JP2013050781A - Input unit, display device, and apparatus - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an input unit, a display device, and an apparatus capable of reducing the possibility that strength of a glass substrate decreases.SOLUTION: An input unit X1 includes a glass substrate 2 with light transmissivity, detection electrodes 3a, 4a provided on the glass substrate 2, and a wiring conductor 7 provided on the glass substrate 2 and electrically connected to the detection electrodes 3a, 4a. A resin member 6 is provided between the glass substrate 2 and the wiring conductor 7.

Description

  The present invention relates to an input device, a display device, and a device that detect, for example, a position input by a user as an input position.

  As an input device, for example, a capacitive touch panel that detects a change in capacitance between a finger and a detection electrode and detects an input position is known (see, for example, Patent Documents 1 and 2). . Such an input device includes a glass substrate, a detection electrode provided on the glass substrate, and a wiring conductor provided on the glass substrate and electrically connected to the detection electrode.

JP 2008-97283 A JP 2008-310551 A

  However, in the conventional input device, since the wiring conductor is directly provided on the glass substrate, the strength of the glass substrate may be reduced.

  The present invention has been made in view of the above problems, and an object thereof is to an input device, a display device, and an apparatus that can reduce the possibility that the strength of a glass substrate is lowered.

  One aspect of the input device of the present invention is a glass substrate having translucency, a detection electrode provided on the glass substrate, and provided on the glass substrate and electrically connected to the detection electrode. And a resin member is provided between the glass substrate and the wiring conductor.

  One aspect of the display device of the present invention includes the input device according to the present invention, a display panel arranged to face the input device, and a first housing in which the display panel is accommodated.

  One aspect of the device of the present invention includes the display device according to the present invention in the second housing.

  INDUSTRIAL APPLICABILITY The input device, display device, and device of the present invention have an effect that the possibility that the strength of the glass substrate is lowered can be reduced.

It is a top view which shows schematic structure of the input device which concerns on this embodiment. It is sectional drawing cut | disconnected along the cutting line II shown in FIG. It is sectional drawing cut | disconnected along the cutting line II-II shown in FIG. It is sectional drawing cut | disconnected along the cutting line III-III shown in FIG. It is a figure which shows the measuring method of the breaking strength of a glass substrate, (a) is a top view which shows schematic structure of a measuring apparatus, (b) is cut | disconnected along the cutting line IV-IV shown in (a) FIG. It is the figure which showed the relationship between the breaking strength of the site | part in which the wiring conductor was formed with respect to the weight application position ae, and the breaking strength of the site | part in which the wiring conductor is not formed. (A) is drawing which shows concentration distribution of potassium in the cross section of the glass substrate in the site | part in which the wiring conductor is not formed, (b) is density | concentration of potassium in the cross section of the glass substrate in the site | part in which the wiring conductor was formed. It is drawing which shows distribution. It is a figure which shows the measuring method of the breaking strength of a glass substrate in the case of providing a resin member between the back surface of a glass substrate and a wiring conductor, (a) is a top view which shows schematic structure of a measuring apparatus, (b) ) Is a cross-sectional view taken along the cutting line VV shown in FIG. It is drawing which shows the density | concentration distribution of potassium in the cross section of the glass substrate in the site | part in which the resin member was formed. It is sectional drawing which shows schematic structure of the display apparatus which concerns on this embodiment. It is a perspective view which shows schematic structure of the portable terminal which concerns on this embodiment. 10 is a plan view illustrating a schematic configuration of an input device according to Modification 1. FIG. It is sectional drawing cut | disconnected along the cutting line VI-VI shown in FIG. 10 is a plan view showing a schematic configuration of an input device according to Modification 2. FIG. It is sectional drawing cut | disconnected along the cutting line VII-VII shown in FIG.

  Hereinafter, embodiments of the present invention will be described with reference to the drawings.

  However, for convenience of explanation, the drawings to be referred to below show simplified main members necessary for explaining the present invention, among the constituent members of one embodiment of the present invention. Therefore, the input device, the display device, and the device according to the present invention may include arbitrary constituent members that are not shown in the drawings referred to in this specification.

As shown in FIG. 1, the input device X1 according to this embodiment is a capacitive type touch panel, an input region E _I capable input operation by the user, positioned outside the input region E _I And an outer region _EO . Note that instead of the capacitive touch panel, a resistive touch panel, a surface acoustic wave touch panel, an infrared touch panel, or an electromagnetic induction touch panel may be used.

  As shown in FIGS. 1 to 4, the input device X <b> 1 includes a glass substrate 2.

Glass substrate 2, the first detection electrode 3a to be described later in the input region E _I, the first connection electrode 3b, the second detection electrode 4a, and takes a roll for supporting the second connection electrode 4b, described later in the outer region E _O It is a member which plays the role which supports the wiring conductor 7 to perform. The glass substrate 2 has an operation surface 2a, a back surface 2b located on the opposite side of the operation surface 2a, and an end surface 2c adjacent to the operation surface 2a and the back surface 2b.

  The glass substrate 2 has translucency and insulation. That is, the glass substrate 2 is configured to be able to appropriately transmit light in a direction intersecting the operation surface 2a and the back surface 2b. In addition, in this specification, translucency means having transparency with respect to visible light. Moreover, although the planar view shape of the glass substrate 2 which concerns on this embodiment is made into the substantially rectangular shape in which the corner | angular part is rounded, it is not restricted to this. The corners may not be rounded, and the shape of the glass substrate 2 in plan view may be, for example, circular or polygonal.

Here, in this embodiment, tempered glass chemically strengthened by ion exchange is used as the glass substrate 2. For this reason, the glass substrate 2 is produced by the following method, for example. That is, the glass is brought into contact with an aqueous solution containing potassium ions and heated to replace sodium ions on the glass surface with potassium ions. Since sodium ions on the glass surface are replaced with potassium ions, a compressive stress layer is formed on the glass surface. That is, since potassium ions are larger than sodium ions, it is possible to obtain a stronger compressive stress at the molecular level by closing the holes from which sodium ions have been removed with larger potassium ions. Thus, the chemically strengthened glass substrate 2 is produced.

Further, as shown in FIGS. 1 to 3, on the rear surface 2b of the glass substrate 2 corresponding to the input region _{E I,} the first detection electrode 3a, the first connecting electrode 3b, the second detection electrode 4a, the second connection An electrode 4b and an insulator 5 are provided.

First detection electrode 3a is finger F1 of the user close to the input region E _I, are those having a role to detect the input position in the Y direction, the ability to generate an electrostatic capacitance between the finger F1 have. That is, the first detection electrodes 3 a are provided on the back surface 2 b of the glass substrate 2 with a predetermined interval along the X direction. Here, from the viewpoint of improving the detection sensitivity, the first detection electrode 3a according to the present embodiment has a substantially rhombus shape in plan view, but is not limited thereto.

  The first connection electrode 3b is a member that plays a role of electrically connecting the adjacent first detection electrodes 3a. The first connection electrode 3 b is provided on the back surface 2 b of the glass substrate 2.

Second detection electrode 4a is a finger F1 of the user close to the input region E _I, are those having a role to detect the input position in the X direction, the ability to generate an electrostatic capacitance between the finger F1 have. In other words, the second detection electrodes 4a are provided on the back surface 2b of the glass substrate 2 at a predetermined interval along the Y direction. Here, from the viewpoint of improving detection sensitivity, the second detection electrode 4a according to the present embodiment has a substantially rhombus shape in plan view, but is not limited thereto.

  The second connection electrode 4b is a member that plays a role of electrically connecting the adjacent second detection electrodes 4a. The second connection electrode 4b is provided on the insulator 5 so as to straddle the insulator 5 so as to be electrically insulated from the first connection electrode 3b. Here, the insulator 5 is provided on the back surface 2b of the glass substrate 2 so as to cover the first connection electrode 3b. Examples of the constituent material of the insulator 5 include an acrylic resin, an epoxy resin, a silicone resin, silicon dioxide, or silicon nitride.

  Examples of the constituent material of the first detection electrode 3a, the first connection electrode 3b, the second detection electrode 4a, and the second connection electrode 4b include a conductive member having translucency. As the conductive member having translucency, for example, ITO (Indium Tin Oxide), IZO (Indium Zinc Oxide), ATO (Antimony Tin Oxide), AZO (Al-Doped Zinc Oxide), tin oxide, zinc oxide, or Examples thereof include conductive polymers.

Moreover, as shown in FIG. 4, the resin member 6 and the wiring conductor 7 are provided on the back surface 2b of the glass substrate 2 corresponding to the outer side area | region _EO .

  The resin member 6 is a member that plays a role for reducing the possibility that the strength of the glass substrate 2 is lowered. The resin member 6 is provided on the back surface 2 b of the glass substrate 2. That is, the resin member 6 is located between the back surface 2 b of the glass substrate 2 and the wiring conductor 7. The resin member 6 is made of, for example, a transparent resin such as an acrylic resin, an epoxy resin, or a silicone resin.

The wiring conductor 7 is a member that plays a role for applying a voltage to the first detection electrode 3a and the second detection electrode 4a. One end of the wiring conductor 7 is a first detection electrode 3 a and a second detection electrode 4.
It is electrically connected to a, and the other end is located in the external conduction region G1. In the present embodiment, a plurality of wiring conductors 7 are provided, and a wiring conductor group 71 is configured on the left side in a top view of FIG. In the present embodiment, all the wiring conductors 7 of the wiring conductor group 71 are provided on the resin member 6.

  For example, the wiring conductor 7 is made of a metal thin film so as to be hard and have high shape stability. Examples of the metal thin film include an aluminum film, an aluminum alloy film, a laminated film of a chromium film and an aluminum film, a laminated film of a chromium film and an aluminum alloy film, a silver film, a silver alloy film, or a gold alloy film. . Examples of the method for forming the metal thin film include a sputtering method, a vapor deposition method, and a chemical vapor deposition method.

Further, as shown in FIGS. 2 to 4, the input region E _I and the outer region back 2b onto the glass substrate 2 corresponding to the E _O, the protective member 8 is provided.

  The protection member 8 is a member that plays a role for protecting the detection electrodes 3 a and 4 a and the wiring conductor 7. For this reason, the protection member 8 is provided on the back surface 2b of the glass substrate 2 so as to cover the detection electrodes 3a and 4a and the wiring conductor 7. Examples of the constituent material of the protective member 8 include acrylic resin, epoxy resin, or silicon dioxide. Examples of the method for forming the protective member 8 include a transfer printing method, a spin coating method, and a slit coating method.

  As shown in FIG. 4, the protective member 8 is preferably provided at a predetermined distance L1 or more away from the end surface 2 c of the base 2. In the present embodiment, the predetermined distance L1 is 0.85 to 1.15 mm. Since the protection member 8 is provided at a predetermined distance L1 or more, it is possible to reduce the possibility that the protection member 8 is peeled off from the back surface 2b of the base body 2 when the end surface 2c of the base body 2 is polished.

Furthermore, as shown in FIGS. 2 to 4, an operation surface protection film 10 is provided on the operation surface 2 a of the glass substrate 2 corresponding to the input region E _I and the outer region E _O via an adhesive material 9. Yes.

  The operation surface protection film 10 is a member that plays a role for protecting the operation surface 2 a of the base 2. Examples of the operation surface protective film 10 include acrylic adhesives, silicone adhesives, rubber adhesives, urethane adhesives, and the like.

  In the present embodiment, since the resin member 6 is provided between the glass substrate 2 and the wiring conductor 7, the possibility that the strength of the glass substrate 2 is reduced can be reduced.

  Here, when the resin member 6 is provided between the glass substrate 2 and the wiring conductor 7, the reason why the strength of the glass substrate 2 can be reduced will be described in detail below.

First, as shown in FIG. 5, a measuring device Q <b> 1 including a glass substrate 20 and a support 21 that supports the glass substrate 20 is prepared, and a wiring conductor 22 made of aluminum directly on the back surface 20 b of the glass substrate 20. Formed. In addition, the glass substrate 20 used the tempered glass. Then, a pressing jig (not shown) is pressed against the surface 20a of the glass substrate 20 corresponding to the part A1 where the wiring conductor 22 is formed, in the direction of the arrow shown in FIG. The breaking strength of the substrate 20 was measured. Specifically, as shown in FIG. 5A, a pressing jig was pressed against five locations a to e on the surface 20a of the glass substrate 20 corresponding to the part A1, and the breaking strength of the glass substrate 20 was measured. . Further, a pressing jig (not shown) is pressed against the surface 20a of the glass substrate 20 corresponding to the part B1 where the wiring conductor 22 is not formed, in the direction of the arrow shown in FIG. The breaking strength of the glass substrate 20 was measured. Specifically, as shown in FIG. 5A, a pressing jig was pressed against five locations a to e on the surface 20a of the glass substrate 20 corresponding to the part B1, and the breaking strength of the glass substrate 20 was measured. . The weighting speed of the pushing jig is 10 mm / min. Further, the breaking strength refers to a nominal stress generated in a material at the time of breaking.

  FIG. 6 is a graph showing the relationship between the breaking strength of the portion A1 where the wiring conductor 22 is formed and the breaking strength of the portion B1 where the wiring conductor 22 is not formed with respect to the weight application positions a to e. . As shown in FIG. 6, it can be seen that at each of the load application positions a to e, the portion A1 where the wiring conductor 22 is formed has a lower breaking strength than the portion B1 where the wiring conductor 22 is not formed. That is, when the wiring conductor 22 is directly formed on the back surface 20b of the glass substrate 20, the strength of the glass substrate 20 is reduced at the site where the wiring conductor 22 is formed. The reason for this will be described below.

  FIG. 7A is a drawing showing a potassium concentration distribution in a cross section of the glass substrate 20 in a portion B1 where the wiring conductor 22 is not formed, and FIG. 7B is a portion A1 where the wiring conductor 22 is formed. It is drawing which shows the density | concentration distribution of potassium in the cross section of the glass substrate 20 in FIG. The concentration distribution of potassium is determined by electron microanalysis. As shown in FIGS. 7A and 7B, a compressive stress layer is formed in a region near the back surface 20 b of the glass substrate 20. In the present embodiment, the compressive stress layer is formed in a region from the back surface 20 b of the glass substrate 20 to 17 μm. FIG. 7A shows that potassium is uniformly distributed in the compressive stress layer. In FIG. 7B, it can be seen that potassium is extremely concentrated in the portion C1 in the compressive stress layer in the vicinity of the formation region of the wiring conductor 22. The extreme concentration of potassium in the part C1 is presumed to be due to a chemical reaction between the glass substrate 20 and the wiring conductor 22, but details are not clear.

  Thus, when the wiring conductor 22 is formed directly on the back surface 20b of the glass substrate 20, potassium is extremely concentrated in the portion C1 in the compressive stress layer in the vicinity of the formation region of the wiring conductor 22. That is, since the portion C1 where potassium is extremely concentrated and the other portion are formed in the compressive stress layer, the glass substrate 20 is easily cracked starting from the boundary between the portion C1 and the other portion. As a result, the strength of the glass substrate 20 is reduced. This is the same even when a silicon dioxide layer is provided between the back surface 20 b of the glass substrate 20 and the wiring conductor 22.

  Therefore, as shown in FIG. 8, a resin member 23 is provided between the back surface 20 b of the glass substrate 20 and the wiring conductor 22. The resin member 23 is made of the same material as the resin member 6.

  FIG. 9 is a drawing showing the potassium concentration distribution in the cross section of the glass substrate 20 in the portion A2 where the resin member 23 is formed. Here, the wiring conductor 22 is formed on the resin member 23. In FIG. 9, it can be seen that even when the resin member 23 is formed on the back surface 20b of the glass substrate 20, potassium is uniformly distributed in the compressive stress layer. Since potassium is uniformly distributed in the compressive stress layer, the strength of the glass substrate 20 can be improved as compared with the glass substrate 20 shown in FIG.

  Thus, in this embodiment, since the resin member 6 is provided between the glass substrate 2 and the wiring conductor 7 in the input device X1, the possibility that the strength of the glass substrate 2 is reduced can be reduced. .

Here, when the breaking strength of the actual glass substrate 2 alone in the input device X1 was measured, the average value of the breaking strength was 471 N (number of samples: 15). Also, as in this embodiment,
When the breaking strength of the glass substrate 2 when the resin member 6 was provided between the glass substrate 2 and the wiring conductor 7 was measured, the average value of the breaking strength was 574N (20 samples). Thus, in the input device X1, when the resin member 6 is provided between the glass substrate 2 and the wiring conductor 7, it can be seen that the strength of the glass substrate 2 is improved. In addition, when the wiring conductor 7 was formed directly on the back surface 2b of the glass substrate 2, the average value of the breaking strength of the glass substrate 2 was 197N (15 samples).

  Next, the detection principle of the input device X1 will be described.

When the finger F1, which is a conductor, approaches, touches, or presses the operation surface 2a of the glass substrate 2 corresponding to the input area E _I through the operation surface protection film 10, the space between the finger F1 and the detection electrodes 3a, 4a The capacitance of changes. Here, a position detection driver (not shown) always detects a change in capacitance between the finger F1 and the detection electrodes 3a and 4a. When the position detection driver detects a change in capacitance that is equal to or greater than a predetermined value, the position detection driver detects a position where the change in capacitance is detected as an input position. In this way, the input device X1 can detect the input position. Note that the input device X1 may detect either the input position or the mutual capacitance method or the self-capacitance method. Employing the mutual capacitance method is preferable compared to the case of employing the self-capacitance method because a plurality of input positions can be detected simultaneously.

  As described above, in the input device X1 described above, the possibility that the strength of the glass substrate 2 is reduced can be reduced.

  Next, a display device Y1 including the input device X1 will be described with reference to FIG.

  As shown in FIG. 10, the display device Y1 according to the present embodiment includes an input device X1 and a liquid crystal display device Z1 disposed to face the input device X1.

  The liquid crystal display device Z1 includes a liquid crystal display panel 101, a backlight 102, and a first housing 103.

  The liquid crystal display panel 101 is a display panel using a liquid crystal composition for display. Instead of the liquid crystal display panel 101, a display panel such as a plasma display, an organic EL display, or electronic paper may be used. The backlight 102 includes a light source 102a and a light guide plate 102b. The light source 102a is a member that plays a role of emitting light toward the light guide plate 102b, and includes, for example, an LED (Light Emitting Diode). Instead of the LED, a cold cathode fluorescent lamp, a halogen lamp, a xenon lamp, or an EL (Electro-Luminescence) may be used. The light guide plate 102b is a member that plays a role of guiding light from the light source 102a substantially uniformly over the entire lower surface of the liquid crystal display panel 101.

  The first housing 103 serves to accommodate the liquid crystal display panel 101 and the backlight 102, and includes an upper housing 103a and a lower housing 103b. Examples of the constituent material of the display device housing 103 include a resin such as polycarbonate, or a metal such as stainless steel and aluminum.

Here, the input device X1 and the liquid crystal display device Z1 are bonded via a double-sided tape 104. That is, the input device X1 and the liquid crystal display device Z1 are bonded via the double-sided tape 104 so that the back surface 2b of the glass substrate 2 in the input device X1 is disposed to face the main surface of the liquid crystal display panel 101. . Note that the fixing member used in the fixing method between the input device X1 and the liquid crystal display device Z1 is not limited to the double-sided tape 104. For example, an adhesive member such as a thermosetting resin or an ultraviolet curable resin, or the input device X1. And a fixed structure that physically fixes the liquid crystal display device Z1. Further, the input device X1 and the liquid crystal display device Z1 may be disposed in contact with each other or may be disposed with a gap therebetween.

Thus, the input device X1 while seeing through the liquid crystal display panel 101 of the liquid crystal display device Z1, by inputting operation of the input region E _I of the input device X1, it is possible to input various information. When inputting various types of information, the input device X1 may be provided with a function of presenting various tactile sensations such as a feeling of pressing, a feeling of tracing, and a feeling of touch to the user who has input the information. In this case, the glass substrate 2 in the input device X1 includes one or a plurality of vibrating bodies (for example, piezoelectric elements), and when a predetermined input operation or a predetermined pressing load is detected, the vibrating body is set to a predetermined frequency. It can be realized by vibrating with a.

  Since the display device Y1 includes the input device X1, the possibility that the strength of the glass substrate 2 is reduced can be reduced.

  Next, the portable terminal P1 provided with the display device Y1 will be described with reference to FIG.

  As illustrated in FIG. 11, the mobile terminal P1 according to the present embodiment is a device such as a mobile phone, a smartphone, or a PDA, and includes a display device Y1, an audio input unit 201, an audio output unit 202, and a key. An input unit 203 and a second housing 204 are provided.

  The voice input unit 201 is composed of, for example, a microphone or the like, and inputs a user's voice or the like. The audio output unit 202 includes a speaker or the like, and outputs audio from the other party. The key input unit 203 is configured by, for example, a mechanical key. The key input unit 203 may be an operation key displayed on the display screen. The second housing 204 is a member that plays a role of housing the display device Y <b> 1, the voice input unit 201, the voice output unit 202, and the key input unit 203.

  In addition, the mobile terminal P1 may include a short-distance wireless communication unit such as a digital camera function unit, a one-segment broadcasting tuner, an infrared communication function unit, and various interfaces, depending on the required functions. The detailed illustration and description thereof will be omitted.

  Since the portable terminal P1 includes the display device Y1, the possibility that the strength of the glass substrate 2 is reduced can be reduced.

  In addition, although the example which provided the audio | voice input part 201 in the portable terminal P1 was demonstrated above, it is not limited to this. That is, the voice input unit 201 may not be provided in the mobile terminal P1.

  Here, the display device Y1 is not limited to the portable terminal P1 described above, but various devices such as a programmable display, an electronic notebook, a personal computer, a copying machine, a game terminal device, a television, and a digital camera used for industrial purposes. The device may be provided.

  The above-described embodiment shows a specific example of the embodiment of the present invention, and various modifications can be made. Hereinafter, some main modifications will be described.

[Modification 1]
FIG. 12 is a plan view illustrating a schematic configuration of the input device X2 according to the first modification. 13 is a cross-sectional view taken along the cutting line VI-VI shown in FIG. 12 and 13, the same reference numerals are added to the configurations having the same functions as those in FIGS. 1 and 4.
Detailed description thereof is omitted.

  As shown in FIG. 13, the input device X <b> 2 includes a resin member 61 instead of the resin member 6. In the input device X2, the surface of the end portion 611 of the resin member 61 forms an inclined surface 611a as viewed in cross section. Since the surface forms the inclined surface 611a, the stress applied to the operation surface 2a of the glass substrate 2 can be relaxed to some extent on the inclined surface 611a. For this reason, possibility that the intensity | strength of the glass substrate 2 will fall can be reduced more.

  The inclined surface 611a may be a curved surface (a convex curved surface or a concave curved surface). When the inclined surface 611a has a curved surface, the stress applied to the operation surface 2a of the glass substrate 2 can be more relaxed by the inclined surface 611a.

[Modification 2]
FIG. 14 is a plan view illustrating a schematic configuration of the input device X3 according to the second modification. 15 is a cross-sectional view taken along the cutting line VII-VII shown in FIG. 14 and 15, the same reference numerals are given to configurations having the same functions as those in FIGS. 1 and 4, and detailed descriptions thereof are omitted.

As shown in FIG. 15, in the input device X <b> 3, a light shielding member 11 is provided on the back surface 2 b of the glass substrate 2. The light shielding member 11 is a member that plays a role of decorating the outer region _EO of the input device X1 in black, for example, and a member that plays a role of reducing the possibility that the wiring conductor 7 is visually recognized by the user. It is. Examples of the constituent material of the light shielding member 11 include a resin material containing carbon, chromium oxide, or titanium oxide.

  In the input device X <b> 3, the resin member 6 is provided so as to cover the light shielding member 11. That is, the light shielding member 11 and the resin member 6 are provided between the back surface 2 b of the glass substrate 2 and the wiring conductor 7. Even if the resin member 6 is provided so as to cover the light shielding member 11 as in Modification 2, the possibility that the strength of the glass substrate 2 is reduced can be reduced as in the above-described embodiment.

[Modification 3]
The embodiments described above and the modifications described above may be combined as appropriate.

X1 to X3 Input device Y1 Display device P1 Mobile terminal (device)
2 Glass substrate 3a First detection electrode (detection electrode)
4a Second detection electrode (detection electrode)
6, 61 Resin member 7 Wiring conductor 11 Light shielding member 101 Liquid crystal display panel (display panel)
103 1st housing | casing 204 2nd housing | casing

Claims (7)

A glass substrate having translucency;
A detection electrode provided on the glass substrate;
A wiring conductor provided on the glass substrate and electrically connected to the detection electrode,
An input device, wherein a resin member is provided between the glass substrate and the wiring conductor. A plurality of the wiring conductors are provided,
The plurality of wiring conductors constitute a wiring conductor group,
The input device according to claim 1, wherein the resin member is provided between the glass substrate and all wiring conductors of the wiring conductor group.   The input device according to claim 1, wherein a surface of the end portion of the resin member is an inclined surface as viewed in cross section. Further comprising a light shielding member on the glass substrate,
The input device according to claim 1, wherein the resin member is provided so as to cover the light shielding member. The input device according to any one of claims 1 to 4,
A display panel disposed opposite the input device;
And a first housing in which the display panel is accommodated.   The display device according to claim 5, wherein the display panel is a liquid crystal display panel.   The apparatus provided with the display apparatus of Claim 5 or 6 in the 2nd housing | casing.