to which a sliding door frame (building member) is attached via a fixing member shown in FIGS. It is a figure (hatching is omitted). In the sliding door frame fixing structure shown in FIG. 1, a cross section similar to FIG. 5 showing another embodiment of a column (attached member) to which a sliding door frame (building member) is attached via a fixing member shown in FIGS. It is a figure (hatching is omitted).

The present invention will be described in detail below with reference to examples.

FIG. 1 shows a fixing structure for a building member obtained by using a fixing member according to an embodiment of the present invention. In this embodiment, the building member (first member) is a sliding door frame 10 formed as a three-sided frame from an upper frame 11 made of a wood material such as MDF and left and right vertical frames 12, 12, and this sliding door frame. Ten vertical frames 12, 12 are attached to the left and right columns 30, 30 via fixing members 20, 20. In the figure, reference numeral 1 denotes an opening formed between the pillars 30 and 30 (second member). Further, reference numeral 2 is a sliding door, reference numeral 3 is a stand provided substantially at the center of the width of the opening 1, reference numeral 4 is a door provided on one side of the stand 3 to accommodate the sliding door 2 when opened, and reference numeral 5 is a sliding door. The pulling door for the sliding door opening / closing operation provided on the door end side of No. 2, reference numeral 6 indicates the floor surface. Since the lower ends of the vertical frames 12, 12 substantially coincide with the floor surface 6, the lower frame is omitted.

The shape and configuration of each fixing member 20 will be described with reference to FIGS. The fixing member 20 has a substantially rectangular parallelepiped main body 21 having a hole 22 extending along the center line X, and convex portions projecting from lower portions of side surfaces 21a and 21c along a pair of long sides of the main body 21. 23 a and 23 b are formed integrally with the main body 21 and symmetrical with respect to the center line X. The outer surfaces 23a1 and 23b1 of the convex portions 23a and 23b are flush with the side surfaces 21b and 21d along the pair of short sides of the main body 21, respectively, and the lower surfaces 23a2 and 23b2 are flush with the bottom surface 21e of the main body 21, respectively. It is. Further, the upper surfaces 23a3 and 23b3 of the convex portions 23a and 23b are inclined surfaces that approach the main body side surfaces 21a and 21c as they go upward, respectively, and have end points in the middle of the main body side surfaces 21a and 21c in a substantially height direction. A female screw 26 is formed in at least a part of the hole 22 of the main body 21 to be screwed with a screw 28 described later (FIG. 4).

Square openings (not shown) are formed above the main body side surfaces 21b and 21d. Synthetic resin engagement pieces 24a and 24b each having a generally triangular cross section are formed in the openings. It is provided in a state of being urged in a direction protruding outward by springs 25a and 25b accommodated in the upper internal space (not indicated). In a state of protruding by the spring bias, the lower surfaces 24a1 and 24b1 of the engagement pieces 24a and 24b are substantially orthogonal to the main body side surfaces 21b and 21d. Further, the side surfaces 24a2 and 24b2 are inclined surfaces whose protrusions become smaller toward the upper side.

Referring to FIG. 3, the long side width dimension (the dimension between the side surfaces 21b and 21d) of the main body 21 of the fixing member 20 is such that the engagement pieces 24a and 24b resist the urging force of the springs 25a and 25b. The length of the main body 21 in a state in which the engagement pieces 24a and 24b protrude outward by the bias of the springs 25a and 25b. The side width dimension is A2, the short side width dimension of the main body 21 including the convex parts 23a and 23b (the dimension between the projecting surfaces 23a4 and 23b4 of the convex parts 23a and 23b) is A3, and the diagonal length of the main body 21 is A4. To do. In this embodiment, A1 = about 24 mm, A2 = about 30 mm, A3 = about 24 mm, and A4 = about 24 mm. Although not shown, the diagonal length A4 is rounded at the lower half of the main body 21 so as to be slightly shorter than the groove width Wa of the front groove 32 of the pillar 30 described later. Throughout the drawings, for the convenience of illustration, the fixing member 20 does not necessarily reflect the above dimensions faithfully, but is slightly deformed.

The fixing member 20 is disposed on the back surface (outer surface) side of the vertical frame 12 via a metal leaf spring 27 having a corrugated cross-sectional shape, and the thickness of the vertical frame 12 is increased from the front surface (inner surface) side of the vertical frame 12. Are attached to the vertical frame 12 with screws 28 which are sequentially passed through the holes 13 penetrating in the direction and the holes (not shown) of the leaf springs 27 and screwed into the female screws 26 of the holes 22 of the fixing member main body 21. (Fig. 6 (a) etc.). The fixing member 20 is attached to the center of the back surface of the vertical frame 12 in the width direction, and an arbitrary number is provided in the height direction. Although two fixing members 20 are used for one vertical frame 12 in FIG. 1, the number of the fixing members 20 used is arbitrary, and a larger number of fixing members 20 may be used. A door stop (not shown) that seals the gap between the vertical frame 12 when the sliding door 2 is closed is fitted in the center in the width direction of the surface or inner surface of the vertical frame 12 (upper view in FIG. 6A). Since the pair of concave grooves are formed in the height direction (not shown), even if the screw 28 is screwed from the surface side of the vertical frame 12 between the concave grooves, the screw head is concealed by the door stop, There is no loss of appearance.

In addition, the leaf spring 27 has a convex shape whose center is directed to the fixing member main body rear surface 21e with respect to the rear surface or outer surface of the vertical frame 12 (upper drawing in FIG. 6A), and both sides thereof are convex toward the rear surface of the vertical frame. It is preferable to arrange so as to have a shape.

In this embodiment, the fixing member 20 is attached to and detached from the column (second member) 30 to which the sliding door frame 10 (first member) is fixed as shown in FIG. A concave groove 31 for freely fitting and receiving is formed. The concave groove 31 is composed of a front groove 32 formed so as to extend from the side surface 30a of the column 30 in the vertical direction (column center direction), and a back groove 33 continuously extending in the vertical direction on the back side. Since the groove width Wb of the rear groove 33 is larger than the groove width Wa of the front groove 32, stepped surfaces 34a and 34b are formed between them. The pillar 30 is a wooden pillar generally used in wooden construction, and a concave groove 31 is formed by cutting one side face 30a facing inward into a predetermined shape. Alternatively, from the viewpoint of facilitating renovation and remodeling, the pillar 30 may be formed of an aluminum molded product having a lightness that is small in shape and dimensional change over time and is easy to transport and construct.

The dimensions of the front groove 32 and the rear groove 33 will be described in more detail with reference to FIGS. 3B and 3C. The groove width Wa of the front groove 32 is the width dimension A1 of the main body 21 of the fixing member 20 itself. In addition, the engaging piece 24a is slightly larger than both the overall width dimension A3 of the fixing member 20 including the convex portions 23a and 23b and the diagonal length A4 of the main body 21 of the fixing member 20 and springs 25a and 25b. , 24b is sufficiently smaller than the overall width dimension A2 in a state of protruding outward. The depth dimension Da of the front groove 32 is substantially equal to the distance H1 from the main body bottom surface 21e of the fixing member 20 to the lower surfaces 24a1, 24b1 of the protruding engagement pieces 24a, 24b. In this embodiment, Wa = about 25 mm and Da = H1 = about 14 mm.

On the other hand, the rear groove 33 has a shape and dimensions that allow the engagement pieces 24a and 24b accommodated in the rear groove 33 to be rotated about the center line X in a state of protruding outward by the springs 25a and 25b. Formed to have. In this embodiment, the rear groove 33 is formed to have a cross-sectional square shape, and the opening width Wb is formed larger than the width dimension A1 of the main body 21 itself. In this embodiment, the engagement pieces 24a and 24b are formed. Is larger than the overall width dimension A2 in a state of protruding outward. Further, the depth dimension Db of the depth groove 33 is formed so that the depth (Da + Db) of the entire groove 31 is larger than the total height H <b> 2 of the fixing member 20. In this embodiment, Wb = about 32 mm, Db = about 10 mm, and H2 = about 23 mm.

Next, with reference to FIG. 6, the operation | work at the time of attaching the sliding door frame 10 to the pillar 30 via the fixing member 20 is demonstrated.

FIG. 6A shows a preparation stage of the mounting work. First, as shown in the upper diagram of FIG. 6A, a predetermined number of leaf springs 27 and fixing members 20 are previously attached to predetermined positions with screws 28 on the back surface 12 b of the vertical frame 12 of the sliding door frame 10. The fixing member 20 is such that the engagement pieces 24a and 24b are on the front, the convex portions 23a and 23b are on the leaf spring 27 side, the main body side surfaces 21a and 21c are up and down, and the main body side surfaces 21b and 21d are left and right. It can be attached (sideways). The screw 28 passes through the holes of the vertical frame 12 and the plate spring 27 (both are not indicated), and is screwed into the female screw on the inner surface of the hole 22 of the fixing member main body 21, but is loosened to the extent that the plate spring 27 is not deformed. Leave it in a state.

In this state, the bottom surface 21e of the fixing member main body 21 is not in contact with the leaf spring 27, or is not urged by the leaf spring 27 even if it is in contact with it, so it is screwed from the surface 12a side of the vertical frame 12. When the screw 28 is turned, the fixing member 20 is also rotated. As a result, the fixing member 20 is set to the rotational angle position or orientation (the “second orientation” in the claims) as shown in the lower diagram of FIG. In this orientation, the engagement pieces 24a and 24b project outward (laterally) from the side surfaces 21b and 21d under the urging force of the springs 25a and 25b.

From the state shown in FIG. 6A, the vertical frame 12 is brought close to the pillar 30 and the fixing member 20 is pushed into the concave groove 31 (front groove 32) of the pillar 30. As described above, the groove width Wa of the front groove 32 is substantially the same as or slightly larger than the long-side width dimension A1 of the fixing member main body 21 itself, and the main body 21 in a state where the engagement pieces 24a and 24b protrude. Since it is smaller than the long side width dimension A2, when the fixing member 20 is pushed into the front groove 32, the inclined surfaces 24a2 and 24b2 of the engagement pieces 24a and 24b hit the opening edges of the front groove 32, and the springs 25a and 25b are energized. Against this, the engagement pieces 24a, 24b are substantially buried in the main body 21. Thereby, as shown in FIG.6 (b), the fixing member 20 enters the front groove | channel 32, and advances further.

If it advances as it is, as shown in FIG. 6 (b), the engagement pieces 24 a and 24 b located at the tip pass through the front groove 32 and enter the rear groove 33. As described above, the long side width dimension A2 of the main body 21 with the engagement pieces 24a and 24b protruding is larger than the groove width Wa of the front groove 32 and smaller than the groove width Wb of the rear groove 33. At the moment when the combined pieces 24a and 24b completely pass through the front groove 32, the engaging pieces 24a and 24b protrude outward and are accommodated in the rear groove 33 under the bias of the springs 25a and 25b. Since the lower surfaces 24a1 and 24b1 of the combined pieces 24a and 24b are locked to the stepped surfaces 34a and 34b between the front groove 32 and the rear groove 33, movement in the direction of being pulled out from the column 30 is prevented (FIG. 6 (c)).

From this state, by tightening the loosened screw 28, the screw 28 is completely screwed into the female screw 26 of the fixing member main body 21, and the attaching operation of the vertical frame 12 to the column 30 is completed. The sliding door frame fixing structure shown is obtained. In this state, since the leaf spring 27 is deformed to provide an urging force and is interposed between the vertical frame 12 and the column 30, a fixing structure without backlash is obtained, and from this state, the screw 28 is inadvertent. To prevent loosening. In this attachment work, the fixing member 30 can be fitted into the concave groove 31 with one touch while pressing the vertical frame 12 against the pillar 30, and then the screw 28 only needs to be tightened from the surface side of the vertical frame 12, so that anyone can You can work easily.

As described above, the groove width Wa of the front groove 32 is substantially the same as or slightly larger than the long side width dimension A1 of the fixing member main body 21 itself, and when the fixing member 20 is in this direction. The convex side surfaces 23a2 and 23b2 extending flush with the main body side surfaces 21b and 21d are substantially in contact with the inner surface of the front groove 32 or opposed to each other with a slight gap. Therefore, even if the fixing member 20 is rotated in the direction in which the screw 28 is tightened from the state in which the fixing member 20 is accommodated in the concave groove 31 in the direction (second direction) shown in FIG. Therefore, the fixing member 20 is not rotated and the substantially same direction is maintained. That is, the lower diagram of FIG. 7 is substantially the same as the lower diagram of FIG. In the transition from FIG. 6C to FIG. 7, the screw 28 is tightened while maintaining the orientation (second orientation) of the fixing member 20. A state where the female screw 26 is completely screwed in and the leaf spring 27 is compressed in a substantially flat state is shown.

Next, with reference to FIG. 8 and FIG. 9, the operation | work at the time of removing the vertical frame 12 attached to the pillar 30 in the fixing structure shown in FIG. 7 is demonstrated.

When the screw 28 is loosened from the fixed state of FIG. 7, the orientation of the fixing member 20 is maintained while the urging force of the leaf spring 27 is working (FIG. 8A), but is released from this urging force. Then, the fixing member 20 tends to rotate in the direction in which the screw 28 is loosened (counterclockwise in the lower diagram of FIG. 7). The accompanying means that the fixing member 20 also rotates in the same direction when the screw 28 is rotated. The convex portions 23a and 23b do not act as stoppers for the rotation in this direction, and as described above, the groove width Wa of the front groove 32 is the diagonal length A4 of the fixing member main body 21. Since it is slightly larger, the fixing member 20 is allowed to rotate as the screw 28 is loosened. Therefore, the fixing member 20 goes through the oblique state shown in FIG. 8 (b), and the vertical state shown in FIG. (The “first direction” in the description of the claims). As described above, the groove width Wa of the front groove 32 is substantially the same as or slightly larger than the short side width dimension A3 of the main body 21 including the convex portions 23a and 23b. ), The projecting surfaces 23a4 and 23b4 of the convex portions 23a and 23b of the fixing member 20 are substantially in contact with the inner surface of the front groove 32 or opposed with a slight gap. Therefore, even if the screw 28 is further rotated in the loosening direction, the protruding portions 23a4 and 23b4 act as stoppers, so the fixing member 20 does not rotate, and the orientation shown in the lower diagram of FIG. Orientation).

Therefore, by pulling the vertical frame 12 away from the pillar 30 as it is, the fixing member 20 passes through the front groove 32 (FIG. 9D) and can be pulled out (FIG. 9E). This removal operation can also be easily performed with one touch by pulling out the vertical frame 12 after loosening the screw 28. When the fixing member 20 is in this direction, the engaging pieces 24a and 24b protrude in the vertical direction, so that they do not interfere with the front groove 32 and obstruct the passage of the fixing member 20 through the front groove 32. Must not.

Although an example of the pillar 30 and the concave groove 31 (the front groove or the opening passage 32 and the rear groove or the rear space 33) formed thereon is shown in FIG. 5, it is not limited to this, and the fixing member 20 described above is not limited thereto. As long as the forward / backward movement and the allowance / rejection of rotation can be realized, various embodiments can be adopted. For example, as shown in FIG. 10A, a plate 30A having a shape as shown in FIG. 10A may be formed by bending a plate material such as an aluminum plate. In this case, the opening 30 or the passage 35 formed on one side surface of the column 30A, the large space 36 formed in the back thereof, and the bent front end surfaces 37a and 37b of the opening 35 are respectively the columns 30 of the embodiment shown in FIG. Corresponds to the front groove 32, the rear groove 33, and the stepped surfaces 34a and 34b.

Further, instead of forming the concave grooves 31 and the openings 35 in the pillars 30 and 30A themselves, as shown in FIG. 11, a long rail-shaped member 39 created separately from the pillar or the housing 38 is shown in FIG. 5 is formed in a shape having a concave groove 31 having substantially the same shape as the concave groove 31 (the front groove 32, the rear groove 33, the stepped surfaces 34a, 34b) in the column 30 of the embodiment shown in FIG. An embodiment fixed to one side surface may be adopted. In this case, the sliding door frame 10 is attached to the housing 38 with a gap corresponding to the depth dimension of the rail-shaped member 39.

The present invention is not limited to the illustrated embodiments described in detail above, and can be implemented with various modifications within the scope of the invention described in the claims. For example, in the illustrated embodiment, a pair of engagement pieces 24a and 24b are provided in the fixing member 20 so as to be embedded in the main body 21 via springs 25a and 25b, but the spring is omitted from the main body 21. The engagement pieces 24 a and 24 b protruding outward may be fixed to the main body 21. In this case, as in the illustrated embodiment, the fixing member 20 is inserted into the front groove 32 against the urging force of the springs 25a and 25b while keeping the fixing member 20 in the second direction (FIGS. 6A to 6C). The fixing member 20 is inserted into the front groove 32 in such a direction that the fixed engagement pieces 24a and 24b do not interfere with the front groove 32 (the first direction, FIGS. 9C to 9E). After the engaging pieces 24a and 24b are accommodated in the rear groove 33, the fixing structure shown in FIG. 7 can be obtained in the second direction by rotating the screw 28 about 90 degrees in the tightening direction. In the case of this embodiment, it cannot be attached by one-touch operation as in the illustrated embodiment, but it can be attached by a simple two-step operation in which the screw 28 is turned after being pushed into the front groove 32, so that skill is not required. Referring to FIG. For the removal process can be carried out in the same manner as the illustrated embodiment.

DESCRIPTION OF SYMBOLS 1 Opening part 2 Sliding door 3 Standing 4 Door bag 5 Pulling handle 10 Sliding door frame (1st member)
DESCRIPTION OF SYMBOLS 11 Upper frame 12 Vertical frame 20 Fixing member 21 Main body 21a-21d Side 21e Bottom 22 Hole 23a, 23b Protrusion 23a1, 23b1 Outer side 23a2, 23b2 Lower surface 23a3, 23b3 Upper surface (Inclined surface)
23a4, 23b4 Projection surface 24a, 24b Engagement piece 24a1, 24b1 Lower surface 24a2, 24b2 Side surface (inclined surface)
25a, 25b Spring (biasing means)
26 female screw 27 leaf spring 30 pillar (second member)
31 Groove 32 Front groove (open passage)
33 Back Groove (Back Space)
34a, 34b Stepped surface (locking part)
35 Opening (opening passage)
36 space (back space)
37a, 37b Bending tip surface (locking part)
38 Housing 39 Rail-like member A1 Short side width dimension A2 of the fixing member main body Long side width dimension A3 of the fixing member main body in a state where the engaging piece protrudes outward A3 Short side width dimension A4 of the fixing member main body including the convex portion Diagonal length H1 of the fixing member main body Distance H2 from the bottom surface of the fixing member main body to the bottom surface of the protruding engagement piece Wa Total length Wa of the fixing member Wa groove width (opening width) dimension Wb depth groove (back) Groove width (opening width) dimension Da of space) Depth dimension Db of front groove (opening passage) Depth dimension of depth groove (depth space)

Claims (7)

A fixing member used for connecting and fixing the first member to the second member, the fixing member having a main body and an engagement piece projecting outward from the main body, on the back side of the first member Disposed and rotatable relative to the first member between at least a first orientation and a second orientation that is different from the first orientation, and the second when the securing member is in the first orientation The opening passage formed in the member can be inserted, and when the fixing member is in the second direction, the engagement piece is accommodated in the back space formed continuously in the back of the opening passage of the second member. A fixing member for connecting and fixing two members, wherein the locking piece is locked to a locking portion formed between the opening passage of the second member and the back space. . The fixing member according to claim 1, wherein a female screw is formed in a main body of the fixing member, and a screw passing through a hole penetrating the front and back from the front surface side of the first member can be screwed. The fixing member is provided with an urging means for applying an urging force for projecting the engaging piece of the fixing member outward from the main body and enabling the engaging piece to be buried in the main body against the urging force. The fixing member according to claim 1, wherein the fixing member is characterized. The fixing member according to any one of claims 1 to 3, further comprising a convex portion protruding outward from a surface different from the engagement piece installation surface of the main body. A pair of engaging pieces are provided at the opposing positions so as to protrude outward near the second member side end portions of the opposing pair of side surfaces of the main body having a substantially rectangular parallelepiped shape, and the other opposing sides of the main body The fixing member according to claim 4, wherein the pair of convex portions are provided at diagonal positions so as to protrude outward near the first member side end portions of the pair of side surfaces. The width dimension (A1) of the engaging member installation surface of the fixing member main body is substantially the same as or smaller than the opening width (Wa) of the opening passage of the second member, and the protruding width dimension (A2) of the engaging piece is the opening. The fixing member according to claim 1, wherein the fixing member is larger than a width (Wa). A fixing structure obtained by connecting and fixing the first member to the second member using the fixing member according to claim 1.