TWI592316B - A multi-layer panel and a three-dimensional structure of the panel and its manufacturing method - Google Patents

Description

Panel with multi-level drawing surface and three-dimensional structure and manufacturing method thereof

The present invention relates to a panel and a method of manufacturing the same, and more particularly to a panel having a multi-level drawing and a three-dimensional structure and a method of manufacturing the same.

With the improvement of the aesthetic level of life, from personal accessories to home furniture, we are striving to show personal taste and traits. Therefore, products that can be customized to present consumer demand are gradually becoming the mainstream of the market.

Moreover, most of the items in daily life are made up of panels. Therefore, in order to be able to customize a specific texture, it is usually handled from the surface and structure of the panel. Taking the album cover as an example, the traditional album cover is only printed on a plate, and then covered with a transparent film as a protection, not only simple and monotonous. With the market demand, from the design of the pattern to the material used for the sheet and film, it can be made and adjusted one by one according to the customer's needs, and even through the surface treatment, to change the texture it presents. Among them, the crystal process is a treatment method that can make the coated panel more durable, heat-resistant and wear-resistant, and also can improve the color saturation of the panel surface, and is more translucent, and can also generate space through the mirror effect. Extending the sense of depth. The general crystal process includes piano paint treatment and stickers on photo paper. There are two ways to cover the crystal bright film. However, since the piano paint requires complicated processing such as painting and polishing, the price is high; and the transparency of the crystal bright film is similar to that of the piano paint, and the process is relatively simple and low in cost, so often An alternative to piano paint. However, at present, it is only seen in the crystal process on the surface of a single panel. There is no overlapping design concept, and the crystal process panel is combined with the general painted panel to make them set off each other, and the layers on the panel are multi-layered. The three-dimensional sense.

Accordingly, it is an object of the present invention to provide a panel having a multi-layered drawing and a three-dimensional structure in which a mutually overlapping drawing surface is produced. And according to its structural aspect is divided into the following four:

The first panel comprises a panel unit, a panel unit and a fixed frame.

The panel unit includes a substrate, a fascia, and at least one transparent plate. The substrate has an upper surface and an outer peripheral surface that connects the periphery of the upper surface. The plaque has a top surface and can be joined to the transparent plate adjacent to each other and disposed together on the upper surface. The drawing unit includes a main drawing surface which is disposed on the upper surface, and a sub-picture surface which is covered on the top surface by a crystal process, so that the main drawing surface and the surface of the sub-picture surface form an overlapping design. In turn, a stereoscopic feeling is produced. The fixing frame is disposed along the outer peripheral surface, and is configured to sandwich the plaque and the transparent plate on the substrate together, and can block the periphery of the upper surface.

The second panel comprises a panel unit, a picture unit and a fixed frame.

The panel unit includes a substrate in a hierarchy and at least one transparent plate. The substrate has an upper surface, a lower surface, and an outer peripheral surface interposed between the upper and lower surfaces and connected to the periphery of the lower surface. The upper surface is divided into a high-order face and a low-order face according to the level of the hierarchy. The transparent plate is disposed on the low-order face. The picture unit includes a main picture surface disposed on the low-order surface, and a sub-picture surface that is overlaid on the high-order surface by a crystal process, so that the main picture surface and the surface of the sub-picture surface are overlapped. , which in turn produces a stereoscopic visual experience. The fixing frame is disposed along the outer peripheral surface and is used for clamping the transparent plate frame to the substrate, and can block the low-order surface periphery.

The third panel includes a panel unit, a panel unit, and a fixed frame.

The panel unit includes a layered substrate and at least one trim. The substrate has an upper surface, a lower surface, and an outer peripheral surface interposed between the upper and lower surfaces and connected to the periphery of the lower surface. The upper surface is divided into a high-order face and a low-order face according to the level of the hierarchy. The fascia is disposed on the low-order face and has a top surface and exposes a portion of the low-order surface. The picture unit includes a main picture surface and a sub-picture surface that is overlaid on the top surface by a crystal process. The main mask has a first main image surface that is overlaid on the high-order surface, and a second main image surface that is disposed on the low-level surface. The main picture surface and the surface of the sub-picture surface form an overlapping design, thereby generating a stereoscopic visual experience. The fixing frame is disposed along the outer peripheral surface and is used for clamping the plaque frame to the substrate and shielding the high-order facial periphery.

The fourth panel includes a panel unit, a panel unit, and a fixed frame.

The panel unit includes a substrate of a transparent material and a decorative panel. The substrate has an upper surface, a lower surface, and an outer peripheral surface between the upper and lower surfaces. The plaque has a top surface, a connecting surface, and a side peripheral surface between the top surface and the connecting surface. The connecting surface is in contact with the upper surface to form a seam between the side peripheral surface and the outer peripheral surface. The drawing unit includes a main drawing surface and a drawing surface. The main mask has a first main image surface that is disposed on the upper surface, and a second main image surface that is disposed on the lower surface. The sub-pattern mask has a first sub-picture surface that is disposed on the top surface, and a second sub-picture surface that is disposed on the connection surface. The main picture surface and the surface of the sub-picture surface form an overlapping design, thereby generating a stereoscopic visual experience. The fixing frame is disposed along the outer peripheral surface and is used for frame clamping the substrate and the plaque and closing the seam.

In addition, another object of the present invention is to provide a manufacturing method of a panel having a multi-level drawing and a three-dimensional structure, and to divide into three manufacturing methods according to the level of the drawing that can be generated:

The first method of manufacturing a panel includes the following steps:

Step A: Sheet processing: A substrate is processed to make it hierarchical. The upper surface of the substrate can be distinguished into a high-order face, and a lower-order face lower than the high-order face, and a contour is formed between the high- and low-order faces. At the same time, a plaque with a shape associated with the contour is machined.

Step B: Surface treatment of the sheet: lacquering the high-order face to cover a first main figure face. The low-order face is painted to cover a second main figure face. A crystal process is performed on the top surface of the fascia, and a pair of drawings is covered.

Step C: Assembling: the plaque is placed on the low-order face, and a part of the second main figure is exposed, and the substrate and the plaque are sandwiched by a fixed frame.

The second panel manufacturing method includes the following steps:

Step A: Front surface treatment of the sheet surface: lacquering the upper surface of a substrate to cover a first main figure surface.

Step B: Sheet processing: The substrate is processed to form a layer. The upper surface of the substrate can be divided into a high-order face that retains a portion of the first main figure face, and a low-order face that is lower than the high-order face, and a contour is formed between the high- and low-order faces. At the same time, a plaque with a shape associated with the contour is machined.

Step C: Back surface treatment of the sheet surface: lacquering the low-order surface to form a second main pattern surface. A crystal process is performed on the top surface of the plaque to cover a pair of drawings.

Step D: Assembling: the plaque is placed on the low-order face, and a part of the second main figure face is exposed, and the substrate and the plaque are sandwiched by a fixed frame.

The third panel manufacturing method includes the following steps:

Step A: Surface treatment of the sheet: a main surface is coated on the upper surface of a substrate. A crystal process is performed on the top surface of a plaque to cover a picture.

Step B: Assembling: the plaque and a transparent plate are adjacently joined together, and are disposed on the upper surface of the substrate together, and the plaque and the transparent plate are framed together with the transparent plate by a fixing frame.

The effect of the present invention is that the substrate and the fascia form a three-dimensional structure, so that the surface of the upper surface and the top surface can be made to have a difference in surface and light and shadow through the three-dimensional structure. The main picture surface and the surface of the sub-picture surface form an overlapping design, thereby generating a stereoscopic visual experience.

100,400,500,700‧‧‧ Panel unit

110,410,510,710‧‧‧substrate

111,411,511,711‧‧‧ upper surface

112,412,512,712‧‧‧ outer perimeter

120,520,720‧‧‧ plaque

121,521,721‧‧‧ top

130, 430‧‧ ‧ transparent board

200,600,800‧‧‧Drawing unit

210,610,810‧‧‧ main picture

220,620,820‧‧‧ 副图

300‧‧‧Fixed frame

413,513,713‧‧‧ lower surface

414,514‧‧‧High-order face

415,515‧‧‧Low-order face

611,811‧‧‧First main picture face

612,812‧‧‧Second main picture face

722‧‧‧ Connection surface

723‧‧‧ side circumference

740‧‧‧Seam

821‧‧‧First picture face

822‧‧‧Second picture face

A, B, C‧‧ Sight

S91~S92‧‧‧Steps

S101~S103‧‧‧Steps

S111~S114‧‧‧Steps

Other features and effects of the present invention will be apparent from the embodiments of the present invention. FIG. 1 is a perspective cross-sectional view illustrating a first embodiment of a panel having a multi-level drawing and a three-dimensional structure of the present invention. 2 is a partial cross-sectional view showing a panel unit in the first embodiment, and a panel unit disposed on the panel unit; FIG. 3 is a perspective cross-sectional view showing the multi-layer diagram of the present invention. A second embodiment of a panel having a face and a three-dimensional structure; FIG. 4 is an incomplete cross-sectional view showing a panel unit in the second embodiment, and a panel unit disposed on the panel unit; Is a perspective cross-sectional view showing a third embodiment of the panel of the present invention having a multi-level drawing and a three-dimensional structure; Figure 6 is an incomplete cross-sectional view showing a panel unit in the third embodiment, and a panel unit disposed on the panel unit; Figure 7 is a perspective cross-sectional view showing the multi-layered surface of the present invention And a fourth embodiment of the panel of the three-dimensional structure; and FIG. 8 is an incomplete cross-sectional view illustrating a panel unit in the fourth embodiment and a panel unit disposed on the panel unit; FIG. Is a flowchart illustrating one of the manufacturing methods of the panel having the multi-level drawing and the three-dimensional structure of the present invention; and FIG. 10 is a flowchart illustrating another manufacturing method of the panel having the multi-level drawing and the three-dimensional structure of the present invention; Figure 11 is a flow chart showing still another manufacturing method of the panel of the present invention having a multi-level drawing and a three-dimensional structure.

Before the present invention is described in detail, it should be noted that in the following description, similar elements are denoted by the same reference numerals.

Referring to FIG. 1 and FIG. 2, a first embodiment of a panel having a multi-level drawing and a three-dimensional structure includes a panel unit 100, a drawing unit 200, and a fixing frame 300.

The panel unit 100 includes a substrate 110, a fascia 120, and two transparent plates 130. The substrate 110 has an upper surface 111 and a circumference connecting the upper surface 111 The outer peripheral surface 112 of the rim. The fascia 120 has a top surface 121 and can be joined to the transparent plates 130 adjacent to each other and disposed on the upper surface 111 together. It should be noted that the panel of the present invention is intended to be used as a cover for a cover, a jewelry box, a cabinet, a car wooden interior, a key cradle, a panel of a wooden audio device, etc. . Moreover, these articles are usually wood materials; therefore, in the present embodiment, the material of the substrate 110 is wood, but is not limited thereto. In addition, for the fascia 120, a suitable material such as metal or wood can be selected depending on its shape, size, and texture desired by the customer. And the transparent plate 130 is used as the upper surface 111 for protecting and exposing; and the top surface of each transparent plate 130 is substantially flush with the top surface 121 of the decorative plate 120, so that the panel unit 100 The overall surface is flat and presents a sense of unity.

The drawing unit 200 includes a main drawing surface 210 disposed on the upper surface 111 and a sub-surface 220 disposed on the top surface 121 via a crystal process. It should be noted that the main surface 210 can be applied to the upper surface 111 by using a photographic paper, a crystal process, or a general lacquering process in accordance with the material of the substrate 110 and the customer's needs. In addition, in the embodiment, the crystal process refers to one of two ways of processing the piano paint and attaching the crystal bright film on the photo paper. The processing method of the piano paint is to first apply the sub-surface 220 to the top surface 121, and repeat the process of painting, polishing, etc., so that the surface of the sub-surface 220 has a high transmittance. Paint layer. The crystal bright film is used to replace the paint layer and can be attached to the side surface 220. Make it look like piano paint. More importantly, both of the above methods can produce a mirror effect, and the viewer can create a spatially extended depth perception of the sub-picture 220.

The fixing frame 300 is disposed along the outer peripheral surface 112 and is used to frame the fascia 120 together with the transparent plates 130 on the substrate 110 and to block the periphery of the upper surface 111. It is worth mentioning that, according to the Patent No. M477387 of the Republic of China, which has been filed by the applicant, a fixed frame structure has been disclosed which uses a plurality of fixing strips adjacent to each other to close the seam between the different sheets. Therefore, the fixed frame 300 of the present invention will follow this design architecture, and the related components and structures will not be described herein.

Thereby, the substrate 110 and the fascia 120 form a three-dimensional structure such that there is a height difference between the sub-surface 220 of the top surface 121 and the main surface 210 of the upper surface 111. In this way, when a viewer looks at the embodiment, a line A and a line of sight B are respectively emitted from the high and low levels of the picture unit 200. The line of sight A sees the sub-picture 220, and the line of sight B passes through the transparent plate 130 to see the main picture 210. Moreover, since the sub-picture surface 220 is processed by the crystal process, the mirror effect is such that the line of sight A that the viewer thinks is shorter than the actual distance. In short, the viewer creates the illusion that the sub-picture 220 floats on the top surface 121. At the same time, because the line of sight B penetrates through the transparent plate 130, the penetrating effect of the light causes the viewer to think that the line of sight B is longer than the actual distance, so that the viewer generates the main picture 210 to sink on the line. The illusion of surface 111. In this way, the main image 210 and the sub-picture 220 can be more prominent through the visual effects produced by the composition of the lines of sight A and B. The layering of the fascia 120 also forms a shadow on the substrate 110, which further allows the viewer to create a feeling that the sub-picture surface 220 is on the main picture surface 210. In addition, the main drawing surface 210 and the sub-picture surface 220 have a concept of overlapping design with each other, which enables the viewer to generate a stereoscopic visual feeling for the drawing unit 200.

In addition, corresponding to the above panel structure, a manufacturing method can be summarized, and the steps thereof are as shown in FIG. 9:

Step S91: Surface treatment of the board.

The main surface 210 is placed on the upper surface 111 of the substrate 110, and a crystal process is performed on the top surface 121 of the fascia 120 to cover the sub-surface 220.

Step S92: assembly.

The fascia 120 and the transparent plates 130 are adjacently joined together and disposed on the upper surface 111 of the substrate 110, and the fascia 120 is sandwiched on the substrate 110 together with the transparent plate 130 by the fixing frame 300.

In addition, it is worth mentioning that the above-described three-dimensional structure can also be produced by cutting the substrate 110 by a processing tool such as a laser engraving machine or a computer numerical processing machine (CNC). In this way, the fascia 120 is not required, and the panel unit 100 can be simplified to another aspect.

Therefore, referring to FIG. 3 and FIG. 4, a second embodiment of the panel having a multi-level drawing and a three-dimensional structure comprises a panel unit 400, a drawing unit 200, and a fixing frame 300.

The panel unit 400 includes a substrate 410 in a hierarchical shape and two transparent plates 430. The substrate 410 has an upper surface 411, a lower surface 413, and an outer peripheral surface 412 interposed between the upper and lower surfaces 411 and 413 and connected to the periphery of the lower surface 413. The upper surface 411 is divided into a high-order surface 414 and a low-order surface 415 according to the level of the hierarchy. The transparent plates 430 are disposed on the low-order surface 415, and the top surface of each transparent plate 430 is substantially flush with the high-order surface 414.

The drawing unit 200 includes a main surface 210 that is disposed on the lower-order surface 415, and a sub-surface 220 that is overlaid on the high-order surface 414 by a crystal process. In the embodiment, the crystal process refers to one of two ways of processing the piano paint and attaching the crystal bright film on the photo paper. The piano paint is processed by first attaching the sub-surface 220 to the high-order surface 414, and repeating the process of painting, polishing, etc., so that the surface of the sub-surface 220 has a high transmittance. Paint layer. The crystal bright film is used to replace the paint layer, and can be attached to the side surface 220 to have a texture like piano paint. More importantly, both of the above methods can produce a mirror effect, and the viewer can create a spatially extended depth perception of the sub-picture 220.

The fixing frame 300 is disposed along the outer circumferential surface 412 and is used to frame the transparent plate 430 on the substrate 410 and can block the periphery of the low-order surface 415.

In this way, when a viewer looks at the embodiment, a line of sight A and a line of sight B are also issued to the sub-picture 220 and the main picture 210, respectively. Moreover, the visual effects produced by the composition of the lines of sight A and B are similar to those of the first embodiment described above. The main picture 210 and the sub-picture 220 have a more significant layering. In addition, the main drawing surface 210 and the sub-picture surface 220 have a concept of overlapping design with each other, which enables the viewer to generate a stereoscopic visual feeling for the drawing unit 200.

The panel structure described above is matched with the drawing unit 200, and the generated layer level is only two layers. However, if you can increase the level of the picture, it may provide a richer visual perception of the viewer.

Therefore, referring to FIG. 5 and FIG. 6, a third embodiment of the panel having a multi-level drawing and a three-dimensional structure comprises a panel unit 500, a drawing unit 600, and a fixing frame 300.

The panel unit 500 includes a substrate 510 and a fascia 520. The substrate 510 has an upper surface 511, a lower surface 513, and an outer peripheral surface 512 interposed between the upper and lower surfaces 511 and 513 and connected to the periphery of the lower surface 513. The upper surface 511 is divided into a high-order surface 514 and a low-order surface 515 according to the level of the hierarchy. The fascia 520 is disposed on the low-order surface 515 and has a top surface 521 and exposes a portion of the low-order surface 515.

The drawing unit 600 includes a main drawing surface 610 and a sub-picture surface 620 that is overlaid on the top surface 521 by a crystal process. The main drawing surface 610 has a first main drawing surface 611 which is disposed on the high-order surface 514, and a second main drawing surface 612 which is disposed on the low-order surface 515. In the embodiment, the crystal process refers to one of two ways of processing the piano paint and attaching the crystal bright film on the photo paper. Among them, the piano paint The method is to first apply the sub-surface 620 to the top surface 521, and repeat the process of painting, polishing, etc., so that the surface of the sub-surface 620 has a layer of high transmittance. The crystal bright film is used to replace the paint layer, and can be attached to the sub-picture 620 to have a texture like piano paint. More importantly, both of the above methods can produce a mirror effect, so that the viewer creates a spatially extended depth sense for the sub-picture 620.

The fixing frame 300 is disposed along the outer peripheral surface 512 and is used for clamping the plaque 520 to the substrate 510 and shielding the periphery of the high-order surface 514.

It should be noted that the fascia 520 does not completely obscure the low-order face 515, so that the second main figure face 612 can partially appear. In this way, when a viewer looks at the embodiment, a line of sight A, a line of sight B, and a line of sight C are respectively issued to the level of the picture unit 600. The line of sight A sees the first main picture face 611, and the line of sight B sees the second main picture face 612, which sees the sub-picture face 620. Moreover, since the sub-picture surface 620 is processed by the crystal process, the mirror effect is such that the line of sight C considered by the viewer is shorter than the actual distance. In short, the viewer creates the illusion that the sub-picture 620 floats on the top surface 521. At the same time, because the line of sight B is longer than the line of sight A, the viewer is caused to have a visually pleasing visual interpretation of the main picture 610. In this way, the visual effect produced by the composition of the lines of sight A, B, and C enables the main surface 610 and the sub-surface 620 to produce a richer layering, while the thickness of the plaque 520 A shadow is also formed on the substrate 510, and a groove is formed between the plaque 520 and the substrate 510, and the sub-surface 620 and the first main The figure faces 611 are placed against each other, which allows the viewer to create a feeling that the sub-picture 620 has a view on the main picture 610. In addition, the main drawing surface 610 and the sub-picture surface 620 have a concept of overlapping design with each other, which enables the viewer to generate a stereoscopic visual feeling for the drawing unit 600.

Corresponding to the panel structure of the third embodiment, two other manufacturing methods can be summarized, and the steps of one method are as shown in FIG. 10:

Step S101: sheet processing.

The substrate 510 is processed to have a hierarchical shape. The upper surface 511 of the substrate 510 can be divided into the high-order surface 514, and the lower-order surface 515 lower than the high-order surface 514, and a contour is formed between the high- and low-order surfaces 514, 515. At the same time, the fascia 520 having a shape associated with the contour is machined.

Step S102: Surface treatment of the board.

The high-order face 514 is painted to cover the first main figure face 611. The low-order face 515 is painted to cover the second main figure face 612. A crystal process is performed on the top surface 521 of the fascia 520 to cover the sub-surface 620.

Step S103: assembly.

The fascia 520 is disposed on the low-order surface 515, and a portion of the second main surface portion 612 is exposed, and the substrate 510 and the fascia 520 are framed by the fixing frame 300.

The steps of another method are shown in Figure 11:

Step S111: processing the front end of the sheet surface.

The upper surface 511 of the substrate 510 is painted to cover the first main surface portion 611.

Step S112: sheet processing.

The substrate 510 is processed to have a hierarchical shape. The upper surface 511 of the substrate 510 can be divided into the high-order surface 514 that retains a portion of the first main-surface portion 611, and the lower-order surface 515 that is lower than the high-order surface 514, and at the high- and low-order faces 514, 515. The contour is formed between; at the same time, the trim 520 having a shape associated with the contour is machined.

Step S113: processing the back surface of the sheet surface.

The low-order face 515 is painted to form the second main figure face 612. A crystal process is performed on the top surface 521 of the fascia 520 to cover the sub-surface 620.

Step S114: Assembly.

The fascia 520 is disposed on the low-order surface 515, and a portion of the second main surface portion 612 is exposed, and the substrate 510 and the fascia 520 are framed by the fixing frame 300.

It should be noted that the above two manufacturing methods are respectively applicable to different drawing configurations. For example, if the area between the main picture 610 and the sub-picture 620 in the picture unit 600 is clearly defined, as shown in FIG. 5, a line may be used between the main picture 610 and the sub-picture 620. If the zones are separated, the manufacturing process can be performed through steps S101 to S103 to save the processing flow. On the other hand, if it is the main surface 610 in the drawing unit 600 In addition to the sub-picture surface 620, it is necessary to perform the corresponding manufacturing process through steps S111 to S114.

In summary, the present invention can form a three-dimensional structure through different substrates and plaques, and can produce a near-distance difference and a light-shadow change on the surface of the surface, and pass through the main and sub-pictures with overlapping design. The visual effect produced by the surface can indeed increase the visual stereoscopic effect exhibited by the viewer as a whole of various picture elements, and thus the object of the present invention can be achieved.

In addition, according to the same concept, if a transparent material plate is used as the substrate and the fascia, the layers respectively coated on the surface thereof can still be used to lay out the layer level by the thickness of each plate. The light transmissivity of the panels allows the panels to create a three-dimensional effect along the vertical surface.

Therefore, as shown in FIG. 7 and FIG. 8, a fourth embodiment of the panel having a multi-level drawing and a three-dimensional structure comprises a panel unit 700, a drawing unit 800, and a fixing frame 300.

The panel unit 700 includes a substrate 710 of a transparent material and a trim 720. The substrate 710 has an upper surface 711, a lower surface 713, and an outer peripheral surface 712 interposed between the upper and lower surfaces 711 and 713. The fascia 720 has a top surface 721, a connecting surface 722, and a side peripheral surface 723 between the top surface 721 and the connecting surface 722. The connecting surface 722 is in contact with the upper surface 711 such that a seam 740 is formed between the side peripheral surface 723 and the outer peripheral surface 712.

The drawing unit 800 includes a main drawing surface 810 and a sub-drawing surface 820. The main drawing surface 810 has a first main drawing surface 811 which is disposed on the upper surface 711, and a second main drawing surface 812 which is disposed on the lower surface 713. The sub-picture surface 820 has a first sub-surface 821 that is disposed on the top surface 721 and a second sub-surface 822 that is disposed on the connection surface 722.

The fixing frame 300 is disposed along the outer peripheral surface 712 and is used to frame the substrate 710 and the fascia 720 and close the seam 740.

Thereby, the planes are respectively disposed on the surface of the substrate 710 and the fascia 720, and the translucency and thickness of the plates are transmitted, so that the upper surface can be spaced from the lower surface and generated. Partial occlusion, partial perspective visual perception. As illustrated in FIG. 8, when a viewer looks at the embodiment, a line A, a line of sight B, and a line of sight C are respectively emitted from the high and low levels of the picture unit 800. The line of sight A sees the first sub-picture surface 821. The line of sight B passes through the fascia 720, and the second sub-picture surface 822 and the first main picture surface 811 are seen. The line of sight C passes through the substrate 710 and the line of sight 711. The plaque 720 is seen and the second main figure face 812 is seen. The viewer creates a stereoscopic effect on the picture unit 800 by the composition of the lines of sight A, B, and C. Not only is it easier to make, but it also reduces costs and has an industrial value.

However, the above description is only for the embodiments of the present invention, and the scope of the present invention cannot be limited thereto, that is, the patent scope and patents according to the present invention. The simple equivalent changes and modifications made in the contents of the specification are still within the scope of the invention.

<TABLE border="1" borderColor="#000000" width="_0100"><TBODY><tr><td> 100··············· Panel unit 110··· ············ The substrate 111········································ ············································································································ ········ Transparent board 200········································································ ························································································· >

Claims (7)

A panel having a multi-layered surface and a three-dimensional structure, comprising: a panel unit comprising a substrate, a decorative panel, and at least one transparent panel, the substrate having an upper surface and an outer peripheral surface connecting the peripheral edges of the upper surface, The plaque has a top surface and can be joined to the transparent plate adjacent to each other and disposed on the upper surface; a drawing unit includes a main surface coated on the upper surface, and a crystal process a sub-picture surface disposed on the top surface, the main picture surface and the surface of the sub-picture surface are overlapped to form a stereoscopic visual experience; and a fixed frame is disposed along the outer circumferential surface and used to decorate the decoration The plate is clamped to the substrate together with the transparent plate and can block the periphery of the upper surface. The panel having the multi-level drawing and the three-dimensional structure as claimed in claim 1, wherein the crystal process is a piano paint process on the sub-picture surface, and a crystal bright film is attached to a photo paper. One. A panel having a multi-layered surface and a three-dimensional structure, comprising: a panel unit comprising a layered substrate, and at least one transparent plate, the substrate having an upper surface, a lower surface, and an upper and lower surface And connecting the outer peripheral surface of the periphery of the lower surface, the upper surface is divided into a high-order surface and a low-order surface according to the level of the hierarchy; the transparent plate is disposed on the low-order surface; a drawing unit includes a cover The main surface of the low-order surface and the sub-picture surface of the high-order surface are covered by a crystal process, so that the main picture surface and the surface of the sub-picture surface are overlapped to form a stereoscopic visual experience; A fixing frame is disposed along the outer peripheral surface and is used for clamping the transparent plate frame to the substrate, and can block the low-order surface periphery. The panel having a multi-level drawing and a three-dimensional structure as claimed in claim 3, wherein the crystal process is a piano paint process on the sub-picture surface, and a crystal bright film is attached to a photo paper. One. A panel having a multi-layered surface and a three-dimensional structure, comprising: a panel unit comprising a layered substrate, and at least one fascia having an upper surface, a lower surface, and an upper and lower surface And connecting the outer peripheral surface of the periphery of the lower surface, the upper surface is divided into a high-order surface and a low-order surface according to the level of the hierarchy; the plaque is disposed on the low-order surface, and has a top surface and a portion of the lower surface a step surface unit; a picture unit comprising a main picture surface and a sub-picture surface overlaid on the top surface by a crystal process; the main picture mask having a first main picture surface overlaid on the high-order surface And a second main picture surface that is disposed on the low-order surface, so that the main picture surface and the surface of the sub-picture surface form an overlapping design to generate a stereoscopic visual experience; and a fixed frame is disposed along the outer circumferential surface And used to clamp the plaque frame to the substrate, and can block the periphery of the high-order face. The panel having a multi-level drawing and a three-dimensional structure as claimed in claim 5, wherein the crystal manufacturing process is a piano painting process on the sub-picture surface, and a crystal bright film is attached to a photo paper. One. A panel having a multi-layered surface and a three-dimensional structure, comprising: a panel unit comprising a substrate of transparent material and a decorative panel, the substrate having an upper surface, a lower surface, and a space between the upper and lower surfaces The outer peripheral surface, the plaque has a top surface, a connecting surface, and a side peripheral surface between the top surface and the connecting surface; the connecting surface is opposite to the upper surface, so that the side peripheral surface Forming a seam between the outer peripheral surfaces; a drawing unit comprising a main drawing surface and a pair of drawing surfaces, the main pattern mask having a first main drawing surface disposed on the upper surface, and a covering surface a second main picture face of the lower surface, the sub-picture mask has a first sub-picture face that is disposed on the top surface, and a second sub-picture face that is disposed on the connection surface, so that the main picture surface and The surface of the sub-surface forms an overlapping design to generate a stereoscopic perception; and a fixing frame is disposed along the outer circumferential surface for clamping the substrate and the decorative panel and closing the seam.