JP2015039099A - Slide structure, slide method, and terminal device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To solve the problem that the size of a terminal device is increased and assembling becomes difficult, etc.SOLUTION: A slide structure includes: a first slide part and a second slide part that are slidably arranged to be at mutually overlapped positions in a first state and also to be at mutually horizontal positions in a second state; a first pin to be attached to the first slide part; and a guide plate having a first guide hole to which the first pin is inserted and that guides the slide movement of the first slide part. The first guide hole horizontally guides the first slide part in a state where the first slide part is overlapped with the second slide part, and vertically guides the first slide part in a state where the overlap of the first slide part with the second slide part is canceled.

Description

  The present invention relates to a slide structure, a slide method, and a terminal device.

  Some terminal devices such as a mobile phone, a smartphone, a game machine, a notebook PC, and a PDA (Personal Data Assistants) are provided with two displays (referred to as dual display, multi-display, and the like). There is also an invention for switching between a one-screen mode in which one display is exposed and a two-screen mode (also referred to as a full flat) in which both displays are exposed on the same plane (see Patent Documents 1 to 3). .

JP 2012-15888 A JP2012-18609A JP 2012-29165 A

  The following analysis has been made from the viewpoint of the present invention. Each disclosure of the above prior art document is incorporated herein by reference.

  Since the mode switching in the terminal device requires a complicated configuration, there are problems that the terminal device is large and difficult to assemble. For example, in the inventions disclosed in Patent Documents 1 to 3, the display is slidable in the horizontal direction, but is moved in the vertical direction by rotation of an arm connecting two housings. That is, in the inventions disclosed in Patent Documents 1 to 3, the horizontal movement and the vertical movement are realized by separate mechanisms, and the above-described problems occur.

  As described above, in one aspect of the present invention, a slide structure, a slide method, and a terminal device that can realize switching between the one-screen mode and the two-screen mode with a simple configuration are desired.

  According to a first aspect of the present invention, a first slide part and a second slide part that are slidable so as to be arranged at positions that overlap each other in the first state and are arranged at horizontal positions in the second state; , A first pin attached to the first slide part, and a guide plate provided with a first guide hole through which the first pin is inserted to guide the slide movement of the first slide part, the first guide hole being the first slide When the part and the second slide part overlap each other, the first slide part is guided in the horizontal direction, and when the overlap between the first slide part and the second slide part is eliminated, the first slide part is moved vertically. A slide structure is provided that is guided in a direction.

  According to the second aspect of the present invention, the first slide part and the second slide part that are slidable so as to be disposed at positions that overlap each other in the first state and are disposed at horizontal positions in the second state; The first slide part and the second slide part include a first pin attached to the first slide part, and a guide plate provided with a first guide hole through which the first pin is inserted to guide the slide movement of the first slide part. Guiding the first slide part in the horizontal direction when the two are overlapped, and guiding the first slide part in the vertical direction when the overlap between the first slide part and the second slide part is eliminated, A sliding method is provided.

  According to the third aspect of the present invention, the first slide part and the second slide part that are slidable so as to be arranged at positions that overlap each other in the first state and are arranged at horizontal positions in the second state, , A first pin attached to the first slide part, and a guide plate provided with a first guide hole through which the first pin is inserted to guide the slide movement of the first slide part, the first guide hole being the first slide When the part and the second slide part overlap each other, the first slide part is guided in the horizontal direction, and when the overlap between the first slide part and the second slide part is eliminated, the first slide part is moved vertically. A terminal device characterized by guiding in a direction is provided.

  According to each aspect of the present invention, there are provided a slide structure, a slide method, and a terminal device that improve problems such as a large terminal device and difficulty in assembly.

It is a perspective view of a terminal device. It is a perspective view of a slide structure. It is a front view of a slide structure. It is a three-view figure of the terminal device of the 1st form. It is a three-view figure of the terminal device of the 2nd form. It is a perspective view of a slide structure. It is the expansion | deployment perspective view of the slide structure seen from another angle. It is a six-sided view of a slide part. It is a figure which shows a guide plate. It is the YZ top view of the guide plate which looked at the outside slide surface in the front. It is the YZ top view of the guide plate which looked at the parts side sliding surface in the front. It is a figure for demonstrating the motion of each part. It is a figure which shows an example of the position of an antenna.

  First, the outline of the present invention will be described. In addition, the following outline | summary only shows one form and does not limit the whole this invention. In addition, the attached drawing reference numerals are added for convenience to each element as an example for facilitating understanding, and are not intended to limit the present invention to the illustrated embodiment.

  FIG. 1 is a perspective view of the terminal device. As shown in FIG. 1, the slide structure of the present invention has a one-screen mode in which one display is exposed (first form, FIG. 1A) and a two-screen mode in which both displays are exposed on the same plane (second form). 1B). FIG. 2 is a perspective view of the slide structure. The slide structure according to the present invention includes a first slide part 100, a second slide part 200, a first pin 110, and a guide plate 300, as shown in FIG. In the first mode, as shown in FIG. 2B, the first slide part 100 and the second slide part 200 are arranged at positions where they overlap each other. In the second mode, as shown in FIG. 2C, the first slide part 100 and the second slide part are arranged. The parts 200 are arranged at positions shifted from each other in the horizontal direction.

  Specifically, the first slide part 100 is a part to which a casing having a display (referred to as a display casing) is attached, and has a plate-like structure as shown in FIG. 2A. In the following, the surface facing the guide plate 300 in the first slide part 100 is referred to as the first slide surface 101, and the surface to which the display housing is attached (corresponding to the back surface of the first slide surface 101) is the first installation surface 102. Called. Further, the remaining four surfaces are referred to as a first bottom surface 103, a first top surface 104, a first left side surface 105, and a first right side surface 106, respectively, so as to correspond to the positions when the first slide surface 101 is viewed in front. . In FIG. 2A, the first installation surface 102, the first bottom surface 103, and the first right side surface 106 are not shown.

  The first pin 110 is attached to a corner portion of the first slide surface 101 (particularly, a corner portion where the first bottom surface 103 and the first left side surface 105 are in contact).

  The second slide part 200 is also a part to which the display housing is attached, and has a plate-like structure. Similarly, each surface of the second slide part 200 is also referred to as a second slide surface 201, a second installation surface 202, a second bottom surface 203, a second upper surface 204, a second left side 205, and a second right side 206. In FIG. 2A, the second installation surface 202, the second bottom surface 203, and the second right side surface 206 are not shown.

  The guide plate 300 is a plate that guides the sliding movement of the first slide part 100, and has a plate-like structure that is at least larger than that of the second slide part 200. In the guide plate 300, a surface facing the first slide part 100 and the second slide part 200 is referred to as a part-side slide surface 302, and a surface corresponding to the back surface of the part-side slide surface 302 is referred to as an outer slide surface 301. Further, the remaining four surfaces are referred to as a guide bottom surface 303, a guide top surface 304, a guide left side 305, and a guide right side 306, respectively, so as to correspond to the positions when the outer slide surface 301 is viewed in front. In FIG. 2A, the part-side slide surface 302, the guide bottom surface 303, and the guide right side surface 306 are not shown.

  The guide plate 300 has a first guide hole 310 through which the first pin 110 is inserted. In the illustrated example, the first guide hole 310 penetrates from the outer slide surface 301 to the part-side slide surface 302, and the outer periphery of the second slide part 200 (particularly, the outer periphery of the second upper surface 204 and the second right side surface 206). Is formed so as to draw an inverted L shape along the line.

  A switching operation from the first form to the second form will be described. FIG. 3 is a front view of the slide structure (the first slide surface 101, the second slide surface 201, and the outer slide surface 301 viewed from the front). As shown in FIG. 3, in the second slide part 200 and the guide plate 300, the second slide surface 201 and the part-side slide surface 302 are opposed to each other, and the second upper surface 204 and the second right side surface 206 are the first guide holes 310. It is attached along. The second slide part 200 may be fixed to the guide plate 300 or may be configured integrally with the guide plate 300.

  The first slide part 100 and the guide plate 300 are attached such that the first pin 110 is inserted into the first guide hole 310. That is, the first slide surface 101 faces the part-side slide surface 302, but the first slide part 100 is not fixed to the guide plate 300. Therefore, the first slide part 100 can slide along the first guide hole 310.

  As shown in FIG. 3B (1), in the first mode, the first bottom surface 103 and the second top surface 204 face each other in a state where the first slide part 100 is superimposed on the second slide part 200. Are arranged as follows. At this time, the first bottom surface 103 and the second top surface 204 do not need to be in contact with each other, and the first slide part 100 and the second slide part 200 are linked via the guide plate 300 and the first pin 110. It ’s fine. In FIG. 3B, the first slide part 100 and the second slide part 200 are arranged behind the guide plate 300, and the second slide part 200 that cannot be visually recognized by the guide plate 300 is indicated by a broken line.

  Then, from the first form, the first slide part 100 slides in the horizontal direction (so that the first left side surface 105 and the second right side surface 206 approach each other in the illustrated example), and FIG. 3B (2). It leads to the intermediate form shown. At this time, the first bottom surface 103 and the second top surface 204 are disposed at positions shifted from each other. In other words, the overlap between the first slide part 100 and the second slide part 200 is eliminated.

  Subsequently, the first slide part 100 slides from the intermediate form vertically downward (in the illustrated example, the first upper surface 104 and the second upper surface 204 approach each other), and the first slide part 100 illustrated in FIG. It comes in two forms.

  It should be noted that switching from the second mode to the first mode is also possible by going from FIG. 3B (3) to FIG. 3B (1).

  Thus, according to the present invention, it is possible to switch between the 1-screen mode and the 2-screen mode with a slide mechanism having a simple configuration.

[Embodiment 1]
In the following, a preferred embodiment of the present invention will be described. FIG. 4 is a three-side view of the terminal device according to the first embodiment. FIG. 5 is a three-side view of the terminal device according to the second embodiment. As shown in FIG. 4, in the first form, the display casing 1 is arranged so as to overlap the display casing 2, and as shown in FIG. 5, in the second form, the display casing 1 and the display casing 2 are mutually connected. It is arranged at a position shifted in the horizontal direction. The display housing 1 and the display housing 2 are sandwiched between a pair of slide structures 3 and 4, and the slide structures 3 and 4 have a contrasting structure with respect to the display housings 1 and 2.

  FIG. 6 is a perspective view of the slide structure 3. 6B, the slide structure 3 includes a first slide part 100, a second slide part 200, a first pin 110, a second pin 210, a first cover plate 111, a second cover plate 211, A guide plate 300 and a wire 400 are provided. The 1st slide part 100 and the 2nd slide part 200 have the same composition except being attached to guide plate 300 upside down. FIG. 7 is an exploded perspective view of the slide structure 3 viewed from another angle.

  FIG. 8 is a six-sided view of the slide part (a view of the first slide surface 101 viewed from the front). Each surface of the first slide part 100 (the first slide surface 101, the first installation surface 102, the first bottom surface 103, the first top surface 104, the first left side surface 105, and the first right side surface 106) is as illustrated. Each surface of the second slide part 200 is upside down, and the second slide surface 201, the second installation surface 202, the second bottom surface 203, the second upper surface 204, the second left side surface 205, and the second right side. Surface 206 is as shown.

  The first slide part 100 will be described by taking the first slide part 100 as an example. The first slide part 100 includes a protrusion 121 and a step 122 that protrude from the first slide surface 101. The first slide surface 101 is provided with a pin hole 123 that penetrates from the first slide surface 101 to the first installation surface 102, and the stepped portion 122 is also provided with a joint hole 124 that penetrates the first installation surface 102. Further, a pair of cut portions 125 are provided on the side wall surface of the joint hole 124. In particular, the notch 125 is arranged so as to correspond to a pair of joining claws 126 (see FIG. 7) attached to the first cover plate 111. By engaging with the first cover plate 111, the first cover plate 111 is locked to the first slide part 100. The first pin 110 is inserted into the pin hole 123. A pin hole 127 (see FIG. 7) corresponding to the pin hole 123 is also provided in the first cover plate 111, and the first pin 110 is also fitted into the pin hole 127 so that the first slide part 100 and the first 1 is sandwiched between cover plates 111.

  FIG. 9 is a view showing the guide plate 300. 9A is a six-sided view of the guide plate 300, FIG. 9B is a sectional view taken along line Z1-Z2, FIG. 9C is a sectional view taken along line Y1-Y2, and FIG. 9D is a perspective view. The guide plate 300 is a plate having the same size as the first slide part 100 and the second slide part 200 and has a rectangular parallelepiped structure with a thickness corresponding to the stepped portion 122. The outer slide surface 301, the part-side slide surface 302, the guide bottom surface 303, the guide upper surface 304, the guide left side 305, and the guide right side 306 are as illustrated.

  As shown in FIG. 9, the guide plate 300 is provided with a first guide hole 310 and a second guide hole 311 that penetrate from the outer slide surface 301 to the part-side slide surface 302. The second guide hole 311 is provided point-symmetrically with the first guide hole 310 around the center of the outer slide surface 301. The outer slide surface 301 is provided with a pair of wire grooves 312 and 313 that connect the first guide hole 310 and the second guide hole 311. In addition, the shaded portion in FIG. 9 indicates a portion that is depressed toward the back surface.

  The structure of the guide hole and the like will be described in detail. FIG. 10 is a YZ plan view of the guide plate 300 when the outer slide surface 301 is viewed from the front. In FIG. 10, the center of the outer slide surface 301 is the origin O. The guide bottom surface 303 intersects the Z axis at the point (0, −z1), and the guide upper surface 304 intersects the Z axis at the point (0, z1). The guide left side 305 intersects the Y axis at a point (−y1, 0), and the guide right side 306 intersects the Y axis at a point (y1,0).

  The first guide hole 310 is provided so as to draw a letter “T” on the outer slide surface 301 along the outer periphery of the guide plate 300. Specifically, the first guide hole 310 goes straight along the guide upper surface 304 from the start point (−y2, z2) approaching the guide upper surface 304 and the guide left side 305 by a predetermined distance from the center of the outer slide surface 301. Then, the intermediate point (y3, z2) is reached, and a substantially arc is drawn from the intermediate point, intersects the Y axis at the point (y4, 0), and reaches the end point (y3, -z3).

  The second guide hole 311 is provided point-symmetrically with the first guide hole 310 with the center of the outer slide surface 301 as the center. That is, the second guide hole 311 extends along the guide bottom surface 303 from the start point (y2, −z2) approaching the guide bottom surface 303 and the guide right side surface 306 by a predetermined distance from the center (0, 0) of the outer slide surface 301. Then, go straight to the middle point (-y3, -z2), draw a substantially arc from the middle point, cross the Y axis at the point (-y4, 0), and reach the end point (-y3, z3). In addition, -y1 <-y4 <-y3 <-y2 <0 <y2 <y3 <y4 <y1, and -z1 <-z2 <-z3 <0 <z3 <z2 <z1.

  The wire groove 312 extends from the start point (−y2, z2) of the first guide hole 310 to the end point (−y3, z3) of the second guide hole 311, and the wire groove 313 starts from the start point (y2, z2) of the second guide hole 311. -Z2) to the end point (y3, -z3) of the first guide hole 310. That is, a substantially ellipse is drawn on the outer slide surface 301 by the first guide hole 310, the second guide hole 311, and the wire grooves 312 and 313.

  Returning to FIG. 9, the first guide hole 310 and the second guide hole 311 are formed in the part-side slide surface 302. Further, the part-side slide surface 302 has the same shape as the first guide hole 310 and has the same shape as the first guide groove 314 parallel to the first guide hole 310 and the second guide hole 311 and the second guide hole 310. A second guide groove 315 parallel to the guide hole 311 is provided.

  The structure of the guide groove and the like will be described in detail. FIG. 11 is a YZ plan view of the guide plate 300 when the parts-side slide surface 302 is viewed from the front. In FIG. 11, the positive and negative signs of the Y axis are shown inverted so as to correspond to the coordinates shown in FIG. 10. In FIG. 11, the center of the part-side slide surface 302 is the origin O. The guide bottom surface 303 intersects the Z axis at the point (0, −z1), and the guide upper surface 304 intersects the Z axis at the point (0, z1). The guide left side 305 intersects the Y axis at a point (−y1, 0), and the guide right side 306 intersects the Y axis at a point (y1,0).

  On the part-side slide surface 302, the first guide hole 310 draws a reverse “tsu” character, reaches the end point (y3, −z3) from the start point (−y2, z2), and the second guide hole 311 starts at the start point. From (y2, -z2) to the end point (-y3, z3).

  The first guide groove 314 has the same shape as the first guide hole 310 and is parallel to the first guide hole 310. That is, the center of the first guide groove 314 is the start point (−y2 ′, z2 ′) approaching the guide bottom surface 303 and the guide left side surface 305 by a predetermined distance from the start point (−y2, z2) of the first guide hole 310. ) Straight along the guide upper surface 304 to the intermediate point (y3 ′, z2 ′), and draws a substantially arc from the intermediate point and intersects the Y axis at the point (y4 ′, 0), and the end point (y3 ', -Z3').

  The second guide groove 315 is provided point-symmetrically with the first guide groove 314 around the center of the part-side slide surface 302. That is, the second guide groove 315 travels straight from the start point (y2 ′, −z2 ′) along the guide bottom surface 303 to the intermediate point (−y3 ′, −z2 ′), and then substantially arcs from the intermediate point. Is drawn, intersects the Y axis at the point (−y4 ′, 0), and reaches the end point (−y3 ′, z3 ′).

  Returning to FIG. 6, the wire 400 entrains the first pin 110 and the second pin 210. Specifically, the wire 400 is arranged so that the first guide hole 310, the second guide hole 311 and the wire groove 312 (or the wire groove 313) are movable, and the first pin 110 and the second pin 210 are entrained. .

  Hereinafter, a switching operation from the first form to the second form will be described. FIG. 12 is a diagram for explaining the movement of each part. 12 (1) to 12 (4) are views of the outer slide surface 301 as viewed from the front, and the first slide part 100 and the second slide part 200 are disposed behind the guide plate 300. FIG. 12 (1 ′) to 12 (4 ′) are diagrams in which the part-side slide surface 302 is viewed from the front, and the guide plate 300 is disposed behind the first slide part 100 and the second slide part 200. FIG. . The first pin 110 and the second pin 210 are marked with a crosshair. 12 (1 ′) to 12 (4 ′), the structure of the guide plate 300 that cannot be seen by the first slide part 100 and the second slide part 200, the first pin 110, the second pin 210, the protrusion 121, and A protrusion 221 is also shown.

  In the first mode, as shown in FIG. 12A, the first pin 110 is located at the start point (−y2, z2) of the first guide hole 310, and the second pin 210 is the start of the second guide hole 311. Located at the point (y2, -z2). Then, the wire 400 reaches the second guide hole 311 from the first guide hole 310 via the wire groove 312 and entrains the first pin 110 and the second pin 210. Further, as shown in FIG. 12 (1 ′), the protrusion 121 of the first slide part 100 fits into the start point (−y2 ′, z2 ′) of the first guide groove 314, and the protrusion of the second slide part 200. The portion 221 fits at the start point (y2 ′, −z2 ′) of the second guide groove 315. At this time, the step 122 of the first slide part 100 is positioned vertically above the guide upper surface 304, and the step 222 of the second slide part 200 is positioned vertically downward of the guide bottom surface 303.

  From the first form, the first slide part 100 slides in the horizontal direction (in the illustrated example, the first left side surface 105 and the second right side surface 206 approach each other), and the first pin 110 is moved to the first guide hole. The intermediate point (y3, z2) of 310 is reached (see FIG. 12 (2)). At this time, the protrusion 121 also reaches the intermediate point (y3 ′, z2 ′) along the first guide groove 314 (see FIG. 12 (2 ′)). Rotation about the first pin 110 is prevented.

  The substantially arc portion of the second guide hole 311 serves as a fixed pulley, and the wire 400 pulls the second pin 210 to the middle point (−y3, −z2) of the second guide hole 311. In other words, since the wire 400 interlocks the first pin 110 and the second pin 210 with point symmetry about the center of the outer slide surface 301, the second slide part 200 can be slid by simply sliding the first slide part 100. To do.

  In the intermediate form shown in FIGS. 12 (2) and (2 ′), the overlap between the first slide part 100 and the second slide part 200 is eliminated, and the stepped portion 122 and the guide upper surface 304 are shifted in the horizontal direction. Accordingly, the stepped portion 222 and the guide bottom surface 303 are also shifted in the horizontal direction.

  From the intermediate form, the first slide part 100 and the second slide part 200 are guided in the vertical direction. Specifically, the first slide part 100 slides in the vertically downward direction in addition to the slide movement in the horizontal direction from the intermediate form. That is, the first pin 110 moves so as to intersect the Y axis at the point (y4, 0) while drawing a substantially arc from the intermediate point (y3, z2) (see FIGS. 12 (3) and (3 ′)). . Then, from the intersection (y4, 0), it slides in the horizontal reverse direction and the vertical downward direction to reach the end point (y3, -z3) (see FIGS. 12 (4) and (4 ')). The protrusion 121 also moves along the first guide groove 314, crosses the Y axis at the point (y4 ′, 0), and reaches the end point (y3 ′, −z3 ′).

  Further, the second slide part 200 is interlocked with the first slide part 100 by the wire 400. That is, the second pin 210 slides so as to draw a substantially arc from the intermediate point (−y3, −z2) and intersect the Y axis at the point (−y4, 0) (FIGS. 12 (3) and (3)). reference). Then, from the intersection (−y4, 0), it slides in the horizontal reverse direction and the vertical upward direction to reach the end point (−y3, z3) (see FIGS. 12 (4) and (4 ′)). The protrusion 221 also moves along the second guide groove 315, crosses the Y axis at the point (−y4 ′, 0), and reaches the end point (−y3 ′, z3 ′).

  In addition, if it goes from FIG. 12 (4) to FIG. 12 (1), switching from the 2nd form to the 1st form is also possible.

  In the second mode, as shown in FIGS. 12 (4) and (4 ′), it is desirable that the first upper surface 104 and the second upper surface 204 are arranged on the same plane. Specifically, it is desirable that the formula “z1 = z2 + z3” holds. In this way, the display of the display housing 1 and the display of the display housing 2 are arranged on the same plane, and a so-called full flat state is realized.

  Further, it is desirable that the first left side surface 105 and the second right side surface 206 abut or face each other without a gap. Specifically, it is desirable that the formula “y1 = y2 + y3” holds.

  Note that communication parts such as the antenna 5 can be attached to the display housing 1 or 2, or can be attached to the slide structure 3 or 4 as shown in FIG. 13. FIG. 13 is a diagram illustrating an example of the position of the antenna 5.

  A part or all of the above embodiments can be described as in the following supplementary notes, but is not limited thereto.

(Appendix 1)
A first slide part and a second slide part that are slidable so as to be arranged in positions overlapping each other in the first state and arranged in horizontal positions in the second state;
A first pin attached to the first slide part;
A guide plate provided with a first guide hole through which the first pin is inserted to guide the slide movement of the first slide part;
The first guide hole guides the first slide part in a horizontal direction when the first slide part and the second slide part overlap with each other, and the first slide part and the second slide part Guiding the first slide part in the vertical direction when the overlap is eliminated,
A slide structure characterized by

(Appendix 2)
A second pin attached to the second slide part;
The guide plate further includes a second guide hole through which the second pin is inserted to guide the slide movement of the second slide part,
The second guide hole guides the second slide part in a horizontal direction opposite to the first slide part when the first slide part and the second slide part overlap each other, and Guiding the second slide part in the vertical direction opposite to the first slide part when the overlap between the slide part and the second slide part is eliminated;
The slide structure according to appendix 1, characterized by:

(Appendix 3)
The slide structure according to appendix 2, wherein the second guide hole guides the second slide part so as to be positioned point-symmetrically with the first slide part with the center of the guide plate as a center.

(Appendix 4)
A wire for entraining the first pin and the second pin;
The guide plate has a wire groove that communicates the first guide hole and the second guide hole;
The slide structure according to appendix 3, wherein the wire interlocks the movement of the first slide part and the movement of the second slide part.

(Appendix 5)
A first slide part and a second slide part that are slidable so as to be arranged in positions overlapping each other in the first state and arranged in horizontal positions in the second state;
A first pin attached to the first slide part;
A guide plate provided with a first guide hole through which the first pin is inserted to guide the sliding movement of the first slide part;
When the first slide part and the second slide part overlap each other, the first slide part is guided in the horizontal direction, and the overlap between the first slide part and the second slide part is eliminated. Sometimes guiding the first slide part in the vertical direction;
A slide method characterized by.

(Appendix 6)
A first slide part and a second slide part that are slidable so as to be arranged in positions overlapping each other in the first state and arranged in horizontal positions in the second state;
A first pin attached to the first slide part;
A guide plate provided with a first guide hole through which the first pin is inserted to guide the slide movement of the first slide part;
The first guide hole guides the first slide part in a horizontal direction when the first slide part and the second slide part overlap with each other, and the first slide part and the second slide part Guiding the first slide part in the vertical direction when the overlap is eliminated,
A terminal device characterized by the above.

(Appendix 7)
A first slide part and a second slide part that are slidable so as to be arranged in positions overlapping each other in the first state and arranged in horizontal positions in the second state;
A first pin attached to the first slide part;
A guide plate provided with a first guide hole through which the first pin is inserted;
The first guide hole has an L shape or an inverted L shape along an outer periphery of the second slide part;
A slide structure characterized by

(Appendix 8)
A first slide part and a second slide part that are slidable so as to be arranged in positions overlapping each other in the first state and arranged in horizontal positions in the second state;
A first pin attached to the first slide part;
A second pin attached to the second slide part;
A guide plate provided with a first guide hole through which the first pin is inserted and a second guide hole through which the second pin is inserted;
The first guide hole draws a letter “T” or an inverted letter “T” along the outer periphery of the guide plate on the side surface facing the first slide part (that is, the part-side slide surface 302),
The second guide hole is provided point-symmetrically with the first guide hole about the center of the opposite side surface;
A slide structure characterized by

(Appendix 9)
A wire for entraining the first pin and the second pin;
The guide plate is further provided with a pair of wire grooves communicating the first guide hole and the second guide hole so as to draw a substantially ellipse on the opposite side surface,
The slide structure according to appendix 8, characterized by:

(Appendix 10)
The guide plate has the same shape as the first guide hole and a first guide groove parallel to the first guide hole, and the same shape as the second guide hole and parallel to the second guide hole. 2 further having a guide groove,
The first slide part has a protrusion corresponding to the first guide groove,
The second slide part has a protrusion corresponding to the second guide groove;
The slide structure according to appendix 8 or 9, characterized by:

  It should be noted that the disclosure of each of the above patent documents is incorporated herein by reference. Within the scope of the entire disclosure (including claims) of the present invention, the embodiments and examples can be changed and adjusted based on the basic technical concept.

  For example, the first pin 110 may not penetrate the first guide hole 310. That is, the first guide hole 310 only has to guide the sliding movement of the first slide part 100, and has the same groove-like structure as the wire grooves 312 and 313, or the first guide groove 314 and the second guide groove 315. May be.

  Further, the first guide hole 310 may be provided with a structure for holding in the first form and the second form and a structure for smooth sliding movement. For example, if the first slide part 100 is allowed to slide in the horizontal direction after moving vertically upward from the starting point of the first guide hole 310, the horizontal movement of the first slide part 100 is prevented at the starting point. In addition, contact between the first bottom surface 103 and the second top surface 204 during sliding movement can be prevented.

  Further, instead of the wire 400, the first pin 110 and the second pin 210 may be interlocked with a so-called rack and pinion structure.

  Various combinations or selections of various disclosed elements (including each element of each claim, each element of each embodiment or example, each element of each drawing, etc.) within the scope of the claims of the present invention. Is possible. That is, the present invention of course includes various variations and modifications that could be made by those skilled in the art according to the entire disclosure including the claims and the technical idea.

1: display housing 2: display housing 3: slide structure 4: slide structure 5: antenna 100: first slide part 101: first slide surface 102: first installation surface 103: first bottom surface 104: first top surface 105 : 1st left side surface 106: 1st right side surface 110: 1st pin 111: 1st cover plate 121: Projection part 122: Step part 123: Pin hole 124: Joining hole 125: Cut part 126: Joining claw 127: Pin Hole 200: Second slide part 201: Second slide surface 202: Second installation surface 203: Second bottom surface 204: Second upper surface 205: Second left side 206: Second right side 210: Second pin 211: Second Cover plate 221: Protruding portion 222: Stepped portion 300: Guide plate 301: Outer slide surface 302: Parts side slide surface 303: Guide bottom surface 304: Guide upper surface 305: Guide left side 306: Guide right side 310: First guide hole 311: Second guide hole 312: Wire groove 313: Wire groove 314: First guide groove 315: Second guide groove 400: Wire

Claims (6)

A first slide part and a second slide part that are slidable so as to be arranged in positions overlapping each other in the first state and arranged in horizontal positions in the second state;
A first pin attached to the first slide part;
A guide plate provided with a first guide hole through which the first pin is inserted to guide the slide movement of the first slide part;
The first guide hole guides the first slide part in a horizontal direction when the first slide part and the second slide part overlap with each other, and the first slide part and the second slide part Guiding the first slide part in the vertical direction when the overlap is eliminated,
A slide structure characterized by A second pin attached to the second slide part;
The guide plate further includes a second guide hole through which the second pin is inserted to guide the slide movement of the second slide part,
The second guide hole guides the second slide part in a horizontal direction opposite to the first slide part when the first slide part and the second slide part overlap each other, and Guiding the second slide part in the vertical direction opposite to the first slide part when the overlap between the slide part and the second slide part is eliminated;
The slide structure according to claim 1.   The slide structure according to claim 2, wherein the second guide hole guides the second slide part so as to be positioned point-symmetrically with the first slide part with a center of the guide plate as a center. A wire for entraining the first pin and the second pin;
The guide plate has a wire groove that communicates the first guide hole and the second guide hole;
4. The slide structure according to claim 3, wherein the wire interlocks the movement of the first slide part and the movement of the second slide part. A first slide part and a second slide part that are slidable so as to be arranged in positions overlapping each other in the first state and arranged in horizontal positions in the second state;
A first pin attached to the first slide part;
A guide plate provided with a first guide hole through which the first pin is inserted to guide the sliding movement of the first slide part;
When the first slide part and the second slide part overlap each other, the first slide part is guided in the horizontal direction, and the overlap between the first slide part and the second slide part is eliminated. Sometimes guiding the first slide part in the vertical direction;
A slide method characterized by. A first slide part and a second slide part that are slidable so as to be arranged in positions overlapping each other in the first state and arranged in horizontal positions in the second state;
A first pin attached to the first slide part;
A guide plate provided with a first guide hole through which the first pin is inserted to guide the slide movement of the first slide part;
The first guide hole guides the first slide part in a horizontal direction when the first slide part and the second slide part overlap with each other, and the first slide part and the second slide part Guiding the first slide part in the vertical direction when the overlap is eliminated,
A terminal device characterized by the above.

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