JP5098084B2 - Slide operation device - Google Patents

Description

  The present invention relates to a slide operation device used for a movable louver window or the like.

  In the movable louver window, the slat can be opened and closed by an indoor operation, but it is preferable from the viewpoint of crime prevention that the slat does not open when a force is applied to the outdoor slat. Patent Document 1 describes a conventional movable louver window opening / closing operation device that enables such an operation.

The opening / closing operation device described in Patent Document 1 locks a movable member connected to a slat, an operation member that moves the movable member in the vertical direction, and a spring biased so as to protrude and engage the movable member side. The lock member has a slope that converts the displacement of the operation member in the vertical direction into the displacement of the lock member, and a notch into which the lock member enters when the lock member protrudes. In this device, since the lock member is inserted into the notch, the slat does not open or close even when an external force is applied to the slat outdoors. However, when the operation member is operated indoors, the lock member is notched by the slope. In order to enter and exit, the angle can be adjusted by rotating the slats.
Japanese Patent Laid-Open No. 2002-47868

  However, in the conventional opening / closing operation device described in Patent Document 1, since the opening / closing angle of the slat is stepwise, there is an inconvenience that fine angle adjustment cannot be performed. Further, when the opening / closing angle of the slat is changed, the locking member repeatedly engages with the notch, so that a noise such as a click is generated. For this reason, there is a problem that silent operation cannot be performed.

The present invention is such I der has been made in consideration of the conventional problems, the slats or the like can angle adjustment steplessly, moreover noise generation without quiet operation is possible slide adjustment be performed for An object is to provide an apparatus.

In the slide operation device according to the present invention, the shaft member penetrates and the outer member capable of acting on the external force is connected, and the movable member is movable along the axial direction of the shaft member, and the outer side of the movable member. The shaft member penetrates and can be moved along the axial direction of the shaft member, and has an operation member that moves in contact with the movable member by the move operation, and a lock hole through which the shaft member penetrates. The operating member and the movable member can be brought into contact with each other, and the movable member comes into contact with the shaft member so as to be inclined with respect to the shaft member and lock the movement of the movable member, and the shaft An elastic member that is arranged in a coaxially penetrating state with respect to the member and that urges the locking member to abut against the movable member in a state of being inclined with respect to the shaft member, and an external force acts on the outer member. When the lock member is Ku an abutting slide manipulation device that Soo Wei the locked state of the lock member movable member to the locking member in a direction, the the movable member, an apex the locking member abuts the biasing of the elastic member A contact piece is provided, and a separation distance between both members at a portion where the operation member abuts against the lock member is set smaller than a separation distance between both members at a portion where the operation member abuts against the movable member, The operation member abuts on the lock member by a movement operation in a direction to reduce the distance of the operation member with the lock member, the lock member rotates about the apex as a fulcrum to reduce the inclination of the lock member, and the lock is released . The movable member moves in the operation direction when the operating member comes into contact with the movable member in a state where the lock member is unlocked .

In the present invention, since the lock member is inclined with respect to the shaft member, the lock member is inclined and engaged with the shaft member, so that the movement of the movable member is locked. On the other hand, when an external force is applied to the outer member, the angle cannot be adjusted by an operation from the outer member because the lock member is in a locked state in which the tilted state is maintained. On the other hand, when the operating member is moved, the operating member comes into contact with the locking member to reduce the inclination of the locking member, so that the engagement with the shaft member is released and the angle of the outer member can be adjusted by the operating member.

Te slide manipulation devices odor as described above, the elastic member, it is preferable that the movable member of the locking member urges the site abuts, between the operating member of the site abuts, also, the The shaft member may be provided in the vertical direction, and the shaft member may be provided in the horizontal direction. The outer member is preferably a slat of a movable louver window .

According to the present invention, when the operation member is moved and operated with respect to the locked state in which the lock member is engaged with the shaft member, the operation member comes into contact with the lock member and the lock member is not inclined. For this reason, the engagement of the lock member with the shaft member is released, and the angle adjustment by the operation member becomes possible. In such a structure, the outer member can angle adjustment steplessly, moreover it is possible to perform a quiet operation without noise generation.

  1 to 8 show a slide operation device according to a first embodiment of the present invention. FIG. 1 is a front view of a movable louver window to which the embodiment is applied, FIG. 2 is a side view, and FIG. 4 is a cross-sectional view taken along the line BB in FIG. 3, FIG. 5 is an enlarged cross-sectional view of the main part of FIG. 3, FIG. 6 is a cross-sectional view of the operation, and FIG. FIG. 8 is an enlarged sectional view, and FIG. 8 is a sectional view of the operation following FIG.

  As shown in FIG. 1, the movable louver window has a plurality of slats 1. Each slat 1 is rotatably attached to a slat shaft 3, and the slat shaft 3 is fixed to a frame 2 of the louver window. A link 4 is attached to each slat 1, and the other end of the link 4 is connected to a connecting rod 6 by a connecting pin 5. The connecting rod 6 extends in the vertical direction, and the connecting pins 5 of all the slats 1 are attached. Therefore, all the slats 1 are opened / closed simultaneously by moving the connecting rod 6 in the vertical direction.

  In the above structure, when the connecting rod 6 moves up and down, the slat 1 rotates around the slat shaft 3 in synchronization with the movement of the connecting rod 6. That is, in FIG. 3, when the connecting rod 6 moves upward, the slat 1 rotates and opens in the clockwise direction, and when the connecting rod 6 moves downward, the slat 1 rotates and closes counterclockwise. It becomes a state. In this embodiment, the slat 1 functions as an outer member and is connected to a slider 12 described later via a slat shaft 3, a link 4, a connecting pin 5, and a connecting rod 6 (see FIG. 3).

  As shown in FIGS. 3 and 4, the slide operating device 7 of this embodiment includes a base 9, a shaft 10 as a shaft member, a slider 12 as a movable member, lock plates 13 and 23 as lock members, A spring 14 as an elastic member, an operation lever 15 as an operation member, and a cover 16 are provided. The entire slide operation device 7 is fixed to the frame 2 by a fastener 8 such as a screw (see FIGS. 1 and 2). The slide operation device 7 is located on the indoor X side, and the slat 1 is located on the outdoor Y side (see FIG. 2).

  The base 9 is fixed to the frame 2 of the louver window by a fastener 8. The cover 16 has a vertically long U-shape, and is fixed to the frame 2 by the fastener 8 together with the base 9 while covering the outside of the base 9. A guide recess 9b that guides the vertical movement of the slider 12 and a long hole 9c through which the slider 12 extends to the connection rod 6 side are formed on the surface of the base 9 on the connection rod 6 side.

  The shaft 10 as a shaft member has a predetermined length and extends in the vertical direction. The shaft 10 is fixed to the base 9 in an upright state by having the upper and lower ends penetrate the base 9 and the retaining ring 11 is locked to the penetrating end.

  In the slider 12 as a movable member, the shaft 10 passes through one side (left side), and the slat 1 is connected to the other side (right side). The other side of the slider 12 to which the slat 1 is connected is an arm portion 12 a that extends substantially horizontally toward the slat 1. The arm portion 12a is formed with a horizontally long slot 12c, and one connecting pin 5 penetrates and is connected to the slot 12c. Therefore, when the slider 12 moves in the vertical direction, the connecting rod 6 moves up and down via the one connecting pin 5, so that all the slats 1 open and close.

  One side of the slider 12 is formed in a box shape with the left side (operation lever 15 side) opened, and the lower first contact piece 21 and the upper second contact piece 22 form a pair. Facing each other. The first abutting piece 21 and the second abutting piece 22 have a plane-symmetric shape, and each includes inclined surfaces 21a and 22a inclined outward, and inclined start ends of the inclined surfaces 21a and 22a. The vertices 21b and 22b are formed. The shaft 10 passes through the first contact piece 21 and the second contact piece 22, and the slider 12 can move in the vertical direction, which is the axial direction of the shaft 10, through the shaft 10. . Such movement is guided by the shaft 10 and the guide recess 9 b of the base 9.

  The lock plates 13 and 23 as the lock members are arranged in a pair facing each other vertically, the first lock plate 13 on the lower side and the second lock plate 23 on the upper side. The first abutment piece 21 of the slider 12 abuts on the first lock plate 13, and the second abutment piece 22 abuts on the second lock plate 23. Each of the lock plates 13 and 23 is also formed in a plane-symmetric shape, and each has lock holes 13a and 23a through which the shaft 10 passes. Further, the lock plates 13 and 23 are inclined in the same direction as the inclined surfaces 21a and 22a of the contact pieces 21 and 22, so that the pair of lock plates 13 and 23 are "c" when viewed from the side. It faces in a letter shape (see FIG. 3).

  The lock holes 13a, 23a of the lock plates 13, 23 are slightly larger in diameter than the diameter of the shaft 10, and as will be described later, the edge portions 13b, 13c and 23b, 23c at the upper and lower ends of the lock holes 13a, 23a. (23b, 23c are not shown) bites into the shaft 10 (see FIG. 5), thereby locking the movement of the slider 12.

  The spring 14 as an elastic member is arranged between the pair of lock plates 13 and 23, and by arranging in this way, each lock plate 13 and 23 is placed between the slider 12 and the spring 14. It has an arranged structure. The spring 14 is a compression coil spring, and is held by the shaft 10 when the shaft 10 penetrates. The upper and lower ends of the spring 14 are in contact with the pair of lock plates 13 and 23, and the contact is biased so that the lock plates 13 and 23 come into contact with the apexes 21 b and 22 b of the contact pieces 21 and 22. ing. By such biasing of the spring 14, the lock plates 13 and 23 are inclined in directions in which the tip portions (left end portions) are separated from each other with the vertices 21b and 22b as fulcrums. That is, the first lock plate 13 is inclined to the left and the second lock plate 23 is inclined to the left. By this inclination, the edge portions 13b, 13c and 23b, 23c of the lock holes 13a, 23a of the lock plates 13, 23 can bite into and engage with the shaft 10.

  An operation lever 15 as an operation member is disposed on the opposite side of the slat 1 with the slider 12 interposed therebetween. The operation lever 15 is formed in a box shape having an opening on the slider 12 side (right side), and the lock plates 13 and 23 can enter from the opening portion. The operation lever 15 has an operation part 15e, and the operation part 15e protrudes inward from a long hole 16a formed in the cover 16 in the vertical direction. Therefore, the operation member 15 can be moved in the vertical direction by operating the operation unit 15e.

  On the inner surface of the operation lever 15, lock plate side contact portions 15 a, 15 b facing the respective lock plates 13, 23, slider side contact portions 15 c, 15 d facing the contact pieces 21, 22 of the slider 12, Is formed. When the operating lever 15 is not moved, the lock plate side contact portions 15a and 15b and the slider side contact portions 15c and 15d are separated from the lock plates 13 and 23 and the contact pieces 21 and 22, respectively. Here, the slider side contact portions 15c and 15d are formed to be lower than the lock plate side contact portions 15a and 15b. As a result, as shown in FIG. 5, the lock plate side contact portions 15 a and 15 b and the lock plates 13 and 23 with respect to the separation distance L <b> 2 between the slider side contact portions 15 c and 15 d and the contact pieces 21 and 22. Is smaller (L1 <L2). Therefore, when the operation member 15 moves in the vertical direction, the lock plate side contact portions 15a and 15b first come into contact with the lock plates 13 and 23, and then the slider side contact portions 15c and 15d come into contact pieces. 21 and 22 abut.

  In this embodiment, the spring 14 includes the vertices 21 b and 22 b where the contact pieces 21 and 22 of the slider 12 contact the lock plates 13 and 23, and the lock plate side contact where the operation lever 15 contacts the lock plates 13 and 23. The lock plates 13 and 23 are pressed against the lock plates 13 and 23 between the portions 15a and 15b. That is, the spring 14 abuts on the lock holes 13 a and 23 a in the vicinity of the lock plates 13 and 23 to urge the lock plates 13 and 23. When the spring 14 urges such a position, the inclined positions and locks of the lock plates 13 and 23 for the edge portions 13b, 13c, 23b, and 23c of the lock holes 13a and 23a to bite into the shaft 10 and lock are locked. The release posture in which the inclination of the lock plates 13 and 23 for release is eliminated can be secured, and the lock and the release thereof can be surely performed.

  Next, the operation of this embodiment will be described.

  FIG. 3 shows a state in which the slat 1 is completely closed. In this state, when the slat 1 is placed with a hand to open, a clockwise rotational force around the slat shaft 3 acts on the slat 1 and an upward moving force acts on the connecting rod 6. As shown in FIG. 5, this force acts upward (C direction) on the apex 21 b of the first contact piece 21 in the slider 12 via the connecting pin 5. Accordingly, the counterclockwise rotational force acts on the first lock plate 13 and the first lock plate 13 tilts, so that the edge portions 13b and 13c of the first lock plate 13 bite into the shaft 10 and the first lock plate 13 13 is locked. When the force to the slat 1 is increased, the force that the edge portions 13b and 13c bite into the shaft 10 is increased and the locking force is increased. As a result, the slat 1 cannot be opened from the outside.

  On the other hand, when a force is applied to close the slat 1 while the slat 1 is open, the same behavior as described above acts on the second lock plate 23. That is, since the vertex 22b of the second contact piece 22 in the slider 12 inclines the second lock plate 23, the edge portions 23b and 23c of the second lock plate 23 bite into the shaft 10 and the second lock plate 23 is locked. The As a result, the slat 1 cannot be closed from outside.

  When the slat 1 is opened indoors, the operation lever 15 is moved upward by holding the operation portion 15e of the operation lever 15. As a result, the lock plate side contact portion 15 a of the operation lever 15 having the separation distance L <b> 1 contacts the first lock plate 13.

  6 and 7 show a state in which the operation lever 15 is further moved upward thereafter. Since the operation lever 15 is guided by the base 9 and the cover 16, it can be smoothly moved. When the operation lever 15 is moved upward to the state shown in FIGS. 6 and 7, the first lock plate 13 is pushed upward by the lock plate side contact portion 15 a of the operation lever 15. Therefore, the first lock plate 13 rotates in the clockwise direction with the vertex 21b of the first contact piece 21 in the slider 12 as a fulcrum. By rotating in this direction, the inclination of the first lock plate 13 is reduced, and the bites of the edge portions 13b and 13c of the lock hole 13a into the shaft 10 are released. Such bite release is performed when there is a gap L3 between the slider-side contact portion 15c and the first contact piece 21, as shown in FIG.

  When the operation lever 15 is further moved upward, the gap L3 between the slider-side contact portion 15c of the operation lever 15 and the first contact piece 21 in the slider 12 disappears, and the slider-side contact portion 15c moves the slider 12 upward. Start pushing in the direction.

  FIG. 8 shows this state. In the first lock plate 13 on the lower side, the vertex 21b of the first contact piece 21 contacts the right side of the lock hole 13a, and the slider-side contact portion 15a of the operation lever 15 is locked. Since the spring 14 is in contact with the left side of the hole 13a and the spring 14 is in contact therewith, the first lock plate 13 does not tilt. Therefore, the first lock plate 13 stably maintains the unlocking posture. On the other hand, in the upper second lock plate 23, the vertex 22 b of the second contact piece 22 of the slider 12 is separated from the second lock plate 23. Therefore, the second lock plate 23 loses the fulcrum inclined in the locking direction, and rotates in the counterclockwise direction by the urging force of the spring 14 to enter the unlocked state.

  The operation of the second lock plate 23 described above is achieved by disposing an elastic member such as the spring 14 between the vertex 22b of the slider 12 and the axis of the shaft 10. In this embodiment, the shaft 10 is passed through the spring 14. Thus, by arranging the spring 14 in a coaxially penetrating state with respect to the shaft 10 and urging the axis of the lock hole 23a of the second lock plate 23, a more stable operation can be ensured.

  As described above, since both the lock plates 13 and 23 are in the unlocked state, the operation lever 15 can move smoothly downward. As the operating lever 15 moves upward, the connecting rod 6 on the outdoor side moves downward, so that the slat 1 rotates clockwise about the slat shaft 3. Thereby, the slat 1 can be opened.

  When the slat 1 is closed indoors, the operation lever 15 is moved downward by grasping the operation portion 15e of the operation lever 15. Thereby, the operation | movement mentioned above acts oppositely up and down. That is, the lock of the second lock plate 23 is forcibly released by the lock plate side contact portion 15b of the operation lever 15 and the vertex 22b of the second contact piece 22 of the slider 12, and then the first lock plate 13 is The fulcrum is lost and the lock is released, and the operation lever 15 moves smoothly downward. As the operating lever 15 moves downward, the connecting rod 6 moves upward, so that the slat 1 rotates counterclockwise. Thereby, the slat 1 can be closed.

  In both the opening operation and the closing operation of the slat 1 described above, when the movement operation of the operation lever 15 is stopped, the first lock plate 13 and the second lock plate 23 are supported at the apexes 21b and 22b by the urging force of the spring 14, respectively. And the edge portions 13b, 13c and 23b, 23c of the respective lock holes 13a, 23a bite into the shaft 10 to be locked. Thereby, since rotation of the slat 1 stops at the angle, the opening angle and the closing angle of the slat 1 can be adjusted steplessly. Further, since the operation sound is not generated in the movement operation of the operation lever 15, the angle adjustment of the slat 1 can be operated gently.

  FIG. 9 shows a slide operation device 7A according to the second embodiment of the present invention. In this slide operation device 7A, one lock plate 33 is used, and the second lock plate 23 in the first embodiment is omitted.

  The lock plate 33 corresponds to the first lock plate 13 of the first embodiment, and has a lock hole 33a through which the shaft 10 passes. The lock hole 33a has a slightly larger diameter than that of the shaft 10. When the lock plate 33 is inclined, the edge portion of the lock hole 33a bites into and engages with the shaft 10, so that the lock hole 33a is locked. Further, the vertex 21 b of the first contact piece 21 in the slider 12 is in contact with the lock plate 33 on the right side of the shaft 10. The lock plate side contact portion 15a of the operation lever 15 faces the left side of the shaft 10 in the lock plate 33 so as to be able to contact. In this embodiment, since there is one lock plate 33, the second contact piece 22 corresponding to the second lock plate 23 is unnecessary and can be omitted.

  In the above structure, when a force in the opening direction (clockwise) is applied to the outdoor slat 1, the slider 12 tends to move upward via the connecting rod 6, so that the apex 21b of the first contact piece 21 is locked. The plate 33 is tilted. Thereby, since the edge part of the lock hole 33a bites into the shaft 10, the slat 1 cannot be opened from the outdoors.

On the other hand, when a force in the closing direction (counterclockwise) is applied to the slat 1, the slider 12 moves downward via the connecting rod 6. For this reason, the vertex 21b which is a fulcrum of the lock plate 33 is separated from the lock plate 33, and the lock plate is not locked. Therefore, the operation of closing the slat 1 can be performed from the outdoors .

  The angle adjustment of the slat 1 indoors is the same as in the first embodiment. When the operation lever 15 is moved upward, the lock plate side contact portion 15a contacts the lock plate 33, and then the vertex 21b is locked. The bite into the shaft 10 is released by coming into contact with the plate 33 and the opening angle of the slat 1 can be adjusted steplessly. When the operation lever 15 is moved downward, the apex 21b is separated from the lock plate 33, so that the lock plate 33 loses its fulcrum, the lock plate 33 is unlocked, and the closing angle of the slat 1 can be adjusted steplessly.

  10 to 14 show a slide operation device 7B according to a third embodiment of the present invention, FIG. 10 is a front view of a movable louver window to which this embodiment is applied, and FIG. 11 is a view from the direction of arrow E in FIG. FIG. 12 is a side view from the direction of arrow F in FIG. 10, FIG. 13 is a sectional view taken along line GG in FIG. 10, and FIG. 14 is a side view from the direction of arrow H in FIG.

As shown in FIG. 10, the slide operation device 7 </ b> B of this embodiment is disposed on the lower frame 2 in the louver window. Further, the shaft 10 as a movable member is disposed so as to extend in the left and right lateral directions.

  As shown in FIG. 13, a slider 12 as a movable member, lock plates 13 and 23 as a lock member, a spring 4 as an elastic member, and an operation lever 15 as an operation member with respect to the shaft 10 arranged laterally. Be placed. The arrangement of these members with respect to the shaft 10 is the same as that of the first embodiment, but is arranged in the lateral direction with respect to the first embodiment. The slider 12 is movable along the length direction of the shaft 10 when the shaft 10 penetrates. The lock plates 13 and 23 are in contact with the contact pieces 21 and 22 of the slider 12 so that a pair of the lock plates 13 and 23 face each other with the shaft 10 passing therethrough. The spring 14 is disposed between the pair of lock plates 13 and 23 and urges the lock holes of the lock plates 13 and 23 to bite into the shaft 10. The operation lever 15 is movable along the length direction of the lateral shaft 10.

  In this embodiment, the left and right connecting rods 6 are arranged as follows. That is, as shown in FIG. 11, the right connecting rod 6 is disposed on the indoor side X, while the slat 1 is positioned on the outdoor side Y via the link 4. As shown in FIG. 12, the left connecting rod 6 is disposed on the outdoor side Y, and the slat 1 is positioned on the indoor side X. Therefore, when the right connecting rod 6 is moved downward, the slat 1 is closed, and when the left connecting rod 6 is moved downward, the slat 1 is opened.

  The ropes 100a and 100b are connected to the left and right connecting rods 6, respectively. That is, as shown in FIGS. 11 and 13, one end of the rope 100a is connected to the right connecting rod 6, and the other end of the rope 100a is connected to the arm portion 12a of the slider 12 via the roller 101a. . The roller 101a is rotatably supported by a support shaft 102a attached to the rising portion 2e of the frame 2.

  As shown in FIGS. 12 and 13, one end of the rope 100b is connected to the left connecting rod 6, and the other end of the rope 100b is connected to the arm portion 12a of the slider 12 via a roller 101b. The roller 101b is rotatably supported by a support shaft 102b attached to the rising portion 2e of the frame 2.

  In FIG. 13, when the operating lever 15 is slid in the right direction, the left rope 100b is pulled in the right direction. As a result, the left connecting rod 6 moves downward and the slat 1 rotates counterclockwise. Accordingly, the slat 1 is opened. At this time, the right connecting rod 6 moves upward by the clockwise rotation of the link 4. Since the right rope 100a is pulled rightward by this upward movement, the rope 100a moves following the movement of the slider 12 without bending.

  When closing the slat 1, the operation lever 15 is moved leftward. By this movement, the right connecting rod 6 is pulled downward, so that the slat 1 is closed (see FIG. 11).

  In this embodiment, the slat 1 can be opened and closed by moving the operation lever 15 in the lateral direction, and the operability is improved.

  15 and 16 show a fourth embodiment of the present invention and correspond to FIG. 14 in the third embodiment. 15 and 16 show the left part, but the right part is the same.

  15 and 16, one end of the rope 105 connected to the slider 12 is wound around the small diameter gear 103, and one end of the rope 106 connected to the connecting rod 16 is wound around the large diameter gear 104. . Other parts are the same as those of the third embodiment.

  In such a structure, the operation force to the operation lever 15 can be adjusted by the relationship between the gear ratios of the gears 103 and 104, and the operation can be performed by adjusting the gear ratio even if the slat 1 is heavy made of glass. There is an advantage that the operating force to the lever 15 can be reduced and the operability is improved.

  The present invention is not limited to the above embodiment, and various modifications can be made. For example, the spring 14 for biasing the lock plate may be formed by overlapping a plurality of disc springs. The present invention can also be applied to devices other than the movable louver window.

It is a front view of the movable louver window to which the first embodiment of the present invention is applied. It is a side view of a movable louver window. It is the sectional view on the AA line in FIG. FIG. 4 is a sectional view taken along line BB in FIG. 3. It is sectional drawing to which the principal part of FIG. 3 was expanded. It is sectional drawing of an action | operation. It is sectional drawing to which the principal part of FIG. 6 was expanded. It is sectional drawing of the operation | movement following FIG. It is sectional drawing of 2nd Embodiment. It is a front view of a movable louver window to which a third embodiment is applied. It is a side view from the E arrow of FIG. It is a side view from F arrow of FIG. It is the GG sectional view taken on the line of FIG. It is the side view from the H arrow of FIG. It is a top view of a 4th embodiment. FIG. 16 is a front view of FIG. 15.

1 Slat (outer member)
7, 7A, 7B Slide operation device 10 Shaft (shaft member)
12 Slider (movable member)
13 First lock plate (lock member)
13a Lock hole 13b, 13c Edge part 14 Spring 15 Operation lever (operation member)
15a, 15b Lock plate side contact portion 15c, 15d Slider side contact portion 21 First contact piece 21b Vertex 22 Second contact piece 22b Vertex 23 Second lock plate (lock member)
23a Lock hole 23b, 23c Edge 33 Lock plate 33a Lock hole

Claims (6)

A movable member that is movable along the axial direction of the shaft member, wherein the shaft member penetrates and an outer member on which an external force can act is connected.
An operation member that can be moved along the axial direction of the shaft member by penetrating the shaft member outside the movable member, and is moved in contact with the movable member by the movement operation;
The shaft member has a lock hole through which the operation member and the movable member can come into contact, and when the movable member comes into contact, the shaft member is inclined with respect to the shaft member and engaged with the shaft member. A locking member for locking the movement of
An elastic member that is arranged in a coaxially penetrating state with respect to the shaft member, and that urges the lock member to abut against the movable member in a state of being inclined with respect to the shaft member;
Wherein when an external force to the outer member acts, the movable member in the direction in which the locking member is tilted is a contact slide manipulation device that Soo Wei the locked state of the locking member to the locking member,
The movable member is provided with a contact piece having an apex with which the lock member is contacted by the biasing of the elastic member,
The separation distance between the two members at the portion where the operation member abuts against the lock member is set smaller than the separation distance between the members at the portion where the operation member abuts against the movable member,
When the operation member moves in a direction to reduce the distance from the lock member, the operation member comes into contact with the lock member, and the lock member rotates about the apex to reduce the tilt of the lock member and release the lock. The slide operating device is characterized in that the movable member moves in the operation direction when the operating member comes into contact with the movable member in a state where the lock member is unlocked .   The slide operation device according to claim 1, wherein the elastic member biases between a portion of the lock member where the movable member abuts and a portion where the operation member abuts. The slide operation device according to claim 1 or 2 , wherein a pair of the lock member is disposed between the elastic member and the movable member in a state where the elastic member is sandwiched. Slide manipulation device of any one of claims 1 to 3, characterized in that the shaft member is provided in the longitudinal direction. The slide operation device according to any one of claims 1 to 4 , wherein the shaft member is provided in a lateral direction. The outer member may slide manipulation device of any one of claims 1 to 5, characterized in that a slat of the movable louver windows.

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