JP2009202797A - Interlocking mechanism of double-hinged lid - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an interlocking mechanism of a double-hinged lid which is decreased in size and weight as compared with a conventional mechanism, and excellent at saving a space. <P>SOLUTION: The interlocking mechanism of the double-hinged lid wherein a pair of lids 2A, 2B is made from a double-hinged structure, and opening/closing a main body 1 side corresponding portion with rotations of each other, is provided with a pair of gears 30 respectively provided at rotating centers of the lids 2A, 2B. Of the gears 30, one gear 30, and a reversing gear 35 meshing with the other gear 30 and changing a rotating direction of the gear are respectively engaged with a bow-shaped gear member 4, thereby interlocking the pair of the lids. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

  The present invention relates to an interlocking mechanism of a double-opening lid in which a pair of lids has a double-opening configuration and opens and closes a main body side corresponding portion with mutual rotation.

The interlock mechanism of the double lids is adopted when a pair of lids has a double door configuration, and enables the rotation switching of each lid from opening to closing and from closing to opening to be synchronized or interlocked. As the first conventional mechanism, there is a configuration in which a pair of gears provided in each lid and the gears are operatively connected by two interlocking gears meshing with each other (see, for example, JP-A-2005-263317). (See FIG. 21). Further, as disclosed in Patent Document 1, the second conventional mechanism includes a rack provided on the main body so as to be movable up and down, and a gear (pinion) provided on each lid and meshing with the rack.
JP 2003-205788 A

  In the first conventional mechanism, since the gears of each lid are operatively connected by two interlocking gears, for example, when the design is such that the distance between the gears of each lid is large as shown in FIG. The interlocking gear becomes large and the layout is easily restricted. Further, in the second conventional mechanism, since the gears of the lids are operatively connected through a rack that is moved up and down, for example, the height of the main body is low or the space in the vertical direction of the main body is restricted as in the present invention. If it is a designed design, it will be constrained or impossible to adopt.

  SUMMARY OF THE INVENTION An object of the present invention is to provide a double-opening lid interlocking mechanism that is smaller and lighter than conventional mechanisms and is excellent in space saving.

  In order to achieve the above object, the invention of claim 1 specifies the form shown in FIGS. 1 to 10, and a pair of lids have a double door structure and open and close the main body side corresponding portion with mutual rotation. A pair of gears provided at the center of rotation of each of the lids, one of the gears, and a reversing gear that meshes with the other gear and changes the rotation direction of the gear. , And the pair of lids are interlocked with each other by meshing them with arcuate gear members.

  Further, the invention of claim 4 specifies the form of FIG. 12, and in the interlock mechanism of the double-opening lid in which a pair of lids have a double door opening structure and opens and closes the main body side corresponding part with mutual rotation, A pair of gears respectively provided at the center of rotation of the lid, and of each of the gears, an upper tooth portion of one gear and a lower tooth portion of the other gear are corresponding tooth portions of a deformable gear member. The pair of lids are interlocked by engaging with each other.

  In each of the above inventions, the main body side corresponding portion is not limited to the main body opening described in the form, and includes, for example, a main body side operation portion that is opened and closed by a lid. The lid may be a door, a cover, or the like as long as it is configured to open and close with respect to the main body side corresponding portion by double door opening. Each of the above inventions is suitable, for example, for a vehicle storage device that is particularly required to be lightweight and compact as mentioned in the embodiments.

  In the first aspect of the invention, since the one gear and the other gear side reversing gear are operatively connected via an arcuate gear member, the arrangement space is reduced as compared with the first conventional mechanism and the second conventional mechanism. Therefore, it is easy to reduce the size and weight, and the degree of design freedom can be expanded.

  In the invention of claim 2, as shown in FIG. 2 and FIG. 3, the outermost gear outer diameter portion of each gear provided at the center of rotation of each lid when both ends of the gear member are fully closed and fully opened. Since they are within the distance between each other, the space in the width direction can be suppressed, and the protrusion of the main body in the width direction can be eliminated.

  In the invention of claim 3, since the gear member is formed to be deformable like rubber or the like, for example, as shown in FIG. 11, the both end portions of the gear member are made smaller by the guide rib guiding action than the arcuate curvature of the intermediate portion. In short, by making the state displaced inward, the length between both ends of the gear member can be suppressed and the protrusion of the main body in the width direction can be eliminated.

  In the invention of claim 4, since the reversing gear is not required as compared with claim 1 and the gear member is formed to be deformable, the length between both ends of the gear member is the same as that of claim 3. It is possible to suppress the protrusion in the width direction of the main body by suppressing the above.

  According to the fifth aspect of the present invention, the moving speed of the gear member is braked by the damper, so that the rotational speed of the lid becomes gradual and a high-class feeling can be imparted.

  Preferred embodiments of the present invention will be described below with reference to the accompanying drawings. 1 to 10 show a form in which the invention of claim 1 is applied to a lid of a storage device, FIG. 11 shows a first modification in which the rotation range of the lid and an arcuate gear member are changed, and FIG. A second modification in which the reversing gear is omitted and the gear member is changed is shown. In the following description, the outline, the interlocking mechanism, its operation, the first modified example, and the second modified example will be described in detail.

(Outline) The storage device disclosed in FIGS. 1 to 10 is used, for example, so as to constitute a part of a center console of an automobile. The main body 1 has an upper opening, and the upper opening has a pair of lids. It is the structure opened and closed by 2A, 2B. The device is characterized in that a pair of lids 2A and 2B has a double door configuration, and is provided at the center of rotation of each of the lids 2A and 2B as an interlock mechanism of a double-opening lid that opens and closes the upper opening of the main body 1 with mutual rotation. A pair of gears 30, 30, and one of the gears 30, and a reversing gear 35 that meshes with the other gear 30 to change the rotation direction of the gear, are formed into an arcuate gear member 4. They are operatively connected by engaging each other. Other device features include a torsion spring 8 as an urging means that operates on the gear member 4 to rotate the lids 2A and 2B from the closed direction to the open direction, and closes the lids 2A and 2B against the urging force. Locking means 5 for locking in a state and a braking damper 9 linked to the gear member 4 are provided. These will be described in detail below.

(Interlocking mechanism) The main body 1 is a substantially flat container that is partitioned by a bottom wall 10, front and rear walls 11, 12, and both side walls 13, 14 as shown in FIGS. Both side walls 13 and 14 have four corner portions 13a and 14a projecting inside the front wall 11 and the rear wall 12, and the upper side of the portion defined by each of the corner portions 13a and 14a is concave. Is formed. Reference numerals 13b and 14b are concave bottom surfaces, and reference numeral 10a is a protruding portion of the bottom wall 10 protruding outside the side walls 13 and 14. An inverted L-shaped wall portion 15 is provided inside the front wall 11. The wall portion 15 has an upper surface that is flush with the side walls 13 and 14 and a vertical surface that is parallel to the front wall 11. For this reason, when the main body 1 is viewed from below, a concave cavity S is provided on the front side of the bottom wall 10. The cavity S communicates with the upper portion of the main body 1 through a small rectangular opening 15 a provided on the upper surface of the wall portion 15. In the cavity S, a pair of support piece portions 18 projecting downward from both sides of the opening 15a and a pair of restricting piece portions 19 projecting outside the support piece portions 18 are provided. Each support piece 18 is provided with a bearing hole 18a as shown in FIG. Each restricting piece portion 19 prevents a mounting shaft portion 58 of a latch member 55 described later, which is pivotally supported by the bearing hole 18a, from coming off.

  In addition, shaft holes 11a and 12a are provided on both sides of the front and rear walls 11 and 12 so as to face each other. The front wall 11 includes two arc-shaped ribs 16 and 17 provided at a predetermined interval as shown in FIG. 6A, and a shaft portion provided between one shaft hole 11a and the outer rib 16. 11b, a spring holding portion 11c provided at the lower side in the middle of the left and right sides, a latching portion 11d provided at a distance from the holding portion 11c, and a damper receiving portion protruding above the holding portion 11c 11e and a mounting hole 11f. Each of the ribs 16 and 17 is provided on a concentric circle and guides the latch 4 disposed between the ribs 16 and 17 slidably. The rib 16 has ribs 16a on both sides that are provided on the same arc line while maintaining a predetermined distance from both ends of the rib. The rib 17 has an escape portion 17a whose intermediate portion is lowered by one step.

  The lids 2A and 2B are symmetrical. FIG. 7 shows the left lid 2A. Each of the lids 2A and 2B includes a flat plate portion 20 having a size covering half of the upper opening of the main body, a cutout portion 21 provided at a front-side front corner of the flat plate portion 20, and a cutout portion on the lower surface of the flat plate portion 20. A piece portion 22 projecting in the vicinity of 21 and an attachment portion 23, 24 provided on the lower surface of the flat plate portion 20 on the front and rear portions are integrally provided. The notch portion 21 is a location for escaping a corresponding portion of the button member 50 described later. The piece portion 22 forms a concave engaging portion 22a. The attachment portions 23 and 24 are formed in a bag shape having openings 23a and 24a on the rear end side in a size that is arranged in the concave shape on the upper side of the main body side corner portions 13a and 14a, and rectangular hole portions 23b provided on the outer surface. 24b and claw portions 25 and 26 projecting obliquely downward on the inner side of the outer surface.

  Each of the lids 2A and 2B has mounting portions 23 and 24 arranged on the upper concave portion of the main body side corner portions 13a and 14a with respect to the main body 1, the front side is pivotally supported by the tooth shaft member 3, and the rear side is a shaft. By being pivotally supported by the member 34, it is attached so as to be switchable by approximately 90 degrees between the closed state of FIG. 2 that closes the upper opening of the main body 1 and the open state of FIG. 3 that opens the upper opening of the main body 1. Here, as shown in FIG. 7C, the tooth shaft member 3 includes a gear 30 having a predetermined diameter, a disk portion 31 slightly larger in diameter than the gear 30 provided on the front end surface of the gear 30, and the rear of the gear 30. The shaft portion 32 protruding from the end surface and the locking groove 32a provided around the tip end side of the shaft portion 32 are integrally provided. Then, when the shaft portion 32 is inserted from the shaft hole 11a of the main body front wall 11 into the hole portion 23b of the mounting portion 23, the tooth shaft member 3 is prevented from coming off by engaging the claw portion 25 with the locking groove 32a. Is done. In contrast, the shaft member 34 includes a large-diameter head and a shaft protruding from the head, and has a locking groove 34a provided around the tip of the shaft. Then, when the shaft portion is inserted from the shaft hole 12a of the rear wall 12 of the main body into the hole portion 24b of the mounting portion 24, the shaft member 34 is prevented from coming off by engaging the claw portion 26 with the locking groove 34a. .

  Next, a reversing gear 35, a gear member 4, a torsion spring 8, and a rotary damper 9 are disposed on the main body front wall 11. Among these, the reversing gear 35 is rotatably assembled to the shaft portion 11b. The gear 35 meshes with the gear 30 of the right tooth shaft member 3 among the left and right tooth shaft members 3 and 3.

  As shown in FIG. 8, the gear member 4 has a circular arc or arch shape as a whole, and forms a continuous tooth portion 40 on the outer periphery of the arch shape. The gear member 4 includes an overhang portion 42 provided at an intermediate portion on the inner peripheral side of the arcuate shape, a continuous tooth portion 43 formed on the inner periphery of the overhang portion 42, and an outer surface of the overhang portion 42. It has a protrusion 44 that protrudes and forms a spring locking portion 45. The tooth portion 40 is formed to mesh with the gear 30 and the reversing gear 35 of the tooth shaft member 3, and the tooth portion 43 is formed to mesh with the rotating gear 9 a of the rotary damper 9. The gear member 4 described above is slidably disposed between the outer rib 16 (and the rib 16a) provided on the main body front wall 11 and the inner side 17. At that time, the tooth portion 40 is engaged with the gear 30 and the reversing gear 35 of the one tooth shaft member 3.

  The damper 9 is made of a known rotary oil damper or the like, and has a rotating gear 9a attached to an output shaft that receives the resistance of hydraulic oil. And the damper 9 is fixed to the receiving part 11e provided in the main body front wall 11, and fixed by the screw etc. which are screwed into the attachment hole 11f. At that time, the rotating gear 9 a is engaged with the tooth portion 43 of the gear member 4. As an assembling procedure, the gear member 4 can be arranged after the damper 9 is attached. Further, the rotary damper 9 may be an air damper as long as it is a rotary type.

  The torsion spring 8 has a winding portion 8a between both ends 8b and 8c as shown in FIG. 1, and the winding portion 8a is supported by a holding portion 11c provided on the front wall 11 of the main body. One end 8b is locked to a locking portion 45 (see FIG. 8) provided around the shaft of the gear member side protrusion 44, and the other end 8c is locked to the latching portion 11d. In this state, the gear member 4 is urged and moved in the clockwise direction via the torsion spring 8, and the lids 2A and 2B are in the open state of FIG.

  In addition, in the opening 15 a and the cavity S of the main body wall portion 15, the lock means 5 that locks the lids 2 </ b> A and 2 </ b> B in a closed state against the biasing force of the torsion spring 8 is assembled. As shown in FIGS. 9 and 10, the lock means 5 includes an operation button member 50 which is removably attached to the opening 15a, a latch member 55 pivotally supported by the bearing hole 18a in the cavity S, and a latch. And a spring member 59 that urges the member 55 in one direction.

  Here, the button member 50 has an internal cavity opened at the lower side, left and right claw piece portions 51 projecting from lower end surfaces on both sides, and a window portion 52 formed on a side surface disposed inside the main body 1. And have. On the other hand, the latch member 55 is provided at a locking portion 56 protruding and retracting from the window portion 52, a contact portion 57 protruding from the lower back side of the locking portion 56, and a part of the contact portion 57. And the left and right attachment shafts 58 projecting to the lower sides of the locking portion 56. The spring member 59 is a torsion spring in which the torsion spring 8 is reduced, that is, a winding portion is formed between both ends.

  For example, when the lower side of the button member 50 is inserted into the main body opening 15a, the claw piece portions 51 are displaced so as to narrow the interval, and the space between the above-described support piece portions 18 (see FIG. 6) is reduced. At the same time as it passes, it is restored to its original shape and is engaged with the lower end of the corresponding support piece 18 and attached in a retaining state. In the latch member 55, for example, as shown in FIG. 10A, the engaging portion 56 is inserted into the button member 50 from below, and the mounting shaft portions 58 on both sides are inserted into the bearing holes 18 a of the corresponding support piece 18. It is fitted in the retaining state. At that time, the spring member 59 is supported by the outer periphery of the one mounting shaft portion 58 and the latch member 55 is assembled, and then one end is locked to the vertical surface side of the wall portion 15. The end is locked in a state where an urging force is exerted on the latching portion 57a on the latch member side.

(Operation) Next, the operation characteristics will be described in detail. First, in the normal state, that is, in a state where the button member 50 is not pressed, the above-described locking means 5 causes the latch member 55 to move the locking portion 56 from the window portion 52 by the biasing force of the spring member 59 as shown in FIG. It is a locking mode rotated in the protruding direction. Further, at the normal time, the lower end corresponding portion of the button member 50 is in contact with or close to the upper surface of the latch member side contact portion 57.

(1) Then, each lid 2A, 2B is a locking mode of the locking means 5 against the urging force of the torsion spring 8 (in other words, while accumulating the urging force in the torsion spring 8). It is turned in the closing direction. Normally, this operation turns one of the lids 2A and 2B. For example, here, the lid 2A is rotated in the closing direction. Then, the other lid 2B rotates in synchronization with the reversing gear 35 meshed with the gear 30 by the rotation of the gear 30 of the lid 2A side tooth shaft member 3, and meshes with the reversing gear 35. The sliding gear member 4 is slid in the rotating direction of the gear, and as a result, the gear 2 of the lid 2B side tooth shaft member 3 meshing with the gear member 4 is interlocked with the lid 2A and closed. Is rotated.

(2) In this process, when the gear member 4 is slid through the reversing gear 35 as shown in FIG. 2, the urging force is accumulated while the torsion spring 8 is displaced so as to be narrowed between both ends. When the lids 2A and 2B approach the fully closed state, the lid side piece portions 22 come into contact with the locking portions 56 protruding from the window portions 52, and the latch members 55 are resisted against the urging force of the spring members 59. It rotates to the direction which reduces the protrusion amount from the part 52, and, thereby, each lid side piece part 22 passes the protrusion front-end | tip of the latching | locking part 56 corresponding. Then, in the locking means 5, the latch member 55 is rotated to the original protruding position by the biasing force of the spring member 59, whereby the locking portion 56 is locked to the engaging portion 22a of each lid side piece portion 22, The lids 2A and 2B are kept closed.

(3) When switching the lid to the open state again, the upper part of the button member 50 is pressed downward as shown in FIG. Then, the locking means 5 receives the downward load of the button member 50 through the contact portion 57 of the latch member 55, thereby resisting the urging force of the spring member 59 and using the left and right attachment shaft portions 58 as fulcrums. It turns to the direction which turns, ie, the latching | locking part 56 is sunk inside the window part 52, and becomes the latching release aspect which releases the restrictions with respect to the said lid side engaging part 22a. When the lock is released, the lids 2A and 2B are slid in the opposite direction by the biasing force accumulated in the torsion spring 8 by the gear member 4, and the sliding of the gear member 4 causes the lid 2A and 2B to slide. On the lid 2A side, the reversing gear 35 and the gear 30 of the tooth shaft member 3 meshing with the gear 35 are connected, and on the lid 2B side, the gear 30 of the corresponding tooth shaft member 3 is interlocked and opened. It will be switched.

(4) In the above interlocking mechanism, each of the lids 2A and 2B has the lock means 5 and the torsion spring 8 as the urging means. If the lock means 5 is unlocked, it is automatically switched to the open state. In addition, the lids 2A and 2B each have a gentle rotation speed of the lid by the rotary damper 9 braking the sliding speed of the gear member 4 through the meshing of the rotating gear 9a and the gear member side teeth 43. Can give a sense of quality. Moreover, in the above interlocking mechanism, the reversing gear 35 meshed with one gear (for example, the gear 30 of the tooth shaft member 30 on the lid 2B side) and the other gear (for example, the gear 30 of the tooth shaft member 30 on the lid 2A side). Are operatively connected via an arcuate or arcuate gear member 4 so that the arrangement space can be reduced as compared with the above-described conventional mechanism, thereby facilitating downsizing and weight reduction and increasing design flexibility. it can. In this case, as shown in the embodiment, both ends of the gear member 4 are located between the outermost gears of the gears 30 and 30 provided at the center of rotation of each lid when the lids 2A and 2B are fully closed and fully opened. By keeping the distance within the distance, the space in the width direction can be suppressed, and the protrusion of the main body 1 in the width direction can be eliminated.

(First Modification) In the modification of FIG. 11, the above-described gear member 4 is used when the lids 2A and 2B are rotated at a wider angle (for example, 120 degrees) in the opening direction as shown in FIG. This is an example in which the problem of protruding from the front wall 11 of the main body 1 is solved. In this description, the same reference numerals are given to the same members and parts that are operatively operated as in the above-described embodiment, and only the changes are described in detail.

  The gear member 4A shown in FIG. 11 differs from the gear member 4 of the above embodiment in that the gear member 4A is formed of a deformable material such as rubber and the entire size is set slightly longer. Further, in the main body 1 shown in FIG. 11, the side walls 13, 14 and the like described above are changed inward so that the lids 2 </ b> A, 2 </ b> B are rotated 90 degrees or more from the closed state to be switched to the open state. The two arc-shaped ribs 16 and 17 provided on the front wall 11 of the main body have smaller curvatures at both end portions 16b and 17b than the middle portion, that is, different from the curvature of the middle portion.

  Therefore, in the above mechanism, when the gear member 4A is slid through the reverse side gear 35 or the lid 2B side gear 30, the both ends of the gear member 4A are deformed while being guided by the rib 16 and the rib 17. It is slid from the rib 16 to the rib 16b or from the rib 17 to 17b. In other words, in this mechanism, for example, the gear member 4A is displaced inward so that both end portions are made smaller by the guide action of the guide ribs than the arcuate curvature of the intermediate portion. It is possible to eliminate the protrusion in the width direction of the main body 1 by suppressing the length between them.

(Second Modification) The modification of FIG. 12 is an example in which the gear member 4B is formed to be deformable in the same manner as the first modification, and the reversing gear 35 described above can be omitted. Also in this description, the same reference numerals are given to the same members and parts that are operatively the same as those in the above embodiment, and only the changed points will be described in detail.

  The main body 1 shown in FIG. 12 is provided on a pair of gears 30 (tooth shaft members 3A corresponding to the tooth shaft members 3) provided at the rotation centers of the lids 2A and 2B with respect to the above-described form. The reversing gear 35 having the above-described configuration is omitted. The main body front wall 11 has two substantially parallel ribs 160 and 170, a rib 161 extending from the lower right side of the rib 160 along the corresponding side edge of the front wall 11, and a left end extension of the rib 160. A rib 162 extending along the corresponding side edge of the front wall 11 on the line and a rib 17 extending in a downwardly curved shape from slightly above the left end extension line of the rib 170 are provided.

  Further, the gear member 4B shown in the figure is made of a deformable material such as rubber, the intermediate portion 48 is formed to the maximum width, and the one end portion 46 is between the rib 170 and the opposite portion of the rib 161. The other end portion 47 is formed to have a slidable width between the rib 160 and the opposite portion of the rib 171. The one end portion 46 is formed with a downward tooth portion that meshes with the upper tooth portion of the lid 2A side gear 30. The other end portion 47 is formed with an upward tooth portion that meshes with the lower tooth portion of the lid 2B side gear 30. The intermediate portion 48 is formed with a tooth portion 49 that meshes with the rotary gear 9 a of the rotary damper 9.

  Therefore, in the above mechanism, when the gear member 4B is slid through the lid 2A side gear 30 or the lid 2B side gear 30, in addition to the guiding action of the rib 160 and the rib 170, the rib 161 and the rib 170 have one end. It is slid with a guiding action for guiding the portion 46 while deforming, or a guiding action for guiding the other end portion 47 with the rib 162 and the rib 171. In other words, this mechanism has a pair of gears 30 and 30 provided at the rotation centers of the lids 2A and 2B, respectively, and of the gears 30 and 30, the upper tooth portion of the lid 2A side gear 30 and the lid By meshing the lower tooth portion of the 2B side gear 30 with the corresponding tooth portion of the deformable gear member 4B, the above reversing gear can be made unnecessary and simplified, and the gear member 4B can be deformed. Since it is formed, the length between both ends of the gear member 4B can be suppressed as in the first modification, and the protrusion of the main body 1 in the width direction can be eliminated.

  Note that the present invention is not limited to the above-described embodiments and modifications, and various details can be changed, and the lid and the main body are not limited to the embodiments.

It is a general | schematic external view which shows the storage apparatus to which this invention is applied. (A) And (b) is the top view and front view which show the said storage apparatus in a lid closed state. (A) And (b) is the top view and front view which show the said storage apparatus in a lid open state. (A) And (b) is a side view which shows the said storage apparatus in a lid closed state and an open state. (A) And (b) is the top view and bottom view which show the main body of the said storage apparatus. The main body is shown, (a) is a front view, (b) is a sectional view taken along line AA in FIG. 5, (c) is a sectional view taken along line BB in FIG. 5, and (d) is a sectional view taken along line CC in FIG. It is line sectional drawing. The lid is shown, (a) is a top view, (b) is a bottom view, (c) is a right side view, and (d) is a front view. The gear member arrange | positioned at the said storage apparatus is shown, (a) is a top view, (b) is a front view. FIG. 5 shows a structural member of the lock means provided in the storage device, wherein (a) is a schematic perspective view of the latch member, and (b) is a schematic perspective view in a state where the button member is reversed upside down. The operation | movement of the said locking means is shown, (a) shows the latching state, (b) has shown the latching release state. It is a front view which shows the 1st modification of the said form in a lid open state. (A) And (b) is a front view which shows the 2nd modification of the said form in a lid closed state and an open state.

Explanation of symbols

1 ... Body (11 and 12 are front and rear walls, 13 and 14 are side walls, 15 is a wall portion, and 15a is an opening portion)
2A, 2B ... Lid (22 is one part, 22a is an engaging part, 23 and 24 are attaching parts)
3. Tooth shaft member (30 is a gear, 32 is a shaft portion, 32a is a locking groove)
4, 4A, 4B ... Gear member (44 is a protrusion)
5. Locking means (50 is a button member, 55 is a latch member, 59 is a spring member)
8 ... Torsion spring (biasing means, 8a is a winding portion, 8b is one end, 8c is the other end)
9 ... Damper for braking (9a is rotating gear)
35: Reversing gear 16, 16a, 16b, 17, 17b ... Rib 160, 170, 161, 162, 171 ... Rib

Claims (5)

  In the interlocking mechanism of the double-opening lid, in which the pair of lids have a double-spread configuration and open and close the main body side corresponding part with mutual rotation, each of the gears has a pair of gears provided at the center of rotation of each of the lids. And a pair of lids interlocked with each other by meshing one gear and a reversing gear meshing with the other gear to change the rotation direction of the gear, respectively. Lid interlocking mechanism.   Both ends of the gear member are within a distance between the outermost gear portions of the gears provided at the center of rotation of the lids when the lid is fully closed and fully opened. The interlock mechanism of the double-open lid according to claim 1.   The interlock mechanism of the double-open lid according to claim 1 or 2, wherein the gear member is formed to be deformable.   In the interlocking mechanism of the double-opening lid, in which the pair of lids have a double-spread configuration and open and close the main body side corresponding part with mutual rotation, each of the gears has a pair of gears provided at the center of rotation of each of the lids. Of the two gears, wherein the pair of lids are interlocked with each other by meshing the upper tooth portion of one gear and the lower tooth portion of the other gear with the corresponding tooth portion of the deformable gear member, respectively. Lid interlocking mechanism.   The interlock mechanism for a double-open lid according to claim 1 or 4, further comprising a braking damper linked to the gear member.

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