Electronic device
By employing a light diffusion layer structure design on the electronic device casing, the problem of matching the number of light sources and the density of openings in traditional electronic devices is solved, achieving uniform light emission and reducing costs.
Patent Information
- Application Number
- CN202210094547.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2022-01-26
- Publication Date
- 2026-02-17
- Estimated Expiration
- 2042-01-26
AI Technical Summary
When traditional electronic devices generate light-emitting effects on the casing, the matching problem between the aperture density and the number of light sources leads to uneven brightness or excessively high system temperature, and increases manufacturing costs.
The structure design includes first and second light diffusion layers. By using a semi-transparent area and a light-blocking area, the light generated by the light-emitting element is dispersed to multiple light-transmitting holes, reducing the number of light sources and weakening the light intensity through the light diffusion layer to achieve a uniform light emission effect.
It achieves ideal luminous pattern image quality with fewer light sources, avoids excessive internal system temperature, and reduces manufacturing costs.
Smart Images
Figure CN116543660B_ABST
Abstract
Description
Technical Field
[0001] This case relates to an electronic device, and more particularly to an electronic device capable of producing a light-emitting effect on a housing. Background Technology
[0002] To highlight the uniqueness of electronic devices (such as laptops), luminous patterns are often used on the casing to create a luminous effect.
[0003] Traditional electronic devices typically have multiple openings in the casing, with multiple light sources positioned inside to emit light towards each opening. By controlling these light sources, various luminous patterns can be generated to produce different lighting effects. However, the image quality of the luminous pattern depends on the density of the openings. Increasing the opening density without increasing the corresponding number of light sources can easily lead to uneven brightness across the openings. Conversely, increasing the number of light sources to match the opening density can easily cause excessively high internal temperatures and increase manufacturing costs. Summary of the Invention
[0004] This invention provides an electronic device. The electronic device includes a housing, a light-emitting element, and a light-diffusing structure. The housing includes a first light-transmitting aperture and a second light-transmitting aperture. The light-transmitting element is disposed within the housing and aligned with the first light-transmitting aperture. The light-diffusing structure includes a first light-diffusing layer and a second light-diffusing layer. The first light-diffusing layer is disposed between the housing and the light-transmitting element and includes a first semi-transparent region and a first light-shielding region. The first semi-transparent region corresponds to the first light-transmitting aperture, and the first light-shielding region surrounds the first semi-transparent region. The second light-diffusing layer is disposed between the housing and the light-transmitting element and includes a second semi-transparent region and a second light-shielding region. The second semi-transparent region corresponds to the second light-transmitting aperture, and the second light-shielding region surrounds the second semi-transparent region.
[0005] The electronic device in this case utilizes a first light diffusion layer and a second light diffusion layer to effectively disperse the light generated by the light-emitting element into the first and second light-transmitting holes for outward projection. This allows for the achievement of ideal image quality with a smaller number of light-emitting elements, avoids excessively high internal system temperatures, and also helps reduce manufacturing costs. Attached Figure Description
[0006] Figure 1 This is a schematic diagram of the appearance of an embodiment of the electronic device in this case;
[0007] Figure 2 This is an embodiment of an exploded view showing the internal structure of the light-emitting unit of the electronic device in this case;
[0008] Figure 3 This is a cross-sectional schematic diagram of an embodiment of the light diffusion structure in this case;
[0009] Figure 4 This is a cross-sectional schematic diagram of another embodiment of the light diffusion structure in this case;
[0010] Figure 5 It is shown in cross-sectional view Figure 2 The internal structure and light path of the light-emitting unit;
[0011] Figure 6 Another embodiment of the internal structure of the light-emitting unit of the electronic device in this case is shown in an exploded view; and
[0012] Figure 7 It is shown in cross-sectional view Figure 6 The internal structure of the light-emitting unit and the light path. Detailed Implementation
[0013] The specific embodiments of this invention will be described in more detail below with reference to the schematic diagrams. The advantages and features of this invention will become clearer from the following description and claims. It should be noted that the accompanying drawings are all in a very simplified form and use non-precise proportions, and are only used to facilitate and clarify the illustration of the embodiments of this invention.
[0014] Figure 1 This is a schematic diagram of the appearance of an embodiment of the electronic device in this case. This electronic device 10 can be an electronic product with decorative lighting effects, such as a laptop computer, tablet computer, or smartphone.
[0015] As shown in the first figure, the housing 110 of the electronic device 10 can be divided into a plurality of arrayed light-emitting units A. Each light-emitting unit A corresponds to a first light-transmitting hole 112 on the housing 110 and at least one second light-transmitting hole 114 adjacent to the first light-transmitting hole 112. The housing 110 is an opaque housing, such as a metal housing.
[0016] In one embodiment, as shown in the first figure and Figure 2 As shown, each light-emitting unit A corresponds to a first light-transmitting hole 112 and eight second light-transmitting holes 114 surrounding the first light-transmitting hole 112, thereby defining a square area. The first light-transmitting hole 112 is located at the center of this square area, and the second light-transmitting holes 114 are located at the periphery of this square area.
[0017] It is worth noting that the number of second light-transmitting holes 114 in each light-emitting unit A can be adjusted according to requirements (such as the density and distribution of light-transmitting holes, the intensity of a single light source, etc.).
[0018] In one embodiment, these second light-transmitting holes 114 are symmetrically distributed around the first light-transmitting hole 112 to facilitate a uniform light-emitting effect.
[0019] Please refer to the above as well. Figure 2 , Figure 2This is an example of an exploded view showing the internal structure of the light-emitting unit A of the electronic device in this case. The figure shows four light-emitting units A as an example; the number of light-emitting units A can be adjusted as needed.
[0020] Multiple light-emitting elements 132 are located within the housing 110 and arranged in an array on a circuit board 134. Each of these light-emitting units A corresponds to a light-emitting element 132. Each light-emitting element 132 is aligned with a first light-transmitting hole 112 on the housing 110. In one embodiment, the light-emitting element 132 is a light-emitting diode (LED) element.
[0021] A light diffusion structure 140 is disposed between the housing 110 and the light-emitting element 132, and includes a first light diffusion layer 150 and a second light diffusion layer 170. The first light diffusion layer 150 includes a first light-transmitting area 152, a first semi-light-transmitting area 154, and a first light-shielding area 156. The first semi-light-transmitting area 154 corresponds to the first light-transmitting hole 112, and the first light-shielding area 156 surrounds the first semi-light-transmitting area 154. The first light-transmitting area 152 is located between the first semi-light-transmitting area 154 and the first light-shielding area 156, and corresponds to the second light-transmitting hole 114.
[0022] The second light diffusion layer 170 is disposed between the first light diffusion layer 150 and the light-emitting element 132, and includes a second light-transmitting area 172, a second semi-light-transmitting area 174, and a second light-shielding area 176. The second light-transmitting area 172 corresponds to the first light-transmitting aperture 112. The second semi-light-transmitting area 174 corresponds to the second light-transmitting aperture 114 and surrounds the second light-transmitting area 172, and the second light-shielding area 176 surrounds the second semi-light-transmitting area 174.
[0023] exist Figure 2 In one embodiment, the first light diffusion layer 150 has a first light-transmitting region 152 corresponding to the second light-transmitting hole 114. However, it is not limited to this. In other embodiments, a first semi-transparent region 154 can be used instead of the first light-transmitting region 152 to simplify the design of the first light diffusion layer 150. Additionally, in Figure 2 In one embodiment, the second light diffusion layer 170 has a second light-transmitting region 172 corresponding to the first light-transmitting hole 112. However, it is not limited to this. In other embodiments, a second semi-transparent region 174 may be used instead of the second light-transmitting region 172 to simplify the design of the second light diffusion layer 170.
[0024] In one embodiment, the first semi-transparent area 154 is a circular region aligned with the first light-transmitting hole 112. The first light-transmitting area 152 includes eight circular regions 1522, each aligned with one of the eight second light-transmitting holes 114. These eight circular regions 1522 may be interconnected or independent of each other.
[0025] In one embodiment, the second light-transmitting area 172 is a circular region aligned with the first light-transmitting hole 112. The second semi-transparent area 174 comprises eight circular regions 1742, each aligned with one of the eight second light-transmitting holes 114. These eight circular regions 1742 may be interconnected or independent of each other.
[0026] Please refer to the above as well. Figure 3 , Figure 3 This is a cross-sectional schematic diagram of an embodiment of the light diffusion structure 140 in this case.
[0027] like Figure 3 As shown, the light diffusion structure 140 has a first light-transmitting film 142 and a second light-transmitting film 144 as substrates for the first light diffusion layer 150 and the second light diffusion layer 170. The first light diffusion layer 150 has a light-shielding pattern layer 158 and a semi-transparent reflective pattern layer 159. The light-shielding pattern layer 158 and the semi-transparent reflective pattern layer 159 are located on the same side of the first light-transmitting film 142. The light-shielding pattern layer 158 defines... Figure 2 The first light-blocking area 156 and the semi-transparent reflective pattern layer 159 define the first light-blocking area 156. Figure 2 The first semi-transparent area 154 is defined as the area not covered by the light-shielding pattern layer 158 and the semi-transparent reflective pattern layer 159, while the area not covered by these two layers is defined as the first transparent area 152. Compared to the light-shielding pattern layer 158, the semi-transparent reflective pattern layer 159 has a higher reflectance and transmittance for visible light. In one embodiment, the semi-transparent reflective pattern layer 159 is a silver ink layer, and the light-shielding pattern layer 158 is a black ink layer.
[0028] In this embodiment, the light-shielding pattern layer 158 and the semi-transparent reflective pattern layer 159 are located on the same side of the first light-transmitting film 142, or on opposite sides of the first light-transmitting film 142.
[0029] The second light-diffusing layer 170 includes a light-shielding pattern layer 178 and a semi-transparent pattern layer 179. The light-shielding pattern layer 178 and the semi-transparent pattern layer 179 are located on the same side of the second light-transmitting film 144. The light-shielding pattern layer 178 defines... Figure 2 The second light-blocking area 176 and the semi-transparent pattern layer 179 define the... Figure 2 The second semi-transparent region 174 is defined as the area not covered by the light-shielding pattern layer 178 and the semi-transparent pattern layer 179, while the second transparent region 172 is defined as the area not covered by the light-shielding pattern layer 178 and the semi-transparent pattern layer 179. Compared to the light-shielding pattern layer 178, the semi-transparent pattern layer 179 has a higher transmittance coefficient for visible light. In one embodiment, the semi-transparent pattern layer 179 is a white ink layer, and the light-shielding pattern layer 178 is a black ink layer.
[0030] In this embodiment, the light-shielding pattern layer 178 and the semi-transparent pattern layer 179 may be located on the same side of the second light-transmitting film 144, or on opposite sides of the second light-transmitting film 144.
[0031] In one embodiment, the semi-transparent patterned layer 179 of the second light diffusion layer 170 has a lower reflectivity for visible light compared to the semi-transparent reflective patterned layer 159 of the first light diffusion layer 150.
[0032] In one embodiment, the light-shielding pattern layer 158 on the first light diffusion layer 150 and the light-shielding pattern layer 178 on the second light diffusion layer 170 can be manufactured using the same ink material.
[0033] In this embodiment, the semi-transparent reflective pattern layer 159 of the first light diffusion layer 150 and the semi-transparent light pattern layer 179 of the second light diffusion layer 170 can be made of different ink materials or the same ink material.
[0034] Secondly, in Figure 3 In one embodiment, the first light diffusion layer 150 and the second light diffusion layer 170 are located on the first light-transmitting film 142 and the second light-transmitting film 144, respectively. However, this is not the only possible embodiment.
[0035] Please refer to Figure 4 , Figure 4 This is a cross-sectional schematic diagram of another embodiment of the light diffusion structure in this case. (See diagram below.) Figure 4 As shown, the first light diffusion layer 150 and the second light diffusion layer 170 in the light diffusion structure 140' can also be located on opposite sides of a single light-transmitting film 141, rather than on two light-transmitting films.
[0036] Please refer to the above as well. Figure 5 , Figure 5 It is shown in cross-sectional view Figure 2 The internal structure of the light-emitting unit A is used to illustrate the light path of the light generated by the light-emitting element 132 projected outward.
[0037] like Figure 5 As shown, the light generated by the light-emitting element 132 is projected outward sequentially through the second light diffusion layer 170, the first light diffusion layer 150, and the first light-transmitting hole 112 and the second light-transmitting hole 114 on the housing 110. Specifically, the light ray R1 projected vertically upward from the light-emitting element 132 towards the first light-transmitting hole 112 penetrates the second light-transmitting area 172 of the second light diffusion layer 170 and is projected onto the first semi-transmitting area 154 of the first light diffusion layer 150. After being scattered and weakened by the first semi-transmitting area 154, it is then projected outward through the first light-transmitting hole 112. Similarly, the light ray R2 projected obliquely from the light-emitting element 132 towards the second light-transmitting hole 114 is projected onto the second semi-transmitting area 174 of the second light diffusion layer 170. After being weakened by the second semi-transmitting area 174, it penetrates the first light-transmitting area 152 of the first light diffusion layer 150 and is projected outward through the second light-transmitting hole 114.
[0038] Therefore, it can be seen that the light rays R1 passing through the first light-transmitting hole 112 and R2 passing through the second light-transmitting hole 114 both need to pass through the semi-transparent areas. These semi-transparent areas not only weaken the light intensity but also improve the uniformity of the light rays passing through each light-transmitting hole. In this way, it can be ensured that the light rays projected outward from the first light-transmitting hole 112 and the second light-transmitting hole 114 have uniform luminous brightness, thereby ensuring the image quality of the luminous pattern generated by the luminous unit A on the housing 110.
[0039] Figure 5 In this embodiment, the second light diffusion layer 170 is located between the first light diffusion layer 150 and the light-emitting element 132. However, it is not limited to this. Depending on actual needs, the positions of the first light diffusion layer 150 and the second light diffusion layer 170 can be interchanged, and a similar effect can be produced.
[0040] Figure 6 This is another embodiment of the internal structure of the light-emitting unit B of the electronic device in this case, shown in an exploded view. The figure shows four light-emitting units B as an example; the number of light-emitting units B can be adjusted as needed.
[0041] Multiple light-emitting elements 132 are located within the housing 210 and arranged in an array on a circuit board 134. Each of these light-emitting units B corresponds to a light-emitting element 132. Each light-emitting unit B corresponds to a first light-transmitting hole 212, at least one second light-transmitting hole 214 adjacent to the first light-transmitting hole 212, and at least one third light-transmitting hole 216 adjacent to the first light-transmitting hole 212 on the housing 210.
[0042] In one embodiment, each light-emitting unit B corresponds to a first light-transmitting hole 212, four second light-transmitting holes 214 surrounding the first light-transmitting hole 212, and four third light-transmitting holes 216 surrounding the first light-transmitting hole 212. A first distance D1 exists between the first light-transmitting hole 212 and the second light-transmitting holes 214, and a second distance D2 exists between the first light-transmitting hole 212 and the third light-transmitting holes 216. The first distance D1 is smaller than the second distance D2.
[0043] It is worth noting that the number of the second light-transmitting aperture 214 and the third light-transmitting aperture 216 corresponding to a single light-emitting unit is merely an example in this case. This case should not be limited to this. Their number can be determined according to the actual situation (such as the required density and distribution of light-transmitting apertures, the intensity of a single light source, etc.).
[0044] In one embodiment, such as Figure 6As shown, each light-emitting unit B is defined by a first light-transmitting hole 212, four second light-transmitting holes 214, and four third light-transmitting holes 216, which define a square area. The first light-transmitting hole 212 is located in the center of this square area, the second light-transmitting holes 214 are located in the corners of this square area, and the third light-transmitting holes 216 are located in the center of the perimeter of this square area.
[0045] The light diffusion structure 240 includes a first light diffusion layer 250 and a second light diffusion layer 270. The first light diffusion layer 250 is disposed between the housing 210 and the light-emitting element 132. The first light diffusion layer 250 includes a first light-transmitting area 252, a first semi-light-transmitting area 254 and a first light-shielding area 256.
[0046] The first semi-transparent area 254 corresponds to the first light-transmitting hole 212, and the first light-blocking area 256 surrounds the first semi-transparent area 254. The first light-transmitting area 252 is located between the first semi-transparent area 254 and the first light-blocking area 256, and corresponds to the second light-transmitting hole 214 and the third light-transmitting hole 216.
[0047] In one embodiment, the first semi-transparent area 254 is a circular region aligned with the first light-transmitting hole 212. The first light-transmitting area 252 has eight circular regions 2522, respectively aligned with four second light-transmitting holes 214 and four third light-transmitting holes 216. These eight circular regions 2522 may be interconnected or independent of each other.
[0048] In one embodiment, a second light diffusion layer 270 is disposed between the first light diffusion layer 250 and the light-emitting element 132. The second light diffusion layer 270 includes a second light-transmitting area 272, a second semi-light-transmitting area 274, a third light-transmitting area 275, and a second light-shielding area 276.
[0049] The second light-transmitting area 272 corresponds to the first light-transmitting hole 212. The second semi-light-transmitting area 274 corresponds to the second light-transmitting hole 214 and surrounds the second light-transmitting area 272. The second light-blocking area 276 surrounds the second semi-light-transmitting area 274. The third light-transmitting area 275 corresponds to the third light-transmitting hole 216. The second light-blocking area 276 surrounds the third light-transmitting area 275.
[0050] In one embodiment, the second light-transmitting area 272 and the third light-transmitting area 275 together form an X-shaped region, extending from the position corresponding to the first light-transmitting hole 212 towards the four surrounding third light-transmitting holes 216. The second light-shielding area 276 forms a square frame surrounding this X-shaped region. The second semi-transparent area 274 is located between the second light-shielding area 276 and this X-shaped region.
[0051] Please refer to the above as well. Figure 7 , Figure 7 It is shown in cross-sectional view Figure 6The internal structure of the light-emitting unit B is used to illustrate the light path of the light generated by the light-emitting element 132 projected outward.
[0052] like Figure 7 As shown, the light generated by the light-emitting element 132 is projected outward through the second light diffusion layer 270, the first light diffusion layer 250, and the first light-transmitting hole 212, the second light-transmitting hole 214, and the third light-transmitting hole 216 on the housing 210 in sequence.
[0053] The light R3 projected vertically upward from the light-emitting element 132 toward the first light-transmitting hole 212 will penetrate the second light-transmitting area 272 of the second light-diffusing layer 270 and be projected to the first semi-transmitting area 254 of the first light-diffusing layer 250. After being scattered outward by the first semi-transmitting area 254 and weakened in intensity, it will be projected outward through the first light-transmitting hole 212.
[0054] The light R4 projected obliquely from the light-emitting element 132 toward the second light-transmitting hole 214 will be projected onto the second semi-transparent area 274 of the second light diffusion layer 270. After being scattered and weakened by the second semi-transparent area 274, it will then penetrate the first light-transmitting area 252 of the first light diffusion layer 250 and be projected outward through the second light-transmitting hole 214.
[0055] The light R5 projected from the light-emitting element 132 toward the third light-transmitting hole 216 will penetrate the third light-transmitting area 275 of the second light-diffusing layer 270 and the first light-transmitting area 252 of the first light-diffusing layer 250, and then be projected outward through the third light-transmitting hole 216.
[0056] Therefore, it can be seen that the light rays R3 passing through the first light-transmitting hole 212 and R4 passing through the second light-transmitting hole 214 both need to pass through the semi-transparent areas. These semi-transparent areas not only weaken the light intensity but also improve the uniformity of the light rays passing through each light-transmitting hole. In this way, it can be ensured that the light rays projected outward from the first light-transmitting hole 212 and the second light-transmitting hole 214 have uniform luminous brightness.
[0057] Because the first distance D1 between the first light-transmitting hole 212 and the second light-transmitting hole 214 is less than the second distance D2 between the first light-transmitting hole 212 and the third light-transmitting hole 216, the distance that the light ray R5 is projected from the light-emitting element 132 (which can be regarded as a point light source) to the third light-transmitting hole 216 is greater than the distance that the light ray R4 is projected from the light-emitting element 132 to the second light-transmitting hole 214.
[0058] Since the light R5 projected by the light-emitting element 132 through the third light-transmitting area 275 to the third light-transmitting hole 216 experiences less intensity reduction than the light R4 projected by the light-emitting element 132 through the second semi-transmitting area 274 to the second light-transmitting hole 214, this difference in light projection distance can be compensated for. Therefore, the second light-transmitting hole 214 and the third light-transmitting hole 216 can have uniform light emission brightness, thereby ensuring the image quality of the light emission pattern generated by the light-emitting unit B in the housing 210.
[0059] In the foregoing embodiments, the first light diffusion layers 150, 250 and the second light diffusion layers 170, 270 each have light-shielding pattern layers 158, 178 to form first light-shielding areas 156, 256 and second light-shielding areas 176, 276 at the edges of the light-emitting units A, B, preventing adjacent light-emitting units A, B from interfering with each other. However, this disclosure is not limited thereto. In other embodiments, if there is sufficient distance between the light-emitting units A, B, the light-shielding pattern layers 158, 178 may be omitted.
[0060] The electronic device of this invention utilizes a first light diffusion layer 150, 250 and a second light diffusion layer 170, 270 to effectively disperse the light generated by the light-emitting element 132 to the first light-transmitting aperture 112, 212 and the second light-transmitting aperture 114, 214 for outward projection. This reduces the number of light-emitting elements 132 while achieving ideal image quality. Furthermore, it avoids overheating inside the system due to an excessive number of light-emitting elements 132, and also helps reduce manufacturing costs.
[0061] Although the present invention has been disclosed above with reference to embodiments, it is not intended to limit the present invention. Any person skilled in the art can make some changes and modifications without departing from the concept and scope of the present invention. Therefore, the scope of protection of the present invention shall be determined by the claims.
Claims
1. An electronic device, characterized by comprising: The light diffusion structure comprises: a first light diffusion layer, disposed between the housing and the light emitting element, and comprising a first semi-transparent region and a first light shielding region, wherein the first semi-transparent region corresponds to the first light transmission hole, and the first light shielding region surrounds the first semi-transparent region; and a second light diffusion layer, disposed between the housing and the light emitting element, and comprising a second semi-transparent region and a second light shielding region, wherein the second semi-transparent region corresponds to the second light transmission hole, and the second light shielding region surrounds the second semi-transparent region. The first light diffusion layer further comprises a first light transmission region between the first semi-transparent region and the first light shielding region. The second light diffusion layer further comprises a second light transmission region corresponding to the first light transmission hole, and the second semi-transparent region surrounds the second light transmission region. The first light diffusion layer comprises a light shielding pattern layer and a semi-transparent reflective pattern layer, wherein the light shielding pattern layer defines the first light shielding region, and the semi-transparent reflective pattern layer defines the first semi-transparent region.
2. The electronic device of claim 1, wherein, The light diffusion structure comprises a first light transmission film, and the light shielding pattern layer and the semi-transparent reflective pattern layer are located on opposite sides of the first light transmission film.
3. The electronic device of claim 1, wherein the first and second conductive layers are formed of a conductive material. The semi-transparent reflective pattern layer is a silver ink layer.
4. The electronic device of claim 1, wherein, The light shielding pattern layer is a black ink layer.
5. The electronic device of claim 4, wherein the first and second conductive layers are formed of a conductive material. The second light diffusion layer comprises a light shielding pattern layer and a semi-transparent pattern layer, wherein the light shielding pattern layer defines the second light shielding region, and the semi-transparent pattern layer defines the second semi-transparent region.
6. The electronic device of claim 4, wherein the first and second conductive layers are formed of a conductive material. The light diffusion structure comprises a second light transmission film, and the light shielding pattern layer and the semi-transparent pattern layer are located on opposite sides of the second light transmission film.
7. The electronic device according to claim 4, characterized in that, The semi-transparent pattern layer is a white ink layer.
8. The electronic device of claim 1, wherein, The light shielding pattern layer is a black ink layer.
9. The electronic device of claim 8, wherein the first and second conductive layers are formed of a conductive material. The housing further comprises a third light transmission hole, the first light transmission hole and the second light transmission hole have a first distance therebetween, the first light transmission hole and the third light transmission hole have a second distance therebetween, and the first distance is smaller than the second distance.
10. The electronic device of claim 8, wherein the first and second conductive layers are formed of a conductive material. The second light diffusion layer further comprises a second light transmission region corresponding to the first light transmission hole, and a third light transmission region corresponding to the third light transmission hole, wherein the second semi-transparent region surrounds the second light transmission region, and the second light shielding region surrounds the third light transmission region.
11. The electronic device of claim 8, wherein the at least one processor is further configured to: The light diffusion structure comprises a light transmission film, and the first light diffusion layer and the second light diffusion layer are located on opposite sides of the light transmission film.
12. The electronic device of claim 1, wherein, 13. The electronic device of claim 12, wherein the at least one processor is further configured to: 14. The electronic device of claim 1, wherein,
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