JP5206219B2 - Vehicle seat table structure - Google Patents

Description

  The present invention relates to a table structure for a vehicle seat. More specifically, the present invention relates to a table structure for a vehicle seat provided with a holding mechanism capable of holding a movable table provided in the vehicle seat in a specific posture state within a movable region.

  2. Description of the Related Art Conventionally, a vehicular seat is known in which a table for use by a seated person of a rear seat is disposed on a back surface portion of a seat back that is a backrest. Here, the following Patent Document 1 discloses a table structure for a vehicle seat as described above. In this disclosure, the table is hinged to the back portion of the seat back so that it can be rotated up and down, and is stored in a folded state so as to face the back portion of the seat back by its rotational movement. It is possible to move between the housed state and the use state raised.

  The table is slidably linked to a support member hinged to the back portion of the seat back so as to be rotatable. The support member is configured to slide the connection point with the table as the table rotates, and when the table is raised to the posture in use, the table is placed on the back portion of the seat back. On the other hand, it is held in a posture state of a support bar that is supported obliquely.

The support member is folded and held in a posture state along the back portion of the seat back together with the table when the table is folded in the retracted posture. Here, in order to hold the support member in the above-described use state or stored state, the slide part of the support member that slides with respect to the table is elastically hooked to the claw part formed on the table. It is done by being locked.
German Patent Application No. 10342409

  However, in the prior art disclosed above, the claw portion of the table is formed with a certain strong resilience in order to hold the slide portion of the support member in a hooked state. In order to remove the hooked state from the nail part, a strong operation force against the elastic force of the nail part had to be applied, and the operability was poor.

  The present invention has been devised as a solution to the above-described problem, and the problem to be solved by the present invention is to provide a hooking force for maintaining the posture state of the table in the table structure of the vehicle seat. Even in the enhanced configuration, there is to be able to easily perform an operation for maintaining the posture state of the table and releasing the held state.

In order to solve the above problems, the vehicle seat table structure of the present invention takes the following means.
A first invention is a vehicle seat table structure provided with a holding mechanism capable of holding a movable table provided in a vehicle seat in a specific posture within a movable region. The holding mechanism has a connecting member and a claw member. The connecting member is provided by connecting the table and the vehicle seat, and changes the posture state with respect to the table or the vehicle seat in conjunction with the movement of the table. The claw member is elastically hooked to the connecting member by the movement of the connecting member relatively approaching with the movement of the table, and moves in the removal movement direction opposite to the approaching movement direction of the connecting member. It becomes a restricted state and maintains the posture state of the table. The claw member is disposed on a member that moves differently from the connecting member. The connecting member comes into contact with the claw member by the approach movement with respect to the claw member, and is moved while being elastically pushed away in the escape direction perpendicular to the approach movement direction by the guidance by the shape of the contact surface with the claw member, and then restored. In addition, the hook member is brought into a hooked state in which the claw member is turned to the rear side in the removal movement direction, and the movement in the removal movement direction is prevented. Further, an operating member is connected to the connecting member so that the connecting member is elastically moved in a clearance direction perpendicular to the approaching movement direction by a manual operation so that the hooked state with the claw member can be removed.

  According to the first aspect of the present invention, the connecting member moves while being elastically pushed away by the claw member in the escape direction perpendicular to the approaching movement direction by the approaching movement with respect to the claw member, and then the claw member is moved by the restoring movement thereafter. It is in a state of being hooked on the member and kept in a state in which movement in the removal movement direction is prevented. The hooked state of the connecting member by the claw member can be released by elastically moving the connecting member in the escape direction by operating the operating member connected to the connecting member. Therefore, even when the hooking force for maintaining the posture state of the table is enhanced by increasing the rigidity of the claw member, the posture state of the table is changed by the operation structure in which the connecting member can be moved in the escape direction by the operation member. It is possible to easily perform an operation for holding or releasing this holding state.

  Next, according to a second aspect of the present invention, in the first aspect described above, the connecting member is normally moved closer to the claw member by the spring force of the spring member hooked between the table or the vehicle seat. It is elastically held in a position where it comes into contact with the claw member. The movement in which the connecting member is elastically displaced in the escape direction by the guide by the shape of the contact surface with the claw member or the operation by the operation member is performed by a deformation movement that elastically deforms the spring member.

  According to the second aspect of the invention, the movement of the connecting member that is elastically pushed away in the escape direction is performed by the elastic deformation of the spring member. Therefore, the rigidity of the connecting member is increased, and the operating force of the operating member is increased by the connecting member itself. The connecting member can be smoothly moved in the escape direction without being absorbed by the bending deformation. Further, since the rigidity of the connecting member can be increased, the holding of the posture state of the table with respect to the vehicle seat can be stabilized.

  Next, according to a third invention, in the first or second invention described above, the table is hinge-connected to the vehicle seat so as to be rotatable upside down. The connecting member is hinged to be rotatable with respect to the vehicle seat and is linked to the table so as to be slidable. The claw member is disposed on the table, and is configured to receive a relative approaching movement of the connecting member that slides with the table rotating up and down. When the table is folded into the vehicle seat and placed in the stowed state, the connection member is hooked by moving the vicinity of the portion hinged to the vehicle seat by the sliding movement closer to the claw member. The Then, when the table is raised from the vehicle seat and is in a use state, the connecting member is hooked by moving the portion that is linked to the table so as to be slidable by the sliding movement, close to the claw member.

  According to the third aspect of the present invention, the connecting member moves closer to the claw member in the retracted state where the table is folded into the vehicle seat and in the used state raised from the vehicle seat. And is held and held. Accordingly, the posture state of the table can be stably held at the storage state position and the use state position described above.

  Embodiments of the best mode for carrying out the present invention will be described below with reference to the drawings.

  First, the table structure of the vehicle seat according to the first embodiment will be described with reference to FIGS. Here, FIG. 1 shows a schematic configuration of a vehicle seat 1 to which the table structure of the present invention is applied. The vehicle seat 1 includes a seat back 2 that serves as a backrest and a seat cushion 3 that serves as a seating portion, and a plate that is used for a seated person of a rear seat (not shown) on the back surface of the seatback 2. The table 4 is arranged.

  The table 4 is hinged to the back portion of the seat back 2 via the base plate 5 so as to be able to rotate upside down, and the table 4 is folded so as to face the back portion of the seat back 2 by its rotational movement. It is possible to move between a state (indicated phantom line state) and a use state (indicated in the illustrated solid line state) raised from the storage state to a substantially horizontal position. As shown in FIGS. 2 to 4, the front end portion (slide portion 6 </ b> B) of the wire 6 hinged to the base plate 5 is slidably linked to the back surface portion of the table 4. A slide rail 4C is formed. Here, the wire 6 corresponds to the connecting member of the present invention.

  Here, as shown in FIGS. 2 to 3, a part of the wire 6 is bent into a U shape, and the end of the bent side is the back surface of the table 4 described above. It is formed as a slide part 6B that is inserted into a slide rail 4C formed in the part and is slidably linked. Then, each end portion of the wire 6 on the U-shaped groove side is bent to the opposite outer side, and is passed through the respective through holes 5 </ b> C and 5 </ b> C formed in the base plate 5. And is formed as hooks 6C and 6C that are rotatably connected to each other.

  Here, as shown in FIG. 4, the hanging portion 6 </ b> C bent to the left side in the drawing is formed to extend longer than the hanging portion 6 </ b> C bent to the right side in the drawing, and is formed on the base plate 5. A knob 6G serving as a handle is attached to the protruding tip of the guide tube 5F. Here, the knob 6G corresponds to the operating member of the present invention. A compression spring 6F is wound around the left hanging portion 6C. Here, the compression spring 6F corresponds to the spring member of the present invention. One end of the compression spring 6F is applied to an E-ring 6E mounted in a notch groove 6D (see FIG. 2) formed on the outer peripheral surface of the hanging portion 6C, and the other end is connected to the base. It is applied by a locking wall 5D formed on the plate 5.

  As a result, the wire 6 is applied to the locking wall 5E formed on the base plate 5 so that the wire 6 is normally urged to move to the left side in the figure by the spring force of the compression spring 6F. It is held elastically in the position state. As shown in FIG. 5, the wire 6 is pushed and moved in the same direction by an operation in which the knob 6 </ b> G is pushed rightward in the drawing. Then, when the pushing operation of the knob 6G is released, the wire 6 is returned to the initial position described above with reference to FIG. 4 by the urging force of the compression spring 6F again.

  As shown in FIGS. 12 to 14, the wire 6 having the above configuration is rotated upside down around the hanging portions 6 </ b> C and 6 </ b> C, which are connection points with the base plate 5, as the table 4 rotates. The slide portion 6B connected to the slide rail 4C is slid along the shape of the slide rail 4C. Then, the wire 6 is raised to a position where the table 4 is in a use state, so that the wire 4 is held in a support bar posture state that supports the table 4 obliquely with respect to the back surface portion of the seat back 2. (See FIG. 14).

  As described above, the table 4 is held in the use posture through the wire 6, so that small items can be put on the plate surface of the table 4 and used. Here, a cup holder 4A penetrating in a circular shape is formed in the plate portion of the table 4, and the table 4 is held in the use posture as described above, so that the cup holder 4A has the cup 4A. It is also possible to set and use a container such as a paper cup.

  Then, as shown in FIG. 12, the wire 6 is folded into a posture along the back portion of the seat back 2 together with the table 4 when the table 4 is folded into the retracted posture by the rotation of the table 4. Is held in. Here, the holding for keeping the wire 6 in the position where the table 4 is in the use state or the storage state is the nail provided on the back surface of the table 4 with the wire 6 that rotates while sliding with respect to the table 4. It is performed by a structure that is elastically hooked by the member 4G.

  Hereinafter, the assembly structure of the table 4 and the specific structure of the claw member 4G will be described in detail. Here, FIG. 2 shows an exploded perspective view of the assembly structure of the components such as the table 4 and the base plate 5 described above. As shown in the figure, the table 4 is formed by integral molding of resin, and reinforcing ribs 4B having a continuous shape in a lattice shape are formed over a wide area on the back surface thereof. Thereby, the table 4 has a configuration in which the rigidity and strength against bending and twisting as a whole are increased.

  And the slide rail 4C for connecting the slide part 6B of the wire 6 mentioned above so that a slide movement is possible is formed in the center part of the back surface of the table 4. FIG. The slide rail 4C is formed so as to extend in the radial direction in which the table 4 rotates. As shown in FIGS. 12 to 14, the slide rail 4C rotates around the hanging portions 6C and 6C with respect to the base plate 5. The sliding portion 6B of the wire 6 to be moved back and forth in the rotational radius direction along the shape of the slide rail 4C as the table 4 rotates.

  Returning to FIG. 2, in the upper part of the center of the back surface of the table 4 described above, the left and right sides of the wire 6 that are bent into a U shape when the table 4 is rotated to the position of use or storage. A claw member 4G is assembled which can receive the arm portion of the arm and elastically hook it to hold it in a regulated state. As shown in FIG. 12, when the table 4 is folded into the back portion of the seat back 2 to be in the stowed state, the claw member 4G is folded together with the table 4 and moves closer to the wire 6 The arms 6C, 6C, and the arms near the arms are received and engaged.

  Then, as shown in FIG. 14, when the table 4 is lifted from the vehicle seat 1 and put into use, the claw member 4G is lifted together with the table 4 and slides on the wire 6 that moves closer. Both arms near the portion 6B are received and hooked. Here, the claw member 4G is formed by integral molding of resin, and is formed with increased rigidity so that it is difficult to bend and deform so that the wire 6 can be stably held in a hooked state. .

  Specifically, as shown in FIG. 6, the claw member 4G has two left and right claw portions formed in a hook shape. As shown in FIGS. 9 to 11, each claw portion of the claw member 4G is bent into a U shape of the wire 6 by the up-and-down rotation toward the use state or the storage state of the table 4 described above. When the left and right arm portions moved relatively close to each other, the arm portions of the wire 6 are brought into contact with the inclined surfaces Ga and Ga inclined on the head side (see FIG. 9).

  Then, when the approaching movement of the wire 6 further proceeds from this state, as shown in FIG. 10, each claw portion of the claw member 4G is guided by the contact surface shape of the inclined surfaces Ga and Ga. Each arm portion of the wire 6 is moved while being elastically pushed away in the escape direction (right direction in the figure) perpendicular to the approaching movement direction. Here, the movement in which each arm portion of the wire 6 is elastically pushed away to the right side in the drawing is the compression spring 6F that elastically connects and supports the wire 6 to the base plate 5 (FIG. 5). (See) is performed by a deformation movement that compresses and deforms.

  That is, since the wire 6 is elastically supported by the compression spring 6F, even if the wire 6 is pushed away by the inclined surfaces Ga and Ga of the claw member 4G in the direction perpendicular to the approaching movement direction, the elastic deformation of the compression spring 6F is performed. Therefore, it is possible to move along the shape of the claw member 4G with a light force without being deformed by itself. Then, as shown in FIG. 11, the wire 6 moves to a position where the both arm portions get over the inclined surfaces Ga and Ga of the claw member 4G, thereby accompanying the above-described restoring deformation of the compression spring 6F. Then, it enters into the inside of the hook shape of each claw part of the claw member 4G.

  Thereby, the movement of the wire 6 in the removal movement direction opposite to the approach movement direction is inhibited by the hook-shaped inner peripheral surfaces (regulation surfaces Gb, Gb) of the respective claw portions of the claw member 4G. It is held in the state. Here, as described above, each claw portion of the claw member 4G has a configuration with increased rigidity that is difficult to bend and deform as a whole, and each regulation surface Gb, Gb is provided on each arm portion of the wire 6. It is formed so that the surface comes into direct contact with the movement in the extraction movement direction.

  As a result, the wire 6 is held in a state where movement in the removal movement direction is blocked by a strong force by the claw member 4G (see FIG. 4). As a result, the table 4 is stably held in the storage state (see FIG. 12) or the use state (see FIG. 14). And the holding state of the wire 6 by this nail | claw member 4G can be cancelled | released by the operation which pushes the knob 6G with which the wire 6 was mounted | worn to the right side of illustration as FIG. 5 shows.

  Specifically, when the wire 6 is moved to the right side of the drawing by the knob 6G, the left and right arm portions bent in the U shape of the wire 6 are respectively hook shapes of the claw portions of the claw member 4G. The movement operation is performed in a direction to be removed (see FIG. 7). As a result, the hooked state between the left and right arm portions of the wire 6 and the claw member 4G is removed, so that the table 4 can be rotated (see FIG. 8).

  Next, returning to FIG. 2, the base plate 5 will be described. The base plate 5 is formed by integral molding of resin, and reinforcing ribs 5B having a continuous shape in a lattice shape are formed over a wide area on the back surface thereof. Thereby, the base board 5 becomes the structure by which the rigidity and the intensity | strength with respect to the bending and the twist as a whole were raised. Hinge pins 5P, 5P for hinge-connecting the base plate 5 and the table 4 so as to be rotatable are mounted at two locations on the upper edge side of the base plate 5 in the figure.

  As shown in FIG. 3, the hinge pins 5P and 5P are fitted into and engaged with concave hanging portions 4F and 4F formed on the upper edge of the back surface of the table 4, whereby the respective hanging portions 4F and 4F. It is hingedly connected with respect to. Returning to FIG. 2, hooks 5 </ b> C and 5 </ b> C are provided on the back surface of the base plate 5 so that the hooks 6 </ b> C and 6 </ b> C on the distal end side of the wire 6 are hooked and rotatably supported. Is formed.

  As shown in FIG. 2, the base plate 5 has screw holes 5 </ b> A (... Represent a plurality) penetratingly formed at four locations thereof, and the back surface (see FIG. 1) is interposed between the seat plates 7 and 7 and is fastened by screws (not shown) so as to be integrally coupled and fixed. Thereby, as shown in FIGS. 12 to 14, the base plate 5 supports the table 4 in a state where the table 4 can be rotated up and down around the hinge pins 5P and 5P, and the wire 6 holds the hanging portions 6C and 6C. The seat back 2 is assembled to the back portion of the seat back 2 in a state of being supported so as to be rotated up and down.

  Here, referring back to FIG. 2, the above-described wire 6 is formed by covering the left and right arm portions with the resin cover 6A, and these arm portions are provided with large gaps in the respective claw portions of the claw member 4G described above. It is designed to be worn without giving it a touch. As shown in FIG. 14, the above-described wire 6 is lifted up to a position where the table 4 is in use, so that the left and right arm portions in the vicinity of the slide portion 6B approach and move toward the claw member 4G. Then, by being hooked by the claw member 4G and being prevented from coming off, the fall rotation is regulated and held.

  Also, as shown in FIG. 12, the wire 6 is folded up to a position where the table 4 is stored, so that the left and right arm portions in the vicinity of the hanging portions 6C and 6C move toward the claw member 4G. Then, by being hooked by the claw member 4G and being prevented from coming off, the standing rotation is restricted and held. Here, the left and right arm portions in the vicinity of the hanging portions 6C, 6C of the wire 6 are formed in a shape that is obliquely bent with respect to the shape of the other arm portions, and the wire is used when the table 4 is in use. The angle posture (see FIG. 14) in which each arm portion in the vicinity of the slide portion 6B of 6 enters the respective claw portion of the claw member 4G and each of the hook portions 6C and 6C in the vicinity of the wire 6 when the table 4 is in the retracted state. The angle posture (see FIG. 12) in which the arm portion enters each claw portion of the claw member 4G is formed to have the same angle posture.

  As shown in FIGS. 2 to 3, the claw member 4 </ b> G is inclined according to the angle direction of each arm portion of the wire 6 that moves in an oblique angle posture as described above. The arm 6 of the wire 6 is fixedly installed in an inclined state with respect to the back surface portion of the table 4 so that the arm portions of the wire 6 are brought into contact with the surfaces Ga and Ga and the regulation surfaces Gb and Gb.

  Thus, according to the table structure of the vehicle seat of the present embodiment, the wire 6 is elastically pushed away by the claw member 4G in the escape direction perpendicular to the approaching movement direction by the movement of the claw member 4G. However, it moves to the claw member 4G by the subsequent restoration movement and is held in a state in which movement in the removal movement direction is prevented. Then, the hooked state of the wire 6 by the claw member 4G can be released by elastically moving the wire 6 in the direction of releasing the hooked state by operating the knob 6G connected to the wire 6.

  Therefore, even if the hooking force of the wire 6 for increasing the rigidity of the claw member 4G and maintaining the posture state of the table 4 is increased, the table 4 can be moved by the operation structure capable of moving the wire 6 with the knob 6G. Thus, it is possible to easily perform an operation for holding the posture state or releasing the held state.

  Further, since the movement of the wire 6 elastically pushed away in the escape direction is performed by the elastic deformation of the compression spring 6F, the rigidity of the wire 6 is increased, and the operating force of the knob 6G is absorbed by the bending deformation of the wire 6 itself. The wire 6 can be smoothly moved in the direction of escaping. Further, since the rigidity of the wire 6 can be increased, the holding of the posture state of the table 4 with respect to the vehicle seat 1 can be stabilized.

  Subsequently, the table structure of the vehicle seat of the second embodiment will be described with reference to FIGS. 15 to 16. In the present embodiment, the same reference numerals are assigned to portions where the substantial structure and action are the same as the table structure of the vehicle seat shown in the first embodiment, and the description thereof is omitted. This will be explained in detail.

  In this embodiment, as shown in FIG. 15, an operation member for moving and operating the wire 6 (connection member) in a direction to remove it from the hooked state with the claw member 4 </ b> G (escape direction) is connected to the base plate 5. It is comprised by the made slide rod 6H. Here, the wire 6 is elastically connected to the base plate 5 by the compression spring 6F (spring member) and held in the same manner as the wire 6 described above with reference to FIG. 5 of the first embodiment. It has become.

  The above-described slide bar 6H is slidably connected to the base plate 5, and is bent into a U-shape of the wire 6 by an operation of sliding to the illustrated back side indicated by an arrow in FIG. The other arm portion is configured to push the end of the arm against the spring biasing force of the compression spring 6F (see FIG. 16). Thus, the operation member for moving and operating the wire 6 in the escape direction can be configured by a member separate from the wire 6.

  Next, the table structure of the vehicle seat of the third embodiment will be described with reference to FIG. Also in this embodiment, the same reference numerals are given to portions where the substantial structure and action are the same as the table structure of the vehicle seat shown in the first embodiment, the description is omitted, and different portions are omitted. Will be described in detail.

  In the present embodiment, an operating member for moving the wire 6 in a direction to remove the wire 6 from the hooked state with the claw member 4G (escape direction) is a long plate-like push button provided on the base plate 5 so that it can be pressed. 6J. Here, the wire 6 is elastically connected to the base plate 5 by the compression spring 6F (spring member) and held in the same manner as the wire 6 described above with reference to FIG. 5 of the first embodiment. It has become.

  The push button 6J described above is provided on the base plate 5 via the compression spring Jb so as to be capable of being pushed, and an inclined surface Ja formed on the bottom surface of the long plate is inclined by the pushing operation. Then, the arm of one side of the wire 6 is pressed against the U-shaped arm from above, and the arm of the wire 6 is pushed in the escape direction against the spring biasing force of the compression spring 6F. It is the composition to do. As described above, the operation member for moving the wire 6 in the escape direction can also be configured by the push button 6J that is moved and operated in a direction different from the direction of the movement operation.

  As mentioned above, although embodiment of this invention was described using the three Examples, this invention can be implemented with various forms other than the said Example. For example, in the first embodiment, the posture state is maintained by the hooking structure of the wire 6 by the claw member 4G both when the table 4 is in the used state and when it is in the stored state. However, the wire 6 may be held by the claw member 4G only when the table 4 is in one of the posture states. Specifically, for example, when the wire 6 is connected to the table 4 so as to be able to bend and rotate, not slide, and the table 4 is in the retracted state, the claw member 4G takes a bent posture. The wire 6 is hooked and held, but when the table 4 is in a use state, the configuration in which the bent posture of the wire 6 is extended and the table 4 is supported can be cited. .

  Moreover, although the claw member 4G illustrated the structure provided in the back surface part of the table 4, if the claw member 4G is a member which moves differently from the wires 6 such as the base plate 5, it is provided in a place other than the table 4. It may be done. Moreover, although the structure in which the table 4 was provided in the back surface part of the seat back 2 of the vehicle seat 1 so as to be rotated upside down was illustrated, the table 4 may have a movable structure that moves linearly. The structure arrange | positioned at other site | parts for vehicles, such as the cushion 3, may be sufficient.

It is a perspective view showing the schematic structure of the table structure of the vehicle seat of Example 1. FIG. It is a disassembled perspective view of the assembly | attachment structure of a table. It is a perspective view of the assembly | attachment structure of a table. It is a rear view of the assembly | attachment structure of a table. It is the rear view showing the state which moved and operated the wire by operation of the knob from the state of FIG. FIG. 6 is a sectional view taken along line VI-VI in FIG. 4. It is the VII-VII sectional view taken on the line of FIG. It is sectional drawing showing the state which extracted and moved the wire from the state of FIG. It is sectional drawing showing the state in the middle of a wire approaching and moving toward a nail | claw member. It is sectional drawing showing the state which a wire approached and moved away in the escape direction by contact | abutting with a nail | claw member. It is sectional drawing showing the state which the wire hooked with the nail | claw member by approaching movement. It is the side view which represented the accommodation state of the table typically. It is the side view which represented typically the middle state of the expansion | deployment and accommodation movement of a table. It is the side view which represented the use condition of the table typically. 6 is a perspective view illustrating a schematic configuration of a table structure of a vehicle seat according to Embodiment 2. FIG. It is the side view which represented the use condition of the table typically. 6 is a perspective view illustrating a schematic configuration of a table structure of a vehicle seat according to Embodiment 3. FIG.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Vehicle seat 2 Seat back 3 Seat cushion 4 Table 4A Cup holder 4B Reinforcement rib 4C Slide rail 4F Hanging part 4G Claw member Ga Inclined surface Gb Restricting surface 5 Base plate 5P Hinge pin 5A Screw hole 5B Reinforcing rib 5C Hanging hole 5D Locking Wall 5E Locking wall 5F Guide tube 6 Wire (connecting member)
6A Resin cover 6B Slide part 6C Hanging part 6D Notch groove 6E E-ring 6F Compression spring (spring member)
6G knob (operation member)
6H Slide bar (operation member)
6J push button (operation member)
Ja Inclined surface Jb Compression spring 7 Seat plate

Claims (3)

A vehicle seat table structure including a holding mechanism capable of holding a movable table provided in a vehicle seat in a specific posture state in the movable region,
The holding mechanism is
A connecting member provided by connecting the table and the vehicle seat, and changing a posture state with respect to the table or the vehicle seat in conjunction with movement of the table;
The connecting member is elastically hooked to the connecting member by moving relatively closer in conjunction with the movement of the table, and moves in the removal movement direction opposite to the approaching movement direction of the connecting member. A claw member that is in a restricted state and holds the posture state of the table,
The claw member is disposed on a member that moves differently from the connecting member, and the connecting member comes into contact with the claw member by approaching the claw member, and is guided by a contact surface shape with the claw member. It moves while being elastically pushed away in the escape direction perpendicular to the approaching movement direction and then restored, and the claw member is brought into a hooked state where it is turned to the removal movement direction side behind it, and its removal Further, the movement in the moving direction is prevented, and the connecting member is elastically moved in the escape direction perpendicular to the approaching moving direction by manual operation to be hooked with the claw member. A table structure for a vehicle seat, wherein operating members are connected so as to be able to remove the wearing state. The vehicle seat table structure according to claim 1,
The connecting member is always elastically held in a position in contact with the claw member when moving toward the claw member by a spring force of a spring member hooked between the table or the vehicle seat, The movement in which the connecting member is elastically displaced in the escape direction by the guide by the shape of the contact surface with the claw member or the operation by the operation member is performed by a deformation movement that elastically deforms the spring member. A vehicle seat table structure. The vehicle seat table structure according to claim 1 or 2,
The table is hinged to the vehicular seat so as to rotate upside down, and the connecting member is hinged to the vehicular seat so as to be rotatable and linked to the table so as to be slidable. The claw member is disposed on the table and receives a relative approaching motion of the connecting member that slides with the table rotating up and down. When the vehicle seat is folded into the stowed state, the vicinity of the portion hinged to the vehicle seat is moved close to the claw member by the sliding motion, and the table is mounted on the vehicle. When it is raised from the seat for use, it is linked to the table so as to be slidable by the sliding motion. Position table structure of a vehicle seat, characterized in that is adapted to be hooked in proximity move the pawl member.

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