TWM529606U - An infinity mirror - Google Patents

Abstract

The present invention is related to an infinity mirror including a transparent and reflective layer, a reflective layer, a transparent layer and a plurality of luminosities. In which, the transparent layer includes a patterned area, a non-patterned area and a printed layer. The patterned area and the non-patterned area have a gap between the areas. The infinity mirror combines the patterned area, the non-patterned area and the printed layer with a variety of technological designs for enhancing the multi-reflective-mirror effect of the infinity mirror.

Description

Infinite mirror

This creation is about an infinite mirror, especially an infinite mirror that combines multiple process designs and extends the application.

The conventional infinite mirror is a design used for interior decoration or art installations, and the main principle is to "reflect each other" through the two mirrors, thereby creating an infinite number of mirror images and infinite space in the mirror. The conventional infinite mirror structure is a reflection principle using a plane mirror, which mainly includes a first layer of glass, a second layer of glass, and an illuminant. Wherein, the first layer of glass is a light transmissive and reflective layer, and the second layer of glass is a mirror layer, and the illuminant is disposed on the first layer of glass and the second layer of glass. When the illuminant emits light, the light is reflected and penetrated back and forth between the first layer of glass and the second layer of glass, thereby seeing the extension of the infinite source and the space, thereby producing a mirror image effect.

However, the use of conventional infinite mirrors is only for interior decoration or art installations. The usual practice is to create a multi-mirror aesthetic design using infinite extension of the source point. As a result, the effects and applications of the infinite mirror described above are limited only to the infinite extension of the general source point and the change in visual extension.

In addition, in the use of other conventional infinite mirrors, there are few The combination of mirror and pattern or trademark, especially combined with a variety of process design to enhance the mirror image of the pattern or trademark in the infinite mirror, such as: three-dimensional, visual layering and other mirror effects, let people have more visual sense The beauty of the three-dimensional depth. In view of this, it is necessary to design a structure with a multi-functional infinite mirror combined with various process designs to enhance and extend the application of the conventional infinite mirror.

The main purpose of this creation is to provide an infinite mirror that combines multiple process designs and extends the application.

In order to achieve the above object, in a preferred embodiment, the present infinite mirror includes at least: a light transmissive layer including a pattern area and a non-pattern area; a light transmissive and reflective layer disposed on the light transmissive layer a top surface; a reflective layer disposed on a bottom surface of the light transmissive layer; and at least one light emitting member for emitting light, the light being projected and reflected between the light transmissive and reflective layer and the reflective layer; The pattern area has a height difference with the non-pattern area.

In an embodiment of the present invention, the light transmissive and reflective layer further includes another pattern area and another non-pattern area identical to the light transmissive layer, and the another pattern area and the other non-pattern area have Another high and low drop.

In an embodiment of the present invention, the pattern area further includes at least one microstructure, which is a structure having a high and low relief surface.

In an embodiment of the present invention, the pattern area is one of a text, a number, a symbol, a geometric figure, and a totem or a combination thereof.

In an embodiment of the present invention, the light transmissive and reflective layers have a light transmission and reflection ratio of 40 to 60 to 90 to 10.

In an embodiment of the present invention, a temperature sensitive film layer is disposed between the light transmissive and reflective layer and the light transmissive layer for sensing an ambient temperature to change a color of the temperature sensitive film layer.

In an embodiment of the present invention, a printed layer is further disposed between the light transmissive layer and the reflective layer.

In an embodiment of the present invention, the at least one illuminating member is disposed on an outer casing of the heat sink of the electronic device, and the infinite mirror is disposed opposite to the outer casing of the heat sink.

In an embodiment of the present invention, the light transmissive layer further includes a light source slot for accommodating at least one illuminating member for accommodating the at least one illuminating member; wherein the light source slot is disposed at an outer edge of the transparent layer Or is it disposed on the bottom surface of the light transmissive layer.

In an embodiment of the present invention, the at least one light-emitting component is one of a light-emitting diode (LED), an organic light-emitting diode (OLED), and a light-emitting paper, or a combination thereof .

In an embodiment of the present invention, the height of the top surface of the pattern area is higher than the height of the top surface of the non-pattern area.

In an embodiment of the present invention, the height of the top surface of the pattern area is lower than the height of the top surface of the non-pattern area.

In an embodiment of the present invention, a height of a top surface of a partial region of the pattern region is higher than a height of a top surface of a portion of the non-pattern region, and a height of a top surface of another portion of the pattern region is lower than the non- The height of the top surface of another part of the pattern area.

10‧‧‧Unlimited mirror

110‧‧‧Light and reflective layers

120‧‧‧reflective layer

130‧‧‧Transparent layer

130a‧‧‧Top

130b‧‧‧ bottom

130c‧‧‧ outer edge

131,111‧‧‧pattern area

131a‧‧‧Microstructure

1311‧‧‧First pattern area

1312‧‧‧Second pattern area

1311a‧‧‧First microstructure

1312a‧‧‧Second microstructure

132‧‧‧Printing layer

133‧‧‧Light source slot

134,114‧‧‧Non-pattern area

140‧‧‧temperature film

150‧‧‧Lighting parts

165‧‧‧ outer casing

166‧‧‧External side of the display card device

d, d1, d2‧‧‧ height

FIG. 1A is a schematic perspective view of the basic creation concept of the infinite mirror of the creation.

Figure 1B is an exploded exploded view of the infinite mirror of Figure 1A.

Figure 1C is a cross-sectional view of the infinite mirror of Figure 1A.

2 is a cross-sectional view showing an embodiment of an infinite mirror-added microstructure of the present invention.

3 is a cross-sectional view showing another embodiment of the infinite mirror addition microstructure of the present invention.

4 is a cross-sectional view showing an embodiment of an infinite mirror-added printed layer of the present invention.

FIG. 5 is a cross-sectional view showing an embodiment of an infinite mirror-added light-emitting member of the present invention.

Fig. 6 is a cross-sectional view showing another embodiment of the infinite mirror adding light-emitting member of the present invention.

Fig. 7 is a cross-sectional view showing an embodiment of an infinite mirror-added temperature sensing film of the present invention.

The present invention mainly designs a pattern area and a non-pattern area having a high and low drop by various processes, for example, changing the size of the height drop, or adding a microstructure to the pattern area, or adding a printing layer to the light transmission layer. The bottom surface. The infinite mirror that forms the basic creative concept of this case. The infinite mirror may further comprise a temperature sensing film for sensing the change of the ambient temperature of the infinite mirror, thereby changing the color of the infinite mirror to exhibit multiple mirror images. Next, the basic concept diagram of the creation and the various embodiments are listed to illustrate the practical application and extension of the basic creation concept according to the script creation.

Please refer to Figure 1A to Figure 1C, which is the basic of the infinite mirror of this creation. A three-dimensional illustration of the concept of creation. As shown in FIG. 1A and FIG. 1C , the infinite mirror 10 of the present invention mainly includes a light transmissive and reflective layer 110 , a reflective layer 120 , and a light transmissive layer 130 . The light transmissive layer 130 further includes a top surface 130a, a bottom surface 130b, an outer edge 130c, a pattern area 131, and a non-pattern area 134. The main technical feature of the present invention is that the pattern area 131 and the non-pattern area 134 have a height difference, and the height difference causes the pattern area 131 to be mirrored and reflected by the infinite mirror 10 to enhance the mirror effect of the pattern area 131 in the infinite mirror 10. In addition, in this example, the light transmissive and reflective layer 110 may also include the same pattern area 111 and non-pattern area 114 as the light transmissive layer 130, and the same map sample area 111 and the non-pattern area 114 have a high and low drop.

Next, the connection relationship between the above components will be described. As shown in FIG. 1A and FIG. 1C, the light transmissive and reflective layer 110 and the reflective layer 120 are respectively disposed on the top surface 130a and the bottom surface 130b of the light transmissive layer 130, and the light transmissive layer. The design of the area size of the light transmitting and reflecting layer 110 and the reflecting layer 120 can be adjusted according to the actual product application, and is not limited by this embodiment. The main creative concept of this case is that the pattern area 131 and the non-pattern area 134 are structures having a high and low drop. The height difference between the pattern area 111 and the non-pattern area 114 of the light transmissive and reflective layer 110 is also the same as that of the pattern area 131 and the non-pattern area 134 of the light transmissive layer 130.

In the following description, the light transmissive and reflective layer 110 and the reflective layer 120 can be partially sputter-plated to form a partially reflective light transmissive layer and a reflective opaque layer, respectively, for enabling the light source of the plurality of illuminating members to transmit light. The reflection layer 110 and the reflective layer 120 are repeatedly reflected back and forth to form a multiple reflection mirror image, so that the infinite mirror 10 reaches the infinite space extension and the visual effect of the infinite ghost pattern area 130. The ratio of the light transmission and reflection of the light transmissive and reflective layer 110 in this example can be designed to be between 40 and 60 to 90 to 10. For example, when the first reflection is performed, 40% of the light source penetrates and transmits light. The reflective layer 110, and 60% of the light source is reflected back to the reflective layer 120 by the light transmissive and reflective layer 110 for a second reflection, or 90% The light source penetrates the light transmitting and reflecting layer 110, and only 10% of the light source is reflected back to the reflective layer 120 by the light transmitting and reflecting layer 110 for the second reflection, and the ratio of the light transmission and the reflection is in other embodiments. In the middle, you can still adjust according to the mirror effect required by the actual infinite mirror.

Furthermore, the pattern area 131 of the infinite mirror 10 of the present invention can be one of text, numbers, symbols, geometric figures, and totems, or a combination thereof, such as a trademark of a product, or a logo graphic. As the pattern area 131 of the present embodiment in Fig. 1A is a star pattern, the pattern area 131 does not limit the application of the combination change in the embodiment of the present invention. The pattern area 131 and the non-pattern area 134 have a height d of a height difference, and the pattern area 131 can be protruded or recessed on the top surface 130a or the bottom surface of the light transmissive layer 130. 130b. As shown in FIG. 1C, in this example, the pattern area 131 is recessed on the top surface 130a of the light transmissive layer 130, and in practice, the pattern area 131 having the height d can be formed by milling. However, not limited to this example, the pattern area 131 may be such that the light transmissive layer 130 is integrally formed by injection, and the pattern area 131 has a height d. The use of the pattern area 131 can be as shown in FIG. 1A to FIG. 1C. The light transmissive and reflective layer 110 of the infinite mirror in this example further includes the pattern area 131 of the same light transmissive layer 130, and is located in the light transmission and reflection. The pattern area 131 corresponding to both the layer 110 and the light transmissive layer 130 is formed by a milling method. Similarly, the pattern area 111 and the non-pattern area 114 of the light transmissive and reflective layer 110 also have a height d110 of height difference, which is used to enhance the stereoscopic effect and visual depth of the pattern areas 111, 131 when mirrored.

In addition, please refer to FIG. 2. FIG. 2 is different from FIG. 1C in that a cross-sectional side view of the microstructure 131a is added to the pattern area 131. As shown in FIG. 2, the pattern area 131 includes a microstructure 131a in this example, and the microstructure 131a may be a Rough edges structure or a non-smooth surface structure, such as embossing and biting. Microstructure formed by process design to partially absorb light and enhance the image The mirror effect of the sample area 131.

Next, please refer to FIG. 3, which is a cross-sectional side view of the height change of the pattern area 1311, 1312 of the present case and the addition of the microstructures 1311a, 1312a. The difference from the previous example in FIG. 3 is the change in height of the pattern area 131 and the application change of the combined microstructure.

As previously stated, the basic creative spirit of the present creation is that the top surfaces of the pattern areas 111, 131 and the non-pattern areas 114, 134 have a height difference. The height difference between the top surfaces of the pattern areas 111, 131 and the non-pattern areas 114, 134 includes various combinations. For example, the light-emitting layer 130 is used. The height of the top surface of the pattern area 131 may be higher than the top of the non-pattern area 134. The height of the top surface; or the height of the top surface of the pattern area 131 is lower than the height of the top surface of the non-pattern area 134; or the height of the top surface of the partial area of the pattern area 131 is higher than the top part of the non-pattern area 134 The height of the face, and the height of the top surface of the other portion of the pattern area 131 is lower than the height of the top surface of the other portion of the non-pattern area 134.

It can be seen that the height of the top surface of the pattern area 131 can be adjusted to have a different height difference from the non-pattern area 134 according to the design structure of the pattern area 131, and different height differences cause the light source to reflect on the structure with high and low drop. Moreover, the design of the microstructure 131a absorbs light from the surface of the microstructure 131a to highlight the mirror effect of enhancing the height difference of the pattern area 131, and achieves a stereoscopic visual effect and a visual depth of the map area 131.

As shown in FIG. 3, the light-transmitting layer 130 in this example further includes a first pattern area 1311 and a second pattern area 1312. As can be seen from FIG. 3, the first pattern area 1311 and the second pattern area 1312 are in this example. The height of the first pattern area 1311 and the second pattern area 1312 have different heights d1, d2, respectively. In this example, the height d1 of the first pattern region 1311 is such that the light-transmitting layer 130 is recessed toward the reflective layer 120. The depth d2, and the height d2 of the second pattern area 1312 is the depth that is recessed again by the first pattern area 1311 toward the reflective layer 120, because the image pattern effect of the two pattern areas 1311, 1312 in the infinite mirror is the same. The heights d1 and d2 of the two pattern regions 1311 and 1312 are adjusted to be practically applied, so that the two pattern regions 1311, 1312 can include a plurality of different heights d1, d2, as in the present example, the first pattern region 1311 is designed and The second pattern area 1312 has different heights d1, d2, which in turn produce variations in different mirroring effects.

Furthermore, the first pattern region 1311 and the second pattern region 1312 respectively include a first microstructure 1311a and a second microstructure 1312a, and the first microstructure 1311a and the second microstructure 1312a may be different processes in practical use. The structure of the design, for example, the first microstructure 1311a may be an embossing process design, and the second microstructure 1312a may be a flash structure design, thereby causing a multi-mirror effect to produce a change in mirror image effect depending on the different microstructures 1311a, 1312a.

In addition, please refer to FIG. 4 again, which is a cross-sectional view showing an embodiment of the printed layer of the created infinite mirror. As shown in FIG. 4, the infinite mirror further includes a printed layer 132, and the printed layer 132 is printed as a pattern on the bottom surface 130b of the light transmissive layer 130 for causing the infinite mirror to produce a reflective image of the printed layer 132. In particular, the application of the pattern area 131 and the printing layer 132 is changed, but it is not limited by the embodiment of the present invention, and the product design can be considered and combined, for example, the pattern area 131 and the printing layer 132 are designed to be the same pattern style. For enhancing the multiple mirroring effect of the pattern area 131 in the infinite mirror 10, or whether the pattern area 131 and the printing layer 132 are designed to be different, for example, the pattern area 131 can be designed as a product trademark, and the printing layer 132 can be designed as a background of the bottom of the net, or in accordance with the product trademark and designed to be related to the pattern, allowing the user to visually create a mirror image effect and aesthetics of multiple different images.

Next, please refer to Figure 5, which is one of the illuminators for the infinite mirror. A cross-sectional view of an embodiment. As shown in FIG. 5, the infinite mirror further includes a plurality of light-emitting members 150 and a light source groove 133. In this embodiment, the outer edge 130c of the light-transmitting layer 130 includes a light source groove 133, and the plurality of light-emitting elements 150 are disposed in the light source groove 133. The light source is projected from the outer edge 130c between the light transmissive and reflective layer 110 and the reflective layer 120. The plurality of light emitting devices 150 can be used as a light emitting diode (LED) and an organic light emitting diode. (Organic Light-Emitting Diode, OLED) and one of the luminescent papers or combinations thereof, but are not limited by the foregoing. In addition, in other embodiments, the plurality of light-emitting members 150 may also be disposed on a side of the outer casing 165 of the heat sink of an electronic device (for example, a side surface of the display card outer casing). Further, the plurality of light-emitting members 150 may further include a plurality of power lines for electrically connecting to an external power source for supplying power to the plurality of light-emitting members 150. The power line mainly supplies power to the illuminating device 150, but does not limit the power supply mode of the case by the power line.

In addition to the above-described embodiments, the illuminating member 150 can also change the application structure of the plurality of illuminating members 150 and the light source slots 133. Referring to FIG. 6, a cross-sectional view of another embodiment of the illuminating member with an infinite mirror is added. As shown in FIG. 6, in this example, the infinite mirror further includes a plurality of light-emitting members 150 and a plurality of light source slots 133. In this example, the plurality of light source slots 133 are different from the bottom surface of the infinite mirror. The holes and the plurality of light source slots 133 are used to insert the plurality of light-emitting members 150. The light source is reflected and reflected in the light transmissive layer 130 in response to the position of the plurality of light source grooves 133. In this example, the structural design of the complex light-emitting member 250 and the complex light source slot 233 can be changed according to the actual use of the infinite mirror, and the operation mode and the combination change are changed, but the light-emitting member and the light source of the infinite mirror are not limited by the embodiment in the present case. The position of the slot is configured. In addition, in this example, the infinite mirror can be applied to the bottom of the outer casing of the heat sink of an electronic device, and the plurality of light emitting members 150 are disposed on the outer side 166 of the heat sink. Therefore, the foregoing embodiments merely illustrate the functions of the main technical features of the various elements, and do not The implementation aspect is to limit the scope of patents in this case.

Finally, please refer to FIG. 7 , which is a cross-sectional view showing an embodiment of adding a temperature sensitive film to an infinite mirror. In this example, the infinite mirror further includes a temperature sensing film 140 disposed between the light transmissive and reflective layer 110 and the light transmissive layer 130 for sensing the temperature change of the infinite mirror of the present invention in a use environment, thereby changing the sense. The display color of the warm film 140. The temperature sensing film 140 can be a temperature sensitive coating in practical use, and is mainly used to change the color of the mirror image display effect according to the temperature change of the environment of the infinite mirror. For example, please refer to FIG. 6 together with the practical application of the temperature sensing film 140 in the infinite mirror. The infinite mirror of the present invention can be applied to a heat sink, and the heat sink can be applied to a display card device or an integrated circuit board. First, the infinite mirror is disposed at the bottom of the outer casing of the heat sink, but the infinite mirror is not limited to the set position of the heat sink, and the infinite mirror can also be disposed on the outer side 166 of the heat sink, where the infinite mirror is not disposed. Affects the reflection mirror effect and function exhibited by the infinite mirror. The temperature sensor of the infinite mirror changes the color temperature of the multi-reflection mirror effect of the infinite mirror according to the temperature change of the specific use environment of the display card device, thereby allowing the user to understand the performance of the display device or the electronic device using the infinite mirror of the present invention. And temperature status.

It can be seen from the above description that the infinite mirror of the present invention provides an infinite mirror that combines various process designs and extends applications. The infinite mirror of the present case has different height difference between the pattern area and the non-pattern area, and adds a microstructure on the top surface of the pattern area to enhance the multi-reflection mirror effect of the whole pattern area. In addition, a printed layer may be disposed on one side of the light transmissive layer to enhance the multi-mirror effect and the combination of multiple groups when the light source is reflected in the infinite mirror. Furthermore, the infinite mirror of the present invention adds a temperature sensitive film between the light transmissive and reflective layer and the light transmissive layer to sense the temperature change of the use environment and reach the temperature state of the display environment, thereby achieving new multiple reflections. Mirroring effect, visual beautification and sensing Use the function of ambient temperature.

The above are only the preferred and feasible embodiments of this creation, and therefore, the scope of the patents of this creation is not limited to the scope of this creation, and the equivalent structural changes made by the use of this creation manual and the contents of the drawings are included in the scope of this creation. Bright.

10‧‧‧Unlimited mirror

110‧‧‧Light and reflective layers

120‧‧‧reflective layer

130‧‧‧Transparent layer

131‧‧‧pattern area

Claims (13)

An infinite mirror comprising: a light transmissive layer comprising a pattern area and a non-pattern area; a light transmissive and reflective layer disposed on a top surface of the light transmissive layer; a reflective layer disposed on the a bottom surface of the light transmissive layer; and at least one light emitting member for emitting light, the light being projected and reflected between the light transmissive and reflective layer and the reflective layer; wherein the pattern area and the non-pattern area have a height difference. The infinite mirror of claim 1, wherein the light transmissive and reflective layer further comprises another pattern area and another non-pattern area identical to the light transmissive layer, and the other pattern area and the other A non-pattern area has another high and low drop. The infinite mirror of claim 1, wherein the pattern region further comprises at least one microstructure, which is a structure having a high and low relief surface. The infinite mirror of claim 1, wherein the pattern area is one of a character, a number, a symbol, a geometric figure, and a totem or a combination thereof. The infinite mirror of claim 1, wherein the light transmissive and reflective layers have a light transmission and reflection ratio of 40 to 60 to 90 to 10. The infinite mirror according to claim 1, further comprising a temperature sensing film layer disposed between the light transmissive and reflective layer and the light transmissive layer for sensing the ambient temperature and changing the temperature sensing The color of the film layer. The infinite mirror of claim 1, further comprising a printed layer disposed between the light transmissive layer and the reflective layer. The infinite mirror of claim 1, wherein the at least one illuminating member is disposed on an outer casing of the heat sink of the electronic device, and the infinite mirror is disposed opposite to the outer casing of the heat sink. The light-transmissive layer further includes a light source slot for accommodating at least one light-emitting member for accommodating the at least one light-emitting member; wherein the light source groove is disposed in the transparent mirror The outer edge of the light layer is disposed on the bottom surface of the light transmissive layer. The infinite mirror according to claim 1, wherein the at least one illuminating member is one of a light emitting diode (LED), an organic light emitting diode (OLED), and a luminescent paper. Or their combination. The infinite mirror of claim 1, wherein a height of a top surface of the pattern area is higher than a height of a top surface of the non-pattern area. The infinite mirror of claim 1, wherein a height of a top surface of the pattern area is lower than a height of a top surface of the non-pattern area. The infinite mirror according to claim 1, wherein a height of a top surface of a partial region of the pattern region is higher than a height of a top surface of a portion of the non-pattern region, and a top surface of another portion of the pattern region is The height is lower than the height of the top surface of another portion of the non-pattern area.