JP7769976B2 - Decorative part and method for manufacturing the decorative part - Google Patents

Description

The present invention relates to a decorated part and a method for manufacturing a decorated part.

Patent Document 1 discloses an illuminating decorative sheet having a light-blocking colored layer partially laminated on a base sheet and another light-blocking colored layer laminated entirely or partially, forming a light-blocking pattern portion and a light-transmitting pattern portion. In this illuminating decorative sheet, the light-transmitting pattern portion (predetermined pattern) glows when illuminated from the back by a light source, making it easier to recognize.

In addition to screen printing, laser processing is also known as a method for forming translucent patterned portions. Patent Document 2 discloses a panel member in which an opaque printed layer is removed with laser light to form holes that allow light to pass through. Since laser light reacts with carbon to generate heat, this printed layer contains carbon black. However, after laser light penetrates the layer to be processed, there is a risk that it may also process the layer on the back side.

In response to this, Patent Document 3 discloses a laminate in which a barrier layer is provided on the backside of the laser coloring layer that is the target of laser processing, protecting the offset printing layer on the backside of that.

Japanese Patent Application Laid-Open No. 2001-272935 Japanese Patent Application Laid-Open No. 2001-030290 International Publication No. 2017/014258

When forming the light-transmitting pattern portion of the illuminating decorative sheet of Patent Document 1, it is also possible to use laser processing and a barrier layer such as that of Patent Document 3. In other words, the barrier layer of Patent Document 3 is interposed between the light-blocking colored layer and the light-transmitting colored layer of Patent Document 1.

However, with this configuration, because an extra barrier layer is inserted, light may be reflected at the interface between the translucent colored layer and the barrier layer depending on the difference in refractive index between the two, making it difficult to clearly see the specified translucent pattern.

The present invention was made in consideration of the above points.

According to one aspect of the present invention, a decorative component has a predetermined pattern that is visible when a lighting device mounted on its back surface is turned on, and the predetermined pattern is invisible when the lighting device is turned off. The decorative component comprises: a light-blocking layer having holes formed in the predetermined pattern that allow light from the lighting device to pass through, the light-blocking layer made of a material that reacts to laser light; a transparent layer laminated on the surface of the light-blocking layer and made of a material that does not react to laser light; and a design layer laminated on the surface of the transparent layer, having a predetermined transmittance that allows light to pass through when the lighting device is turned on and makes the predetermined pattern invisible when the lighting device is turned off; the design layer and the transparent layer having substantially the same refractive index.

According to another aspect of the present invention, a manufacturing method for a decorative component in which a predetermined pattern is visible when a lighting device provided on the back surface is turned on and the predetermined pattern is invisible when the lighting device is turned off includes a lamination step of forming a laminated film portion by laminating a light-shielding layer that has a material that reacts to laser light and blocks light from the lighting device, and a design layer that transmits light when the lighting device is turned on and has a predetermined transmittance that makes the predetermined pattern invisible when the lighting device is turned off, and sandwiching a transparent layer that is made of a material that does not react to laser light and has substantially the same refractive index as the design layer between the light-shielding layer and the design layer; and a laser processing step of irradiating the laminated film portion with laser light from the light-shielding layer side and removing portions of the light-shielding layer with the laser light to form holes in the predetermined pattern.

In the above aspect, the decorative component includes a transparent layer that is not reactive to laser light, between the design layer and the light-shielding layer that is reactive to laser light. Therefore, when performing laser processing from the light-shielding layer side, it is possible to remove a portion of the light-shielding layer to form a hole for transmitting light from a lighting device, while the design layer is protected from laser light by the transparent layer. Furthermore, the design layer and the transparent layer have substantially the same refractive index. Therefore, when a lighting device is provided on the back of the decorative component and light is irradiated, the light is prevented from being diffused and scattered at the interface between the design layer and the transparent layer. Therefore, when the design layer is viewed with the lighting device turned on, a desirable contrast can be ensured between the area where the specified pattern is located and the adjacent area.

FIG. 1 is a perspective view of an instrument panel to which a decorative part according to an embodiment of the present invention is applied. FIG. 2 is a cross-sectional view showing only a part of the decorative component. FIG. 3A is a cross-sectional view of the decorative component, illustrating the state when the lighting device is turned off. FIG. 3B is a diagram illustrating the display of a predetermined pattern in the state of FIG. 3A. FIG. 4A is a cross-sectional view of the decorative component, illustrating the lighting device when it is turned on. FIG. 4B is a diagram illustrating the display of a predetermined pattern in the state of FIG. 4A. FIG. 5 is a cross-sectional view illustrating the lamination process. FIG. 6 is a cross-sectional view illustrating the shaping step. FIG. 7 is a cross-sectional view illustrating the laser processing step. FIG. 8 is a cross-sectional view illustrating the molding process.

The following describes a decorative component 2 according to an embodiment of the present invention and a method for manufacturing the decorative component 2, with reference to the accompanying drawings.

First, with reference to Figures 1 and 2, we will explain the decorative part 2 and the instrument panel 1 of a vehicle (not shown) such as an automobile to which the decorative part 2 is applied. Figure 1 is a perspective view of the instrument panel 1 to which the decorative part 2 is applied. Figure 2 is a cross-sectional view showing only a portion of the decorative part 2.

As shown in Figures 1 and 2, the instrument panel 1 has a decorative component 2 and a lighting device 30 (see Figure 2). The instrument panel 1 is installed inside the vehicle's cabin. The instrument panel 1 is installed at the front of the cabin, including in front of the driver's seat. Instruments (not shown) that display vehicle information are arranged on the instrument panel 1.

The decorative component 2 is formed in the shape of a free-form surface, at least a portion of which is three-dimensionally curved. The decorative component 2 is exposed inside the vehicle's interior. The decorative component 2 has a plurality of predetermined patterns 3.

The decorative part 2 is provided as part of the instrument panel 1. The decorative part 2 has a predetermined pattern 3 that is visible when the lighting device 30 provided on the rear side is turned on, and the predetermined pattern 3 is not visible when the lighting device 30 is turned off. In other words, the decorative part 2 has a predetermined pattern 3 that does not appear to exist when the lighting device 30 is turned off, and the predetermined pattern 3 is only visible when the lighting device 30 is turned on.

The decorative part 2 is pressed by the user. The decorative part 2 functions as an operating unit (switch) for operating the air conditioning system. The predetermined pattern 3 is a design or text that indicates what operation the operating unit is used for. The decorative part 2 comprises a laminated film part 10 and a substrate 20 (see Figure 2). Note that, hereinafter, the surface of the decorative part 2 that is exposed inside the vehicle cabin will be referred to as the "front surface," the surface facing the lighting device 30 will be referred to as the "rear surface," and the direction in which the laminated film part 10 is laminated will be referred to as the "stacking direction."

As shown in Figure 2, the laminated film portion 10 is formed by stacking multiple layers with different functions in the stacking direction. The laminated film portion 10 has a surface protection layer 11, a support film 12, a design layer 13, a transparent layer 14, and a light-blocking layer 15.

The surface protection layer 11 is a UV coating that protects the surface of the decorative part 2. The surface protection layer 11 is formed from a colorless, transparent resin material.

The support film 12 is a film-like member that supports the design layer 13, transparent layer 14, and light-shielding layer 15 during the manufacturing of the decorative component 2. The support film 12 is formed into a film-like shape from a colorless and transparent material, specifically PC (polycarbonate) resin.

The design layer 13 is laminated on the back surface of the support film 12 and on the surface of the transparent layer 14. The design layer 13 is formed by printing a PU (polyurethane) ink containing a pigment onto the support film 12. The design layer 13 is a translucent decorative layer that reflects light irradiated from the front surface and transmits light from the lighting device 30 irradiated from the back surface. In other words, the design layer 13 transmits light when the lighting device 30 is turned on, and has a predetermined transmittance that makes the predetermined pattern 3 invisible when the lighting device 30 is turned off. The design layer 13 is made of a colored translucent material in which a pigment has been added to the same colorless and transparent material that makes up the transparent layer 14.

The design layer 13 has a main design layer 13a and a chromaticity correction layer 13b. The main design layer 13a and the chromaticity correction layer 13b are each formed by printing PU inks containing different pigments. Because the main design layer 13a and the chromaticity correction layer 13b contain the same PU ink as the transparent layer 14, they have substantially the same refractive index as the transparent layer 14. In other words, the design layer 13 is formed from multiple layers, each of which has substantially the same refractive index as the transparent layer 14.

The main design layer 13a constitutes the design visible from the surface. The main design layer 13a constitutes designs such as piano black or wood grain.

The chromaticity correction layer 13b is formed in the opposite color of the light that passes through the main design layer 13a and is visible from the surface side, so that the light from the lighting device 30 that passes through the design layer 13 appears white. For example, if the main design layer 13a is piano black, the light that passes through the main design layer 13a appears yellow due to the carbon in the piano black, so the chromaticity correction layer 13b is formed as a blue layer, the opposite color of yellow. In this way, the color of the chromaticity correction layer 13b is set to match the color of the main design layer 13a. Note that if the light that passes through the main design layer 13a appears white, the chromaticity correction layer 13b does not need to be provided.

The transparent layer 14 is laminated on the back surface of the design layer 13 and on the surface of the light-shielding layer 15. The transparent layer 14 does not contain carbon. That is, the transparent layer 14 is made of a material that does not react to laser light. "Does not react to laser light" means that the material alone will not be processed when irradiated with laser light, and even if it is processed, the amount is minimal. In this embodiment, even if the transparent layer 14 melts due to the heat generated during laser processing of the light-shielding layer 15 as described below, this is not interpreted as a reaction to the laser light. The transparent layer 14 is made of a colorless and transparent material. The transparent layer 14 is formed by printing a PU ink that does not contain a pigment on the design layer 13. The PU ink that constitutes the transparent layer 14 is the same as the PU ink that constitutes the design layer 13. The transparent layer 14 protects the design layer 13 from laser light during the laser processing process described below. The transparent layer 14 is formed to a thickness of at least 5 μm, preferably 5 to 15 μm. As the laser light that reacts with carbon, for example, a _CO2 laser, a YAG laser, a hybrid laser of _CO2 and YAG, or the like can be used.

The light-shielding layer 15 has a black mask layer 15a, a pressure layer 15b, a protective layer 15c, and a binder layer 15d, arranged in the stacking direction. The light-shielding layer 15 contains carbon. That is, the light-shielding layer 15 has a material that reacts to laser light. The light-shielding layer 15 has a light-shielding portion 16 that blocks light from the lighting device 30, and a laser-processed portion 17 that is formed in the light-shielding portion by laser processing into the shape of a predetermined pattern 3 and serves as a hole that allows light from the lighting device 30 to pass through, arranged in a direction perpendicular to the stacking direction.

The black mask layer 15a is a black, opaque layer. The black mask layer 15a is provided in areas other than the laser-processed areas 17 where the predetermined pattern 3 is formed, and forms the light-shielding areas 16. The black mask layer 15a is formed by printing a PU ink containing a pigment on top of the transparent layer 14.

The pressure layer 15b is provided to hold down the black mask layer 15a. The pressure layer 15b is provided in areas other than the laser-processed area 17 where the predetermined pattern 3 is formed. The pressure layer 15b is formed by printing a PU ink containing pigment on top of the black mask layer 15a.

The protective layer 15c is provided to protect the black mask layer 15a. The protective layer 15c is provided in areas other than the laser-processed area 17 where the predetermined pattern 3 is formed. The protective layer 15c is formed by printing a PU ink containing a pigment on top of the pressing layer 15b.

The binder layer 15d is a binder material used to bond the light-shielding layer 15 and the substrate 20. The binder layer 15d is provided in areas other than the laser-processed areas 17 where the predetermined pattern 3 is formed. The binder layer 15d is formed by printing a PU ink containing a pigment on top of the protective layer 15c.

The substrate 20 is provided on the back surface of the light-shielding layer 15. The substrate 20 is formed from a different resin than the laminated film portion 10, specifically PC (polycarbonate) resin. Instead of PC resin, PMMA (Poly Methyl Methylacrylate) or PC resin + ABS (Acrylonitrile Butadiene Styrene) resin may be used. The substrate 20 covers the back surface of the light-shielding portion 16 and is formed to penetrate the laser-processed portion 17. The substrate 20 guides light emitted by the lighting device 30 to the laser-processed portion 17, where the predetermined pattern 3 is formed. The substrate 20 is molded integrally with the laminated film portion 10 using a molding process described below.

Next, the function of the decorative part 2 will be described with reference to Figures 3A to 4B. Figure 3A is a cross-sectional view of the decorative part 2 and illustrates the state when the lighting device 30 is off. Figure 3B is a diagram illustrating the display of predetermined pattern 3 in the state shown in Figure 3A. Figure 4A is a cross-sectional view of the decorative part 2 and illustrates the state when the lighting device 30 is on. Figure 4B is a diagram illustrating the display of predetermined pattern 3 in the state shown in Figure 4A. Figures 3B and 4B show an example of predetermined pattern 3 used when setting the air conditioning system to internal air circulation.

As shown in Figure 3A, when the lighting device 30 is turned off, light such as natural light irradiated from the surface of the decorative component 2 is reflected by the surface of the main design layer 13a of the design layer 13 and does not pass through the decorative component 2. Therefore, as shown in Figure 3B, the predetermined pattern 3 is not visible from the surface.

On the other hand, as shown in Figure 4A, when the lighting device 30 is turned on, light emitted by the lighting device 30 from the back surface of the decorative part 2 passes through the decorative part 2 from the back surface to the front surface. Therefore, as shown in Figure 4B, the predetermined pattern 3 is visible from the front surface.

In this case, the design layer 13 is formed from multiple layers (main design layer 13a and chromaticity correction layer 13b), each of which has substantially the same refractive index as the transparent layer 14. This prevents light from the lighting device 30 from being diffused and scattered at the interface between the design layer 13 and the transparent layer 14. If such diffuse reflection were to occur, a small amount of light would be transmitted through areas of the design layer 13 where the predetermined pattern 3 is not present, resulting in the outline of the predetermined pattern 3 appearing blurred. In contrast, this embodiment prevents the outline of the predetermined pattern 3 from appearing blurred. In other words, when the design layer 13 is viewed with the lighting device 30 turned on, a desirable contrast is ensured between the area where the predetermined pattern 3 is located and its adjacent areas.

Next, the manufacturing method for producing the decorative component 2 will be described with reference to Figures 5 to 8.

First, as shown in Figure 5, a light-shielding layer 15 containing carbon that blocks light from the lighting device 30 is laminated to a design layer 13 having a predetermined transmittance that allows light to pass through when the lighting device 30 is turned on and makes the predetermined pattern 3 invisible when the lighting device 30 is turned off. A transparent layer 14 that does not contain carbon and has substantially the same refractive index as the design layer 13 is then sandwiched between the light-shielding layer 15 and the design layer 13 (lamination process).

Specifically, PU inks that form the main design layer 13a and chromaticity correction layer 13b are printed in this order from the top (back) of the support film 12 to form the design layer 13, PU inks that form the transparent layer 14 are printed on top of the design layer 13, and PU inks that form the black mask layer 15a, pressing layer 15b, protective layer 15c, and binder layer 15d are printed in this order from top of the transparent layer 14 to form the light-blocking layer 15. This forms the laminated film part 10.

In this case, the design layer 13, transparent layer 14, and light-blocking layer 15 contain the same material (PU). This allows for good adhesion between the design layer 13, transparent layer 14, and light-blocking layer 15.

Also, at this point, the support film 12 is formed in a flat shape. Therefore, the design layer 13, transparent layer 14, and light-shielding layer 15 can be formed by screen printing.

Next, as shown in Figure 6, the laminated film portion 10 formed in the lamination process is shaped into a three-dimensionally curved shape (shaping process).

Specifically, in the shaping process, the laminated film part 10 is placed in a shaping device 40 and shaped. In the shaping process, the laminated film part 10 is heated to soften it, and then pressurized to shape it in a deformable state, and then cooled to harden it. This gives the laminated film part 10 its final shape that will form the vehicle decorative component 2.

Next, as shown in Figure 7, a laser device 50 is used to irradiate laser light from the light-shielding layer 15 side of the laminated film portion 10, removing part of the light-shielding layer 15 with the laser light to form a predetermined pattern 3 on the laminated film portion 10 (laser processing process).

Specifically, the focal point 51 of the laser light emitted by the laser device 50 is set to a position within the light-shielding layer 15 away from the transparent layer 14. The energy of the laser light is concentrated at the focal point 51, generating heat in each layer of the light-shielding layer 15 that contains carbon. This heat causes each layer of the light-shielding layer 15 to sublimate, forming a laser-processed portion 17 in the shape of the predetermined pattern 3 in part of the light-shielding portion 16.

At this time, the laminated film portion 10 is provided with a transparent layer 14 that does not contain carbon, so the design layer 13 is protected by the transparent layer 14 and is not affected by the laser light. Therefore, it is possible to remove part of the light-shielding layer 15 and form the laser-processed portion 17 without affecting the design layer 13.

As described above, the decorative part 2 comprises a light-shielding layer 15 containing carbon and a transparent layer 14 that does not contain carbon. The light-shielding layer 15 has a light-shielding portion 16 that blocks light from the lighting device 30 and a laser-processed portion 17 that is formed in the light-shielding portion 16 by laser processing into a predetermined pattern 3 and allows light from the lighting device 30 to pass through. Because the carbon-free transparent layer 14 is provided, the design layer 13 is protected by the transparent layer 14, and it is possible to form the laser-processed portion 17 by removing a portion of the light-shielding layer 15 with laser light without affecting the design layer 13. Therefore, for example, when forming a predetermined pattern 3 on a three-dimensionally curved surface, it is possible to form the predetermined pattern 3 by laser processing after shaping the decorative part 2. This improves the positional accuracy of the predetermined pattern 3 on the decorative part 2.

Next, the laminated film unit 10 is inverted upside down (front and back) to be placed inside the mold device 60 (inversion process).

Next, as shown in Figure 8, the laminated film part 10 is placed in the first die 61 on the movable side of the mold device 60 so that the light-shielding layer 15 faces the second die 62 on the fixed side of the mold device 60, and then insert molding is performed using a transparent resin (molding process).

Specifically, with the laminated film portion 10 placed in the first die 61 of the mold device 60, colorless and transparent PC resin is filled into the mold device 60 through the gate 63. The first die 61 is then separated from the second die 62, and the molded product is released from the second die 62 by being pushed out by an ejector pin (not shown). This forms the substrate 20 on the back surface of the light-shielding layer 15 in the laminated film portion 10.

As described above, the decorated part 2 is formed by performing the laminating process, shaping process, laser processing process, inversion process, and molding process.

The above embodiment provides the following advantages:

The decorative component 2 has a predetermined pattern 3 that is visible when the lighting device 30 on its back is turned on, but is invisible when the lighting device 30 is turned off. The decorative component 2 has laser-machined sections 17 that allow light from the lighting device 30 to pass through, formed in the predetermined pattern 3. It comprises a light-shielding layer 15 made of a material that reacts to laser light, a transparent layer 14 laminated on the surface of the light-shielding layer 15 and made of a material that does not react to laser light, and a design layer 13 laminated on the surface of the transparent layer 14, which has a predetermined transmittance that allows light to pass through when the lighting device 30 is turned on and makes the predetermined pattern 3 invisible when the lighting device 30 is turned off; the design layer 13 and transparent layer 14 have substantially the same refractive index.

In addition, a manufacturing method for producing a decorative component 2 in which a predetermined pattern 3 is visible when a lighting device 30 provided on the back surface is turned on and the predetermined pattern 3 is invisible when the lighting device 30 is turned off includes a lamination process in which a light-shielding layer 15 made of a material that reacts to laser light and blocks light from the lighting device 30 is sandwiched between a design layer 13 that transmits light when the lighting device 30 is turned on and has a predetermined transmittance that makes the predetermined pattern 3 invisible when the lighting device 30 is turned off, and a transparent layer 14 made of a material that does not react to laser light and has substantially the same refractive index as the design layer 13 to form a laminated film portion 10; and a laser processing process in which laser light is irradiated onto the laminated film portion 10 from the light-shielding layer 15 side and a portion of the light-shielding layer 15 is removed with the laser light to form a laser-processed portion 17 of the predetermined pattern 3.

In these configurations, the decorative part 2 includes a transparent layer 14 that is not reactive to laser light, between the design layer 13 and the light-shielding layer 15 that is reactive to laser light. Therefore, while the design layer 13 is protected from laser light by the transparent layer 14, it is possible to remove a portion of the light-shielding layer 15 to form a laser-processed portion 17 that transmits light from the lighting device 30. Furthermore, the design layer 13 and the transparent layer 14 have substantially the same refractive index. Therefore, when the lighting device 30 is provided on the back of the decorative part 2 and light is irradiated, diffuse reflection and diffusion of light at the interface between the design layer 13 and the transparent layer 14 can be prevented. Therefore, when the design layer 13 is viewed with the lighting device 30 turned on, a desirable contrast can be ensured between the area where the predetermined pattern 3 is located and the adjacent area.

When forming the predetermined pattern 3 in the laser processing step, the focal point 51 of the laser light emitted by the laser device 50 is set to a position within the light-shielding layer 15 away from the transparent layer 14. The energy of the laser light is concentrated at the focal point 51, generating heat in each layer of the light-shielding layer 15 that contains carbon. This heat sublimes each layer of the light-shielding layer 15, forming a laser-processed portion 17 in the shape of the predetermined pattern 3 in part of the light-shielding portion 16.

At this time, the laminated film portion 10 is provided with a transparent layer 14 that does not contain carbon, so the design layer 13 is protected by the transparent layer 14 and is not affected by the laser light. Therefore, it is possible to remove part of the light-shielding layer 15 and form the laser-processed portion 17 without affecting the design layer 13.

Therefore, for example, when forming a predetermined pattern 3 on a three-dimensionally curved surface, it is possible to form the predetermined pattern 3 by laser processing after shaping the decorative part 2. This allows for improved positional accuracy of the predetermined pattern 3 on the decorative part 2.

The above describes embodiments of the present invention, but these embodiments merely illustrate some of the application examples of the present invention, and are not intended to limit the technical scope of the present invention to the specific configurations of the above embodiments.

REFERENCE SIGNS LIST 1 Instrument panel 2 Decorative part 3 Predetermined pattern 10 Laminated film portion 13 Design layer 13a Main design layer 13b Chromaticity correction layer 14 Transparent layer 15 Light-shielding layer 16 Light-shielding portion 17 Laser processing portion 30 Lighting device 50 Laser device 60 Mold device 61 First mold 62 Second mold

Claims (10)

A decorative component in which a predetermined pattern is visible when an illumination device provided on a rear surface thereof is turned on, and the predetermined pattern is invisible when the illumination device is turned off,
a light-shielding layer having holes formed in the predetermined pattern for transmitting light from the lighting device and having a material that reacts to laser light;
a transparent layer laminated on the surface of the light-shielding layer and made of a material that does not react to laser light;
a design layer laminated on a surface of the transparent layer, the design layer having a predetermined transmittance that transmits light when the lighting device is turned on and makes the predetermined pattern invisible when the lighting device is turned off;
Equipped with
The design layer and the transparent layer have substantially the same refractive index.
A decorative part characterized by: The decorative component according to claim 1,
the transparent layer is made of a colorless and transparent material,
The design layer is composed of a colored translucent material obtained by adding a pigment to the colorless and transparent material.
A decorative part characterized by: The decorative component according to claim 1 or 2,
The design layer is formed of a plurality of layers each having substantially the same refractive index as the transparent layer.
A decorative part characterized by: The decorative component according to any one of claims 1 to 3,
The design layer, the transparent layer, and the light-shielding layer contain the same material.
A decorative part characterized by: A manufacturing method for manufacturing a decorative component in which a predetermined pattern is visible when an illumination device provided on a rear surface thereof is turned on, and the predetermined pattern is invisible when the illumination device is turned off, comprising:
a lamination process for forming a laminated film portion by sandwiching a transparent layer made of a material that does not react to laser light and having substantially the same refractive index as the design layer between a light-shielding layer that has a material that reacts to laser light and blocks light from the lighting device and a design layer that has a predetermined transmittance that transmits light when the lighting device is turned on and makes the predetermined pattern invisible when the lighting device is turned off;
a laser processing step of irradiating the laminated film portion with laser light from the light-shielding layer side and removing parts of the light-shielding layer with the laser light to form holes in the predetermined pattern,
A method for manufacturing a decorative part, comprising: A method for manufacturing a decorated component according to claim 5,
the transparent layer is made of a colorless and transparent material,
The design layer is composed of a colored translucent material obtained by adding a pigment to the colorless and transparent material.
A method for manufacturing a decorative part, comprising: A method for manufacturing a decorative part according to claim 5 or 6,
The design layer is formed of a plurality of layers each having substantially the same refractive index as the transparent layer.
A method for manufacturing a decorative part, comprising: A method for manufacturing a decorated component according to any one of claims 5 to 7,
The design layer, the transparent layer, and the light-shielding layer contain the same material.
A method for manufacturing a decorative part, comprising: A method for manufacturing a decorated component according to any one of claims 5 to 8,
The method further includes a shaping step of shaping the laminated film portion laminated by the lamination step into a three-dimensionally curved shape before the laser processing step.
A method for manufacturing a decorative part, comprising: A method for manufacturing a decorated component according to any one of claims 5 to 9,
a molding step of insert-molding the laminated film portion with a transparent resin in a state where the laminated film portion is disposed in a first mold of a mold device so that the light-shielding layer faces a second mold of the mold device,
A method for manufacturing a decorative part, comprising: