JP6584973B2 - Planar antenna device - Google Patents

Description

  Embodiments described herein relate generally to a planar antenna device.

  Communication systems that communicate via communication satellites are less susceptible to disasters such as earthquakes. For this reason, since this communication system can be used also at the time of a disaster, various examination is performed. An example of this type of communication system is a VSAT (Very Small Aperture Terminal) system.

In the VSAT system, a planar antenna device that performs communication control with a communication satellite includes, for example, a support unit placed on an installation surface, first to third movable units that can rotate relative to each other, and an antenna unit supported by the third movable unit. And have. The antenna unit can be adjusted in posture by rotating the first to third movable units. The first movable part and the third movable part are electrically connected by a connection cable (connection wiring). The wiring form of the connection cable changes depending on the attitude of the antenna unit.
In the planar antenna device, it is desired to reduce the stress applied to the connection cable in order to prevent deterioration in communication quality.

JP 2008-277984 A

  The problem to be solved by the present invention is to provide a planar antenna device capable of reducing the stress applied to the connection wiring regardless of the attitude of the antenna section.

  The planar antenna device according to the embodiment includes a support portion, a first movable portion, a second movable portion, a third movable portion, an antenna portion, and a connection cable. The first movable part is supported so as to be rotatable around a first axis with respect to the support part. The second movable part is supported so as to be rotatable around a second axis extending along the main surface of the first movable part with respect to the first movable part. The third movable part is rotatably supported around a third axis extending along the thickness direction of the second movable part with respect to the second movable part, and has a passage recess on the outer surface. The antenna part is supported by the third movable part. The connection wiring electrically connects the first movable part and the third movable part. The connection wiring has a third movable position in which the separation distance between the connection point with respect to the third movable portion and the first movable portion is larger than the separation distance between the third axis and the first movable portion. When the part takes, the wiring shape projected on the surface perpendicular to the third axis is an S-shape. At least a part of the connection wiring can pass through the inside of the passage recess.

The perspective view which looked at the planar antenna device of one embodiment from the back side. The perspective view which looked at the planar antenna apparatus of one Embodiment from the front side in the state which removed members, such as an antenna part. The perspective view which looked at the planar antenna apparatus of one Embodiment from the front side in the state which removed members, such as an antenna part. The top view which shows the 3rd movable part of the planar antenna apparatus of one Embodiment. The side view which shows the 3rd movable part of the planar antenna apparatus of one Embodiment. The top view of the 1st connection part of the planar antenna apparatus of one Embodiment. Sectional drawing of the connection cable of the planar antenna apparatus of one Embodiment. The perspective view of the state which folded the planar antenna apparatus of one Embodiment. The figure of the state which installed the planar antenna apparatus of one Embodiment.

  Hereinafter, a planar antenna device according to an embodiment will be described with reference to the drawings.

FIG. 1 is a perspective view of the planar antenna device of the present embodiment as viewed from the back side.
As shown in FIG. 1, the planar antenna device 1 of the present embodiment includes a support unit 10, a first movable unit 30, a second movable unit 40, a third movable unit 65, an antenna unit 70, and a connection cable. 80 (connection wiring).

The support portion 10 includes a substantially disc-shaped support portion main body 11 and three support legs 12 that are rotatably provided on the support portion main body 11.
The support leg 12 is attached to the support portion main body 11 so as to be rotatable around a rotation axis (not shown) parallel to the first axis C1. The support unit 10 is placed on an installation surface on which the planar antenna device 1 is installed. The first axis C <b> 1 is parallel to the thickness direction of the support body 11. The first axis C1 extends in the thickness direction of the support portion 10 (support portion main body 11).
When the planar antenna device 1 is viewed in parallel to the first axis C1, the support leg 12 protrudes from the first movable part 30 (see FIG. 1), and the support leg 12 is connected to the first movable part 30. It is possible to switch the storage position arranged in the outline of the. By setting the support leg 12 to the protruding position, it is possible to suppress the planar antenna device 1 from being inclined in the width direction Y1.

The first movable unit 30 includes a flat box-shaped housing 31 and a guide portion 32 provided on the surface of the housing 31.
The first movable part 30 needs a function to convert a signal (for example, a high-frequency signal) sent from the third movable part 65 as necessary, and to send the signal to a computer or the like, and a signal sent from the computer or the like And a signal (for example, a high frequency signal) is sent to the third movable portion 65. The first movable unit 30 includes, for example, an IF circuit unit and a modem unit in the housing 31. The first movable unit 30 is a so-called IDU (In Door Unit) unit.

The housing 31 is a rectangular parallelepiped having a bottom plate 31a, side plates 31b and 31b, end plates 31c and 31c, and a top plate 31d. The bottom plate 31a is rectangular. The side plates 31b and 31b are erected on the side edges that are the long sides of the bottom plate 31a. The end plates 31c and 31c are erected on the end edge which is the short side of the bottom plate 31a. The top plate 31d has the same shape as the bottom plate 31a.
The thickness direction of the housing 31 is parallel to the first axis C1. X1 is the longitudinal direction of the bottom plate 31a and the top plate 31d. Y1 is a width direction which is in a plane along the bottom plate 31a and the top plate 31d (for example, in a plane along the surface 31d1) and is orthogonal to the longitudinal direction X1.

  The casing 31 is supported so as to be rotatable around the first axis C <b> 1 with respect to the support portion 10. When the casing 31 is viewed in parallel to the first axis C1, the support portion 10 is located closer to the first end portion 31a1 than the center in the longitudinal direction X1 of the bottom plate 31a.

FIG. 2 is a perspective view of the planar antenna device 1 as viewed from the front side with members such as the antenna unit 70 removed.
As shown in FIG. 2, an insertion hole 35 through which the connection cable 80 is inserted is formed in the end plate 31c (end plate 31c1) provided at the first end portion 31a1 in the longitudinal direction X1 of the bottom plate 31a.
The insertion hole 35 is formed at a position closer to the first end 31e1 than the center in the width direction Y1 of the end plate 31c1.
The outer surface of the end plate 31c1 is provided with an L-shaped tubular bent tube 36 (regulating member) through which the connection cable 80 passing through the insertion hole 35 is inserted. The bending tube 36 has a base portion 36a and an extending portion 36b. The base portion 36a extends from the outer surface of the end plate 31c1 in a direction away from the end plate 31c1 along the longitudinal direction X1. The extending portion 36b extends from the tip of the base portion 36a in the direction approaching the second end portion 31e2 along the width direction Y1.

  Since the casing 31 is provided with the bent tube 36, the connection cable 80 can be directed in the width direction Y1 along the extended portion 36b by inserting the connection cable 80 through the bent tube 36. Therefore, it is easy to make the connection cable 80 in a suitable wiring form (for example, S-shaped form), and it is possible to avoid applying stress to the connection cable 80.

Returning to FIG. 1, an input / output terminal portion 25 is provided on the end plate 31 c (end plate 31 c 2) provided on the second end portion 31 a 2 in the longitudinal direction X 1 of the bottom plate 31 a. The terminal unit 25 is connected to a computer (not shown) via the cable D1. The planar antenna device 1 is controlled by this computer.
A display unit 24 is provided on the surface 31d1 of the top plate 31d at a position close to the end plate 31c2. The display unit 24 displays the measurement result of the electric field strength and the like.

FIG. 6 is a plan view of the first connecting portion of the planar antenna device 1.
As shown in FIG. 6, the support portion 10 and the first movable portion 30 are connected by, for example, a first connection portion (connection portion) 37. The first connection part 37 has, for example, a cylindrical inner cylinder 37 a attached to the support part main body 11 of the support part 10 and a cylindrical outer cylinder 37 b attached to the first movable part 30. . The outer cylinder 37b is coaxial with the inner cylinder 37a and surrounds the inner cylinder 37a. The first connection portion 37 is provided on the first axis C1. The outer cylinder 37b can move only in the circumferential direction of the inner cylinder 37a with respect to the inner cylinder 37a by a known bearing mechanism or the like.

 As shown in FIG. 1, the guide portion 32 includes a base portion 33 and a pair of rail portions 34. The base portion 33 is a rectangular plate-like body along the longitudinal direction X1 of the top plate 31d, and is provided on the surface 31d1 (main surface) of the top plate 31d. The rail portion 34 is provided on the surface of the base portion 33 along the longitudinal direction X1. A pair of rail part 34 is provided in the width direction Y1 at intervals.

The second movable portion 40 includes a movable portion main body 41 and a blower portion 42 which are roughly formed in a plate shape.
The movable portion main body 41 includes a main plate portion 41a and side plates 41b and 41b provided on the side edges in the width direction of the main plate portion 41a so as to protrude toward the inner surface 41a1 side of the main plate portion 41a.
The main plate portion 41a is formed in a rectangular shape (specifically, a rectangular shape). A through hole 41c is formed in the side plate 41b at a position farther from the first end 41b1 in the longitudinal direction to the second end 41b2 side.

The first end portion 41 b 1 of the side plate 41 b is rotatably connected to the first end portion 33 a of the base portion 33 of the first movable portion 30 via the shaft member 43. As a result, the second movable portion 40 can rotate around the second axis C2 parallel to the surface 31d1 of the top plate 31d of the housing 31 with respect to the first movable portion 30. The second axis C2 is along the width direction Y1.
The air blowing part 42 is provided on the inner surface 41a1 of the main plate part 41a.

The first end portion 45a of the link member 45 is rotatably connected to the through hole 41c of the side plate 41b of the second movable portion 40. The second end 45b of the link member 45 is rotatably connected to the traveling body 46 on the rail part 34 of the first movable part 30.
The traveling body 46 can travel along the rail portion 34 of the first movable portion 30 and can be positioned with respect to the rail portion 34 at an arbitrary position in the length direction of the rail portion 34.

The first movable part 30, the second movable part 40, the link member 45, and the traveling body 46 configured in this way are moved with respect to the first movable part 30 by moving the traveling body 46 along the rail part 34. The support angle θ which is an angle around the second axis C2 of the two movable parts 40 can be adjusted.
The second axis C <b> 2 is the central axis of the shaft member 43. The second axis C2 extends along the surface 31d1 of the top plate 31d of the casing 31.

An elevation angle adjustment unit 50 is engaged with the first movable unit 30 and the traveling body 46.
The elevation angle adjustment unit 50 includes an adjustment unit main body 51, a shaft-shaped member 52 having a male screw portion, and a handle 55 provided at an end of the shaft-shaped member 52.
The adjustment part main body 51 can be positioned with respect to the base part 33 at an arbitrary position in the longitudinal direction X1 of the base part 33. The male screw portion of the shaft-like member 52 is screwed into the female screw formed in the insertion hole 51 a formed in the adjustment unit main body 51.

  By rotating the handle 55 around the axis of the shaft-shaped member 52, the shaft-shaped member 52 moves in the longitudinal direction of the shaft-shaped member 52 with respect to the adjustment unit main body 51. When the position of the shaft-like member 52 in the longitudinal direction is changed, the position of the traveling body 46 in the longitudinal direction X1 can be adjusted according to the position. Therefore, the aforementioned support angle θ can be adjusted to an arbitrary angle.

  The 2nd movable part 40 and the 3rd movable part 65 are connected by the 2nd connection part (connection part) 60 comprised similarly to the above-mentioned 1st connection part 37. As shown in FIG. The second connection portion 60 is provided on a third axis C3 that is parallel to the thickness direction of the second movable portion 40. As a result, the third movable portion 65 can rotate around the third axis C <b> 3 with respect to the second movable portion 40.

The third movable portion 65 has a flat box-shaped housing 66.
The third movable unit 65 converts the signal sent from the antenna unit 70 as necessary, sends the signal (for example, a high frequency signal) to the first movable unit 30, and is sent from the first movable unit 30. The signal (for example, a high frequency signal) is converted as necessary, and the signal is sent to the antenna unit 70. The third movable unit 65 includes, for example, an RF circuit unit in the housing 66. The third movable portion 65 is a so-called ODU (Out Door Unit) portion.

As shown in FIGS. 4 and 5, the housing 66 includes a bottom plate 66a, side plates 66b1 and 66b2, end plates 66c1 and 66c2, and a top plate 66d. The bottom plate 66a is rectangular. The side plates 66b1 and 66b2 are erected on the side edges that are the long sides of the bottom plate 66a. The end plates 66c1 and 66c2 are erected on the end edge which is the short side of the bottom plate 66a.
The thickness direction of the housing 66 is parallel to the third axis C3. X2 is the longitudinal direction of the bottom plate 66a and the top plate 66d. Y2 is in the width direction perpendicular to the longitudinal direction X2 in the plane along the bottom plate 66a.
As shown in FIG. 1, the second movable portion 40 is connected to the surface 66 d 1 of the top plate 66 d of the housing 66. The third axis C3 extends in the thickness direction of the second movable portion 40.

  As shown in FIGS. 4 and 5, a passage recess 67 is formed on the surface 66 d 1 (outer surface) of the top plate 66 d of the housing 66 in a portion including the first end portion 66 e 1. The passage recess 67 is formed in a concave shape in the thickness direction of the housing 66. The depth of the passage recess 67 is determined so that at least a part of the connection cable 80 can pass through. The depth of the passage recess 67 can be, for example, the same as or deeper than the outer diameter of the connection cable 80. The depth of the passage recess 67 may be smaller than the outer diameter of the connection cable 80.

As shown in FIG. 4, the passage recess 67 is a main recess 67a which is a rectangular region in the range of the length L1 in the longitudinal direction X2 including the first end 66e1 when viewed in parallel to the third axis C3. And a side recess 67b formed in the inner wall surface 67a1 of the main recess 67a. The side concave portion 67b is formed in a concave shape toward the second end portion 66e2 at a position including one end portion in the width direction Y2 of the inner wall surface 67a1.
The end in the width direction Y2 where the side recess 67b is formed is the same end as the side plate 66b1 having the insertion hole 68.

As shown in FIG. 5, the side plate 66b1 of the housing 66 is formed with an insertion hole 68 through which the connection cable 80 is inserted. The insertion hole 68 is formed at a position closer to the second end portion 66e2 than the center in the longitudinal direction X2 of the side plate 66b1.
As shown in FIG. 4, the outer surface of the side plate 66b1 is provided with an L-shaped tubular bent tube 81 (regulating member) through which the connection cable 80 passing through the insertion hole 68 is inserted. The bending tube 81 has a base portion 81a and an extending portion 81b. The base 81a extends from the outer surface of the side plate 66b1 along the width direction Y2 in a direction away from the side plate 66b1. The extension portion 81b extends from the tip of the base portion 81a in a direction approaching the first end portion 66e1 along the longitudinal direction X2.

  Since the bent pipe 81 is provided in the housing 66, the connection cable 80 can be directed in the longitudinal direction X2 along the extending portion 81b by inserting the connection cable 80 through the bent pipe 81. Therefore, it is easy to make the connection cable 80 in a suitable wiring form (for example, an S-shaped form shown in FIG. 2), and it is possible to avoid stress on the connection cable 80.

Near the center in the longitudinal direction X2 of the side plate 66b1, a clamp portion 82 for holding the connection cable 80 is provided. The clamp portion 82 can be gripped by sandwiching the connection cable 80 between the pair of gripping bodies 82a and 82a.
Since the clamp portion 82 is provided in the housing 66 at a position where the position of the connection cable 80 in the length direction is different from that of the bent tube 81, the connection cable 80 is wired at a plurality of locations different in the length direction of the connection cable 80. The direction can be restricted, and the connection cable 80 can be easily formed into a suitable wiring form.

FIG. 7 is a cross-sectional view of the connection cable 80.
As shown in FIG. 7, the connection cable 80 can be configured to include, for example, a wiring 88 and a protective tube 83 that accommodates the wiring 88. The wiring 88 is, for example, a coaxial cable. The wiring 88 is preferably capable of transmitting a high frequency signal. The protective tube 83 is, for example, a corrugated tube.

2 and 3 are diagrams of the planar antenna device 1 as viewed from the front side with members such as the antenna unit 70 removed.
As shown in FIGS. 2 and 3, the connection cable 80 electrically connects the first movable part 30 and the third movable part 65. One end portion of the connection cable 80 reaches the inside of the first movable portion 30. The connection cable 80 is led out of the casing 31 of the first movable portion 30 through the insertion hole 35 and is inserted into the bent tube 36. The connection cable 80 is inserted into the bent tube 81 through the clamp portion 82 provided in the third movable portion 65, and reaches the inside of the housing 66 through the insertion hole 68.

In FIG. 2, the connection cable 80 has a S-shaped wiring shape projected onto a surface (a surface perpendicular to the third axis C3) along the surface 66d1 of the top plate 66d of the third movable portion 65.
Specifically, the connection cable 80 has a first curved portion 85 that is convex in a first direction R1 that intersects the length direction of the connection cable 80 from the first movable portion 30 toward the third movable portion 65; It has the 2nd curved part 86 made convex in 2nd direction R2 opposite to 1st direction R1 in this order.

In FIG. 2, in the third movable portion 65, the first end portion 66 e 1 is located closer to the first end portion 31 e 1 than the center in the width direction Y 1 of the end plate 31 c 1 of the first movable portion 30. This posture of the third movable portion 65 is referred to as a first inclined posture.
When the third movable portion 65 is in the first inclined posture, the separation distance between the connection portion 87 of the connection cable 80 and the first movable portion 30 with respect to the third movable portion 65 is the third axis C3 and the first movable portion. Larger than the separation distance from 30. The separation distance here is a distance in the height direction from the first movable part 30 (a difference in height from the plane including the surface 31d1 of the first movable part 30). The height direction is a direction perpendicular to the longitudinal direction X1 and the width direction Y1.
In the connection cable 80, the second bending portion 86 passes through the inside of the passage recess 67. Therefore, since a sufficient space for wiring is secured in the connection cable 80, the connection cable 80 is connected to the third movable portion 65 even though the connection portion 87 is away from the first movable portion 30. Unreasonable power will not be applied.

  Since the side recess 67 b is formed in the housing 66 on the same side as the connection portion 87 of the connection cable 80 with respect to the third movable portion 65, a larger space for wiring the connection cable 80 can be secured.

In FIG. 3, in the third movable portion 65, the first end portion 66 e 1 is located closer to the second end portion 31 e 2 than the center in the width direction Y 1 of the end plate 31 c 1 of the first movable portion 30. This posture of the third movable portion 65 is referred to as a second inclined posture.
When the third movable portion 65 is in the second inclined posture, the connection point 87 is closer to the first movable portion 30 than in the first inclined posture shown in FIG. Therefore, a sufficient extra length is secured for the connection cable 80. Therefore, in this case, too much force is not applied to the connection cable 80.

As shown in FIGS. 1 and 8, the pair of antenna portions 70 and 70 are formed in a plate shape, and can transmit and receive electromagnetic waves using a substrate (not shown).
The casing 66 of the third movable portion 65 and the pair of antenna portions 70 are connected via a torque hinge 71. As the torque hinge 71, for example, by adjusting the torque generated between the housing 66 and the antenna unit 70, the position of the pair of antenna units 70 is temporarily arranged (opened) on the same plane. Can be held.
The pair of antenna units 70 can be switched between a closed state in which the main surfaces 70a are opposed to each other and an open state in which the main surfaces 70a are arranged on the same surface and spread as shown in FIG. It is.
Each antenna unit 70 is connected to the third movable unit 65 by an auxiliary wiring unit 72.

Next, a procedure for setting the planar antenna device 1 as described above will be described.
FIG. 9 is a diagram showing a state in which the planar antenna device 1 is installed.
As shown in FIG. 9, for example, a support base D12 is installed at a destination D10 such as a stricken area so that the top surface is horizontal. The pair of support legs 12 are projected, and the support portion 10 of the planar antenna device 1 is placed on the top surface of the support base D12.
An azimuth angle (AZ), an elevation angle (EL), and a polarization angle (POL) are obtained from the latitude and longitude of the destination D10, the position of the target communication satellite D20, and the like.

  The elevation angle is roughly set, and the pair of antenna units 70 is changed from the closed state to the open state. Since the pair of antenna units 70 and the housing 66 of the third movable unit 65 are connected via the torque hinge 71, each antenna unit 70 is temporarily held in the open state.

For example, a southeast direction is detected using a compass or the like, and the planar antenna device 1 is directed in the southeast direction. The computer and the planar antenna device 1 are connected via the cable D1. The planar antenna device 1 is activated.
By operating the computer, the electric field intensity measured by the first movable unit 30 of the radio waves received by the pair of antenna units 70 is displayed on the display unit 24. While confirming the electric field strength displayed on the display unit 24, the angle around the first axis C1 of the first movable unit 30 with respect to the support unit 10, that is, the azimuth angle is adjusted so that the electric field strength becomes high.

The third movable portion 65 is rotated around the third axis C3 with respect to the second movable portion 40 to adjust the polarization angle.
Using the planar antenna device 1 set as described above, communication is performed with the communication satellite D20.

According to the planar antenna device 1 of the present embodiment, the first movable portion 30 can rotate with respect to the support portion 10, the second movable portion 40 can rotate with respect to the first movable portion 30, and the second The third movable portion 65 can rotate with respect to the movable portion 40. Further, the pair of antenna units 70 can be switched between a closed state and an open state.
Since the folded planar antenna device 1 has a smaller outer shape than the planar antenna device 1 in the set state, the planar antenna device 1 can be easily carried.
By unfolding the planar antenna device 1 in a folded state and adjusting the azimuth angle, the elevation angle, and the polarization angle, it is not necessary to assemble the planar antenna device 1 and the planar antenna device 1 can be easily set.

According to at least one embodiment described above, the connection cable 80 has a separation distance between the connection portion 87 and the first movable portion 30 with respect to the third movable portion 65 such that the third axis C3 and the first movable portion 30 are separated. When the third movable portion 65 assumes a posture that is larger than the distance of the first and second movable portions 65 (see FIG. 2), the connection cable 80 is S-shaped and can pass through the passage recess 67.
In the connection cable 80, a sufficient space for wiring is secured by the passage recess 67, so that the connection point 87 to the third movable portion 65 is located away from the first movable portion 30. No excessive force is applied to the connection cable 80.
The connection cable 80 has a sufficient extra length for the connection cable 80 when the third movable portion 65 takes a posture in which the connection portion 87 to the third movable portion 65 is close to the first movable portion 30 (see FIG. 3). Is done. Therefore, in this case, too much force is not applied to the connection cable 80.
Therefore, regardless of the attitude of the antenna unit 70, the stress applied to the connection cable 80 can be reduced, and deterioration in communication quality can be prevented.
Further, since the stress applied to the connection cable 80 can be reduced, the short connection cable 80 can be used. Therefore, problems that occur when the connection cable 80 is long, such as loss (decrease in signal level), can be avoided.

  Although several embodiments of the present invention have been described, these embodiments are presented by way of example and are not intended to limit the scope of the invention. These embodiments can be implemented in various other forms, and various omissions, replacements, and changes can be made without departing from the spirit of the invention. These embodiments and their modifications are included in the scope and gist of the invention, and are also included in the invention described in the claims and the equivalents thereof.

 DESCRIPTION OF SYMBOLS 1 ... Planar antenna apparatus, 10 ... Support part, 30 ... 1st movable part, 31d1 ... Surface (main surface), 36 ... Bending pipe (regulation member), 40 ... 2nd movable part, 65 ... 3rd movable part, 66d1 ... surface (outer surface) of top plate of casing of third movable part, 67 ... passing recess, 70 ... antenna part, 80 ... connection cable (connection wiring), 81 ... bent pipe (regulating member), 82 ... clamp part 85 ... first bending portion, 86 ... second bending portion, 87 ... connection location (connection location for the third movable portion), C1 ... first axis, C2 ... second axis, C3 ... third axis, R1 ... first direction, R2 ... second direction

Claims (4)

A support part;
A first movable part rotatably supported about a first axis with respect to the support part;
A second movable part supported rotatably about a second axis extending along the main surface of the first movable part with respect to the first movable part;
A third movable part rotatably supported around a third axis extending along the thickness direction of the second movable part with respect to the second movable part, and having a passage recess on the outer surface;
An antenna portion supported by the third movable portion;
The first movable part and the third movable part are electrically connected, and the separation distance between the connection point with respect to the third movable part and the first movable part is the third axis and the first movable part. When the third movable portion takes a posture that is larger than the distance from the movable portion, the wiring shape projected onto the surface perpendicular to the third axis is an S-shape, and at least a part of the interior of the passage recess A planar antenna device comprising: a connection wiring capable of passing through the antenna. The connection wiring has a third posture in which a separation distance between the connection point to the third movable part and the first movable part is larger than a separation distance between the third axis and the first movable part. When the moving part takes
A first curved portion that is convex in a first direction intersecting a length direction of the connection wiring from the first movable portion toward the third movable portion, and a first curved portion opposite to the first direction. The planar antenna device according to claim 1, wherein the planar antenna device has a second curved portion that is convex in two directions and at least part of which passes through the inside of the passage recess.   A cylindrical regulating member that regulates the wiring direction of the connection wiring by inserting the connection wiring at a connection portion of the connection wiring to the first movable part and the third movable part is provided. The planar antenna device according to claim 1 or 2.   The planar antenna device according to claim 1, wherein the third movable portion is provided with a clamp portion that is positioned by gripping the connection wiring.

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