Organic devices

Abstract

The first electrode located on the substrate of the organic device of the present invention may include a plurality of first color electrodes, a plurality of second color electrodes, and a plurality of third color electrodes. One pixel can be formed by one first color electrode, one second color electrode, and two third color electrodes. The first color electrodes and third color electrodes may be arranged alternately along a first direction or alternately along a second direction orthogonal to the first direction. The first color electrodes located in the first display area and the second display area may be arranged with a first pitch along both the first and second directions. The first color electrodes and third color electrodes located in the second display area may be arranged in a manner that repeats the second and third pitches along both the first and second directions. The second pitch may be different from the third pitch.

Description

Organic devices and shielding groups The embodiment disclosed herein relates to an organic device and a group of shields. Devices such as smartphones and tablet PCs require high-definition display devices. For example, these devices require a pixel density of 400 ppi or higher. There is also a demand for display devices compatible with ultra-high definition (UHD). Such display devices sometimes have a pixel density of 800 ppi or higher, for example. Organic EL (OLED) display devices, as an example of organic devices, have attracted much attention due to their good responsiveness and / or low power consumption. As a method for forming pixels in an organic EL display device, a method of attaching pixel-forming materials to a substrate by vapor deposition is known. In the vapor deposition method, a vapor deposition mask with through-holes arranged in a desired pattern is used to form pixels and electrodes in the desired pattern. For example, firstly, a conductive material is attached to the substrate using a vapor deposition mask to form a first electrode with a pattern corresponding to the pixel. Then, an organic material is attached to the first electrode using another vapor deposition mask to form a light-emitting layer. Afterward, a conductive material is attached to the light-emitting layer to form a second electrode. [Prior Art Documents] [Patent Documents] [Patent Document 1] Japanese Patent No. 6143043 [Patent Document 2] Japanese Patent No. 6301610 [Patent Document 3] Japanese Patent No. 6672194 [Problems to be solved by the invention] In organic devices, light can sometimes easily pass through areas where the first electrode is absent. When the periodicity of the first electrode arrangement is high, it is thought that diffraction of light occurs, potentially increasing the intensity of the diffracted light. [Technical Solution] One embodiment of the organic device disclosed herein is an organic device having a first display area and a second display area located at a different position from the first display area when viewed from above. The organic device includes: a substrate; a first electrode located on the substrate; an organic layer located on the first electrode; and a second electrode located on the organic layer and overlapping the first electrode when viewed from above. The first electrode includes a plurality of first color electrodes, a plurality of second color electrodes, and a plurality of third color electrodes. The organic layer includes: a plurality of first color organic layers located on the first color electrodes, a plurality of second color organic layers located on the second color electrodes, and a plurality of third color organic layers located on the third color electrodes. One pixel is constituted by one first color electrode, one second color electrode, and two third color electrodes. The first color electrodes and third color electrodes are arranged alternately along a first direction and alternately along a second direction orthogonal to the first direction. The first color electrodes located in the first display area and the second display area are arranged at a first pitch along each of the first and second directions. The first color electrodes and the third color electrodes located in the second display area are arranged at a second and third pitch along each of the first and second directions, respectively, with the second pitch being different from the third pitch. The mask group in one embodiment of this disclosure includes: a first mask including a first through hole, a second mask including a second through hole, and a third mask including a third through hole. The mask stack formed by the overlapping of the first, second, and third masks has a first mask region and a second mask region located at a different position from the first mask region when viewed from above. A through hole group is formed by one first through hole, one second through hole, and two third through holes. When viewed from above, the first and third through holes are alternately arranged along a first direction and alternately arranged along a second direction orthogonal to the first direction. The first through holes located in the first and second mask regions are arranged with a first pitch along both the first and second directions. The first and third through holes located in the second region of the mask are arranged along the first and second directions respectively in a repeating pattern of the second and third pitches. The second and third pitches are different. [Effects of the Invention] According to this disclosure, the intensity of diffracted light generated by light passing through an organic device can be reduced. In this specification and the drawings, unless otherwise specified, terms such as "substrate", "base material", "plate", "sheet" and "film" refer to a material that serves as the basis of a certain structure and are not distinguished from each other merely by different names. In this specification and the drawings, unless otherwise specified, terms such as "parallel" or "orthogonal" regarding specific shapes and geometric conditions, and their degrees, or values ​​of lengths or angles, are not strictly limited in meaning and are to be interpreted within a range that includes the degree to which the same function can be expected. Unless otherwise specified in this specification and these drawings, the terms "on top of," "on bottom of," "on the upper side," "on the lower side," or "above" and "below" for a component or region being used as another component or region include cases where the component is directly connected to another component. Furthermore, it also includes cases where another component is involved between the component and another component, i.e., cases where they are indirectly connected. Unless otherwise specified, the terms "on top," "on the upper side," and "above," or "bottom," "below," and "below" can be used with the vertical direction reversed. Unless otherwise specified, in this specification and these drawings, the same or similar symbols are used to represent the same part or parts having the same function, and repeated descriptions are omitted. Furthermore, the dimensional ratios in the drawings may differ from the actual ratios for ease of explanation, and some parts may be omitted from the drawings. Unless otherwise specified in this specification and these drawings, the embodiments disclosed herein can be combined with other embodiments and variations to the extent that no contradiction arises. Furthermore, other embodiments, as well as other embodiments and variations, can also be combined to the extent that no contradiction arises. Moreover, variations can also be combined to the extent that no contradiction arises. Unless otherwise specified in this specification and these drawings, in cases where multiple steps are disclosed regarding manufacturing methods, other undisclosed steps may be performed between the disclosed steps. Furthermore, the order of the disclosed steps is arbitrary to the extent that it does not create contradictions. Unless otherwise specified in this specification and these drawings, the range indicated by the symbol "~" includes the values ​​and requirements placed before and after the "~" symbol. For example, the numerical range defined by the expression "34 to 38% mass" is the same as the numerical range defined by the expression "more than 34% mass and less than 38% mass". For example, the range defined by the expression "mask 50A to 50C" includes masks 50A, 50B, and 50C. In one embodiment of this specification, an example is described where a mask group having a plurality of masks is used for forming electrodes on a substrate during the manufacture of an organic EL display device. However, the application of the mask group is not particularly limited, and this embodiment can be applied to mask groups used for various purposes. For example, the mask group of this embodiment can be used to form electrodes for a device used to display or project images or videos used to represent virtual reality (VR) or augmented reality (AR). Furthermore, the mask group of this embodiment can be used to form electrodes for display devices other than organic EL display devices, such as electrodes for liquid crystal display devices. Also, the mask group of this embodiment can be used to form electrodes for organic devices other than display devices, such as electrodes for pressure sensors. The organic device of the first aspect of the present disclosure has a first display area and a second display area located at a different position from the first display area in a plan view, and includes: a substrate; a first electrode located on the substrate; an organic layer located on the first electrode; and a second electrode located on the organic layer and overlapping the first electrode in a plan view; the first electrode includes a plurality of first color electrodes, a plurality of second color electrodes, and a plurality of third color electrodes; the organic layer includes a plurality of first color organic layers located on the first color electrode, a plurality of second color organic layers located on the second color electrode, and a plurality of third color organic layers located on the third color electrode; one first color electrode, one second color electrode, and two third color electrodes constitute one pixel; The aforementioned first color electrode and the aforementioned third color electrode are alternately arranged along the first direction, and alternately arranged along the second direction orthogonal to the aforementioned first direction; the aforementioned first color electrode located before the aforementioned first display area and the aforementioned second display area is arranged at a first pitch along each of the aforementioned first direction and the aforementioned second direction; the aforementioned first color electrode and the aforementioned third color electrode located before the aforementioned second display area are arranged along each of the aforementioned first direction and the aforementioned second direction in a manner of repeating a second pitch and a third pitch; the aforementioned second pitch is different from the aforementioned third pitch. The second aspect of the present disclosure is an organic device as described above in the first aspect, wherein the first color electrode and the third color electrode located in the first display area are arranged at a fourth pitch along the first direction and the second direction respectively; and the fourth pitch is half of the first pitch. The third aspect of the present disclosure is an organic device as described in the first aspect, wherein the first color electrode and the third color electrode located in the first display area are arranged along the first direction and the second direction in a manner that repeats the second pitch and the third pitch. The fourth aspect of the present disclosure is an organic device such as each of the first to third aspects mentioned above, wherein it is feasible that the first color electrode and the third color electrode located in the second display area constituting one of the aforementioned pixels are arranged along the first direction and the second direction respectively with the second pitch; and the second pitch is smaller than the third pitch. The fifth aspect of the present disclosure is an organic device such as each of the first to fourth aspects mentioned above, wherein it is feasible that the second color electrode and the third color electrode are arranged alternately along the first direction and alternately along the second direction; and in each of the first display area and the second display area, the second color electrode is arranged along the first direction and the second direction with the first pitch; the second color electrode and the third color electrode located in the second display area are arranged along the first direction and the second direction with the second pitch and the third pitch being repeated. The sixth aspect of the present disclosure is an organic device as described in the fifth aspect, wherein the second color electrode and the third color electrode located in the first display area are arranged at a fourth pitch along the first direction and the second direction respectively; and the fourth pitch is half of the first pitch. The seventh aspect of the present disclosure is an organic device as described in the fifth aspect, wherein the second color electrode and the third color electrode located in the first display area are arranged along the first direction and the second direction in a manner that repeats the second pitch and the third pitch. The 8th state sample of the present disclosure is an organic device as each of the 5th to 7th states mentioned above, wherein it is feasible that the aforementioned 2nd color electrode and the aforementioned 3rd color electrode located in the aforementioned 2nd display area constituting one aforementioned pixel are arranged along the aforementioned 1st direction and the aforementioned 2nd direction respectively with the aforementioned 2nd pitch; and the aforementioned 2nd pitch is smaller than the aforementioned 3rd pitch. A ninth aspect of the present disclosure is the organic device according to any of the first to eighth aspects, wherein a ratio of the second pitch to the third pitch is preferably 0.50-0.70. The mask group of the tenth aspect of the present disclosure comprises: a first mask including a first through-hole; a second mask including a second through-hole; and a third mask including a third through-hole; wherein the mask laminate formed by overlapping the first mask, the second mask, and the third mask comprises: a first mask region, and a second mask region located at a different position from the first mask region in a plan view; a through-hole group is formed by one first through-hole, one second through-hole, and two third through-holes; in a plan view of the mask laminate, the first through-holes and the third through-holes are alternately arranged along a first direction and alternately arranged along a second direction orthogonal to the first direction; the first through-holes located in the first mask region and the second mask region are arranged at a first pitch in each of the first and second directions; The first through holes and the third through holes located in the second region of the mask are arranged along the first direction and the second direction respectively in a manner of repeating a second pitch and a third pitch; the second pitch is different from the third pitch. The 11th aspect of the present disclosure is the mask group of the 10th aspect, wherein it is feasible that the first through hole and the third through hole located in the first region of the mask are arranged at a fourth pitch along the first direction and the second direction respectively; and the fourth pitch is half of the first pitch. The 12th aspect of the present disclosure is the mask group of the 10th aspect, wherein the first through hole and the third through hole located in the first region of the mask are arranged along the first direction and the second direction in a manner that repeats the second pitch and the third pitch. The 13th aspect of the present disclosure is a mask group of each of the 10th to 12th aspects described above, wherein it is feasible that the first through hole and the third through hole constituting the aforementioned through hole group located in the second area of ​​the aforementioned mask are arranged at the aforementioned second pitch along the aforementioned first direction and the aforementioned second direction; and the aforementioned second pitch is smaller than the aforementioned third pitch. The 14th aspect of the present disclosure is a mask group such as each of the 10th to 13th aspects described above, wherein it is feasible that the aforementioned second through-holes and the aforementioned third through-holes are alternately arranged along the aforementioned first direction and alternately arranged along the aforementioned second direction; in each of the aforementioned mask first area and the aforementioned mask second area, the aforementioned second through-holes are arranged along the aforementioned first direction and the aforementioned second direction with the aforementioned first pitch; the aforementioned second through-holes and the aforementioned third through-holes located in the aforementioned mask second area are arranged along the aforementioned first direction and the aforementioned second direction with a manner of repeating the aforementioned second pitch and the aforementioned third pitch. The 15th aspect of the present disclosure is a mask group like the 14th aspect, wherein it is feasible that the second through hole and the third through hole located in the first region of the mask are arranged at a fourth pitch along the first direction and the second direction respectively; and the fourth pitch is half of the first pitch. The 16th aspect of the present disclosure is the mask group of the 14th aspect, wherein the second through-holes and the third through-holes located in the first region of the mask are arranged along the first direction and the second direction in a manner that repeats the second pitch and the third pitch. The 17th aspect of the present disclosure is a mask group of each of the 14th to 16th aspects described above, wherein it is feasible that the aforementioned second through hole and the aforementioned third through hole constituting one aforementioned through hole group located in the aforementioned second area of ​​the mask are arranged at the aforementioned second pitch along the aforementioned first direction and the aforementioned second direction respectively; and the aforementioned second pitch is smaller than the aforementioned third pitch. An eighteenth aspect of the present disclosure is the mask group of each of the tenth to seventeenth aspects, wherein a ratio of the second pitch to the third pitch is preferably 0.50-0.70. One embodiment of the present disclosure will be described in detail with reference to the accompanying drawings. The following embodiments are merely examples of the present disclosure, and the present disclosure is not limited or interpreted solely by these embodiments. The organic device 100 is described using Figures 1 and 2. Figure 1 shows a top view of an example of the organic device 100, viewed along a normal direction of a substrate 110 of the organic device 100. Throughout this specification, viewing along a normal direction of a surface of a member serving as a base member such as a substrate is referred to as a top view. As shown in FIG1 , the organic device 100 may include a first display area 101 and a second display area 102 when viewed from above. The second display area 102 may be located at a different position from the first display area 101 when viewed from above. The second display area 102 may have a smaller area than the first display area 101. As shown in FIG1 , the second display area 102 may be surrounded by the first display area 101. The second display area 102 can be an area where optical components that detect light can capture light to achieve certain functions. As described later, element 115 is located in the second display area 102. Therefore, when element 115 is a pixel, an image or projection can be displayed in the second display area 102. Hereinafter, images or projections will be referred to as images, etc. In this way, the second display area 102 can detect light and display images, etc. Optical components that detect light can be sensors such as cameras, fingerprint sensors, and facial recognition sensors. The higher the transmittance of the second display area 102, the greater the amount of light received by the sensor. Figure 2 is a top view showing the element 115 in the first display area 101 and the second display area 102 of Figure 1 enlarged. Figure 2 shows the state of element 115 with the second electrode 140, which will be described later, omitted. As shown in Figure 2, organic device 100 includes a plurality of elements 115. One element 115 constitutes one pixel. Each element 115 may include one first element 115A, one second element 115B, and two third elements 115C. The first element 115A, one second element 115B, and two third elements 115C that constitute element 115 may be positioned at the vertices of a square. This arrangement of elements 115 is also known as a pantile arrangement. Throughout this specification, the term "element 115" and the symbol "element 115" are used when describing the common structure of the first element 115A, the second element 115B, and the third element 115C. In the top view of FIG2 , the outline of each element 115A, 115B, and 115C can correspond to the outline of the color electrodes 120A-120C (described later) or the outline of the color organic layers 130A-130C that overlap with the color electrodes 120A-120C. If the organic device 100 includes the insulating layer 160 (described later), the outline of the element 115 can correspond to the outline of the portion of the organic layer 130 that does not overlap with the insulating layer 160 (described later). The elements 115 can be arranged at a 45° angle in the first display area 101 and the second display area 102. The elements 115 are arranged along a first element direction G1 and a second element direction G2. The second element direction G2 can be perpendicular to the first element direction G1. The first element direction G1 and the second element direction G2 can form a 45° angle with respect to the outer contour 100a of the organic device 100 (see FIG. 1 ). In this embodiment, as described later, the pitch of the color electrodes 120A-120C constituting one element 115 in the second display region 102 is smaller than the pitch of the same color electrodes in the first display region 101. Meanwhile, the pixel density of the second display region 102 can be equal to that of the first display region 101. The pixel density is equivalent to the density of the element 115. The organic device 100 is described in more detail using Figures 3 and 4. Figure 3 is a cross-sectional view of the organic device 100 in the first display area 101, taken along line AA in Figure 2. Figure 4 is a cross-sectional view of the organic device 100 in the second display area 102, taken along line BB in Figure 2. As shown in Figure 3, an organic device 100 includes a substrate 110 and an element 115 located on the substrate 110. The element 115 may include a first electrode 120 located on the substrate 110, an organic layer 130 located on the first electrode 120, and a second electrode 140 located on the organic layer 130. The organic layer 130 may overlap the first electrode 120 in a plan view. The second electrode 140 may overlap the first electrode 120 in a plan view. The organic device 100 may include an insulating layer 160 located between two adjacent color electrodes 120A-120C in a top view. The insulating layer 160 may include, for example, polyimide. The insulating layer 160 may overlap the ends of the color electrodes 120A-120C. The organic device 100 may be an active matrix device. For example, although not shown, the organic device 100 may include switches electrically connected to each of the plurality of elements 115. The switches may be transistors, for example. The switches may control the on / off switching of the voltage or current flowing through the corresponding element 115. The element 115 can be configured to achieve a certain function by applying a voltage between the first electrode 120 and the second electrode 140. Alternatively, the element 115 can be configured to achieve a certain function by flowing a current between the first electrode 120 and the second electrode 140. For example, if the element 115 is a pixel of the organic device 100, it can emit light that forms an image. The structure of the substrate 110 will be explained. The substrate 110 may include a first surface 110a on which the element 115 is located, and a second surface 110b located opposite the first surface 110a. The substrate 110 may be an insulating plate-shaped member. The substrate 110 may be translucent enough to allow visible light to pass through. For example, the substrate 110 may be a glass substrate. When the substrate 110 has a specified transmittance, the transmittance of the substrate 110 can be the transmittance that allows light emitted from the organic layer 130 to pass through and be displayed. For example, the transmittance of the substrate 110 in the visible light region can be 70% or more, or 80% or more, or 90% or more. The transmittance of the substrate 110 can be the transmittance relative to light with a wavelength of 550 nm. The transmittance of the substrate 110 can be determined by the experimental method for the total transmittance of plastic-transparent materials based on JIS K7361-1. The substrate 110 may be flexible or non-flexible, and the material of the substrate 110 may be appropriately selected according to the application of the organic device 100 . The thickness of the substrate 110 can be appropriately selected based on the material used for the substrate 110 or the purpose of the organic device 100. For example, the thickness of the substrate 110 can be greater than 0.005 mm. The thickness of the substrate 110 can be less than 5 mm. The configuration of the first electrode 120 will be explained using Figures 3 to 7. Figure 5 is an enlarged top view of the first electrode 120 in the second display area 102, and Figure 6 is an enlarged top view of the first electrode 120 in the first display area 101. Figure 7 is an enlarged top view of the first electrode 120 in both the first display area 101 and the second display area 102. As shown in Figures 3 and 4, the first electrode 120 may include a plurality of electrodes. For example, the first electrode 120 may include a first color electrode 120A, a second color electrode 120B, and a third color electrode 120C. One first color electrode 120A, one second color electrode 120B, and two third color electrodes 120C may constitute one pixel or element 115. The first color electrode 120A, the second color electrode 120B, and the third color electrode 120C may each be formed by evaporation. More specifically, the first color electrode 120A may be formed by evaporation using a first mask 50A (see Figures 11 and 15), which will be described later. The second color electrode 120B may be formed by evaporation using a second mask 50B (see Figures 12 and 16), which will be described later. The third color electrode 120C can be formed by vapor deposition using the third mask 50C described later (see Figures 13 and 17). In this specification, when describing the common configuration of the first electrode in the first color electrode 120A, the second color electrode 120B, and the third color electrode 120C, the term "first electrode 120" and its symbol are used. The first color electrode 120A may be superimposed on the first color organic layer 130A (described later) when viewed from above. The first color organic layer 130A may be a red luminescent layer. The second color electrode 120B may be superimposed on the second color organic layer 130B (described later) when viewed from above. The second color organic layer 130B may be a blue organic layer. The third color electrode 120C may be superimposed on the third color organic layer 130C (described later) when viewed from above. The third color organic layer 130C may be a green organic layer. As shown in Figures 5 to 7 , the first color electrode 120A, the second color electrode 120B, and the third color electrode 120C can have a generally circular or elliptical outline when viewed from above, or can have a generally polygonal outline. For example, each electrode 120A to 120C can have a generally square, hexagonal, or octagonal outline. In the examples shown in Figures 5 to 7 , each color electrode 120A to 120C has a generally circular outline. The diameter of the second color electrode 120B can be larger than the diameter of the first color electrode 120A. The diameter of the third color electrode 120C can be smaller than the diameter of the first color electrode 120A. Non-electrode regions 121 can be formed around each first electrode 120 located in the second display region 102. More specifically, non-electrode regions 121 are formed around each color electrode 120A-120C and are regions where each color electrode 120A-120C is not formed. Light reaching the second display region 102 of the organic device 100 can primarily pass through the non-electrode regions 121 and reach optical components, etc., located on the back side of the substrate 110. Non-electrode regions 121 can also be formed around each first electrode 120 located in the first display region 101. The positional relationship between the first color electrode 120A, the second color electrode 120B, and the third color electrode 120C will be described. In this embodiment, the pitch between the color electrodes 120A to 120C constituting one element 115 in the second display area 102 is reduced. This will be described below. As shown in FIG5 , in the second display area 102 , the first color electrodes 120A can be arranged along the first device direction G1 or along the second device direction G2. The pitch of the first color electrodes 120A along the first device direction G1 can be a first pitch P1. The pitch of the first color electrodes 120A along the second device direction G2 can be a first pitch P1. The first color electrodes 120A in the second display area 102 can be arranged at equal intervals along both the first device direction G1 and the second device direction G2. As shown in FIG6 , in the first display area 101 , the first color electrodes 120A can be arranged along the first device direction G1 or along the second device direction G2. The pitch of the first color electrodes 120A along the first device direction G1 can be a first pitch P1. The pitch of the first color electrodes 120A along the second device direction G2 can be a first pitch P1. The first color electrodes 120A located in the first display area 101 can be arranged at equal intervals along both the first device direction G1 and the second device direction G2. As shown in FIG5 , in the second display area 102 , the second color electrodes 120B can be arranged along the first element direction G1 or the second element direction G2. The pitch of the second color electrodes 120B along the first element direction G1 can be a first pitch P1, which can be equal to the pitch of the first color electrodes 120A. The pitch of the second color electrodes 120B along the second element direction G2 can be a first pitch P1, which can be equal to the pitch of the first color electrodes 120A. The second color electrodes 120B in the second display area 102 can be arranged at equal intervals along both the first element direction G1 and the second element direction G2. As shown in FIG6 , in the first display area 101, the second color electrodes 120B can be arranged along the first element direction G1 or along the second element direction G2. The pitch of the second color electrodes 120B along the first element direction G1 can be a first pitch P1, which can be equal to the pitch of the first color electrodes 120A. The pitch of the second color electrodes 120B along the second element direction G2 can be a first pitch P1, which can be equal to the pitch of the first color electrodes 120A. The second color electrodes 120B located in the first display area 101 can be arranged at equal intervals along both the first element direction G1 and the second element direction G2. As shown in Figures 5 and 6 , in each of the first display area 101 and the second display area 102, the third color electrodes 120C can be arranged along the first element direction G1 or the second element direction G2. The two third color electrodes 120C constituting one element 115 can include one third color electrode 120Ca and one third color electrode 120Cb. In this specification, the term "third color electrode 120C" and the symbol "third color electrode 120C" are used when describing the common features of the third color electrodes 120Ca and 120Cb. The third color electrode 120Ca and the third color electrode 120Cb are arranged parallel to each other along the first direction G1 of the element. The pitch of the third color electrode 120Ca along the first direction G1 of the element can be the first pitch P1, which can be equal to the pitch of the first color electrode 120A. The pitch of the third color electrode 120Cb along the first direction G1 of the element can be the first pitch P1, which can be equal to the pitch of the first color electrode 120A. The third color electrode 120Ca and the third color electrode 120Cb are arranged parallel to each other along the second direction G2 of the element. The pitch of the third color electrode 120Ca along the second direction G2 of the element can be the first pitch P1, which can be equal to the pitch of the first color electrode 120A. The pitch of the third color electrode 120Cb along the second direction G2 of the element can be the first pitch P1, which can be equal to the pitch of the first color electrode 120A. As shown in Figures 5 and 6, in the first display area 101 and the second display area 102, the first color electrode 120A and the third color electrode 120C can be arranged alternately along the first direction G1 of the element, or they can be arranged alternately along the second direction G2 of the element. As shown in Figure 5, the first color electrode 120A and the third color electrode 120Cb located in the second display area 102 can form a first electrode arrangement 151 along the first direction G1 of the element. A plurality of first electrode arrangements 151 can be formed in the second display area 102. The first color electrode 120A and the third color electrode 120Cb located in the second display area 102 can form a second electrode arrangement 152 along the second direction G2 of the element. A plurality of second electrode arrangements 152 can be formed in the second display area 102. The first color electrode 120A and the third color electrode 120C located in the second display area 102 can be arranged along the first element direction G1 and the second element direction G2 respectively, repeating the second pitch P2 and the third pitch P3. In the first electrode arrangement 151 described above, the pitch between the first color electrode 120A and the third color electrode 120Cb constituting one element 115 can be the second pitch P2. In the first electrode arrangement 151, the pitch between the first color electrode 120A of one element 115 and the third color electrode 120Cb constituting the other element 115 can be the third pitch P3. In the second electrode arrangement 152 described above, the pitch between the first color electrode 120A and the third color electrode 120Cb constituting one element 115 can be the second pitch P2. In the second electrode arrangement 152, the pitch between the first color electrode 120A of one of the two adjacent elements 115 and the third color electrode 120Cb of the other element 115 can be a third pitch P3. The sum of the second pitch P2 and the third pitch P3 is equal to the first pitch P1 mentioned above. The second pitch P2 may be different from the third pitch P3. The second pitch P2 may be smaller than the third pitch P3. The second pitch P2 may be less than half of the first pitch P1. The ratio of the second pitch P2 to the third pitch P3 can be, for example, 0.50 or higher, 0.51 or higher, or 0.52 or higher. By setting the ratio to 0.50 or higher, the distance between the color electrodes 120A to 120C can be ensured, and color mixing can be suppressed. The ratio can be, for example, 0.66 or lower, 0.68 or lower, or 0.70 or lower. By setting the ratio to 0.70 or lower, the regularity of the arrangement of the color electrodes 120A to 120C can be effectively reduced. The range of the ratio can be determined by a first group containing 0.50 to 0.51 and 0.52, and / or a second group containing 0.66 to 0.68 and 0.70. The range of the ratio can be determined by a combination of any one of the values ​​contained in the first group and any one of the values ​​contained in the second group. The range of the ratio can be determined by any combination of two values ​​contained in the first group above. The range of the ratio can be determined by any combination of two values ​​contained in the second group above. For example, it can be 0.50 to 0.70, 0.50 to 0.68, 0.50 to 0.66, 0.50 to 0.52, 0.50 to 0.51, 0.51 to 0.70, 0.51 to 0.68, 0.51 to 0.66, 0.51 to 0.52, 0.52 to 0.70, 0.52 to 0.68, 0.52 to 0.66, 0.66 to 0.70, 0.66 to 0.68, or 0.68 to 0.70. As shown in Figure 6, the first color electrode 120A and the third color electrode 120Cb located in the first display area 101 can form a third electrode arrangement 153 along the first direction G1 of the element. A plurality of third electrode arrangements 153 can be formed in the first display area 101. The first color electrode 120A and the third color electrode 120Cb located in the first display area 101 can form a fourth electrode arrangement 154 along the second direction G2 of the element. A plurality of fourth electrode arrangements 154 can be formed in the first display area 101. The first color electrode 120A and the third color electrode 120C located in the first display area 101 can be arranged with a fourth pitch P4 along the first element direction G1 and the second element direction G2, respectively. In the third electrode arrangement 153 described above, the pitch between the first color electrode 120A and the third color electrode 120C can be the fourth pitch P4. In the fourth electrode arrangement 154 described above, the pitch between the first color electrode 120A and the third color electrode 120Cb can be the fourth pitch P4. The first color electrode 120A and the third color electrode 120C located in the first display area 101 can be arranged at equal intervals along the first element direction G1 and the second element direction G2, respectively. The fourth pitch P4 can be half of the first pitch P1. The fourth pitch P4 can be greater than the second pitch P2 or less than the third pitch P3. As shown in Figures 5 and 6, in the first display area 101 and the second display area 102, the second color electrode 120B and the third color electrode 120C can be arranged alternately along the first direction G1 of the element, or they can be arranged alternately along the second direction G2 of the element. As shown in Figure 5, the second color electrode 120B and the third color electrode 120Cb located in the second display area 102 can form a fifth electrode arrangement 155 along the first direction G1 of the element. A plurality of fifth electrode arrangements 155 can be formed in the second display area 102. The second color electrode 120B and the third color electrode 120Cb located in the second display area 102 can form a sixth electrode arrangement 156 along the second direction G2 of the element. A plurality of sixth electrode arrangements 156 can be formed in the second display area 102. The second color electrode 120B and the third color electrode 120C located in the second display area 102 can be arranged along the first element direction G1 and the second element direction G2 respectively, repeating the second pitch P2 and the third pitch P3. In the fifth electrode arrangement 155 described above, the pitch between the second color electrode 120B and the third color electrode 120Cb constituting one element 115 can be the second pitch P2. In the fifth electrode arrangement 155, the pitch between the second color electrode 120B constituting one of two adjacent elements 115 and the third color electrode 120Cb constituting the other element 115 can be the third pitch P3. In the sixth electrode arrangement 156 described above, the pitch between the second color electrode 120B and the third color electrode 120Cb constituting one element 115 can be the second pitch P2. In the sixth electrode arrangement 156 , a pitch between the second color electrode 120B constituting one element 115 and the third color electrode 120Ca constituting the other element 115 of two adjacent elements 115 may be a third pitch P3 . As shown in Figure 6, the second color electrode 120B and the third color electrode 120Cb located in the first display area 101 can form a seventh electrode arrangement 157 along the first direction G1 of the element. A plurality of seventh electrode arrangements 157 can be formed in the first display area 101. The second color electrode 120B and the third color electrode 120Cb located in the first display area 101 can form an eighth electrode arrangement 158 ​​along the second direction G2 of the element. A plurality of eighth electrode arrangements 158 can be formed in the first display area 101. The second color electrodes 120B and the third color electrodes 120C located in the first display area 101 can be arranged at a fourth pitch P4 along the first device direction G1 and the second device direction G2, respectively. In the seventh electrode arrangement 157 described above, the pitch between the second color electrodes 120B and the third color electrodes 120Cb can be the fourth pitch P4. In the eighth electrode arrangement 158 ​​described above, the pitch between the second color electrodes 120B and the third color electrodes 120Ca can be the fourth pitch P4. As shown in Figure 7, the components 115 located in the first display area 101 and the components 115 located in the second display area 102 can be arranged along either the first component direction G1 or the second component direction G2. More specifically, the centers 115O of ​​the components 115 located in the first display area 101 and the second display area 102 can be arranged along either the first component direction G1 or the second component direction G2. Along both the first component direction G1 and the second component direction G2, the center 115O of ​​the components 115 located in the second display area 102 can be located on an extension of the arrangement of the centers 115O of ​​the components 115 located in the first display area 101. The center 115O of ​​element 115 can be the intersection of the line segment connecting the center of the first color electrode 120A and the center of the second color electrode 120B, and the line segment connecting the center of the third color electrode 120Ca and the center of the third color electrode 120Cb. In this case, the center 115O of ​​element 115 is located midway between the centers of the first color electrode 120A and the second color electrode 120B, and also midway between the centers of the third color electrode 120Ca and the third color electrode 120Cb. As shown in Figure 7, the first electrode arrangement 151 can be offset from the third electrode arrangement 153 in the second direction G2 of the element. The second electrode arrangement 152 can be offset from the fourth electrode arrangement 154 in the first direction G1 of the element. The fifth electrode arrangement 155 can be offset from the seventh electrode arrangement 157 in the second direction G2 of the element. The sixth electrode arrangement 156 can be offset from the eighth electrode arrangement 158 ​​in the first direction G1 of the element. The structure of the organic layer 130 will be described with reference to FIG. 3 and FIG. 4 . The organic layer 130 shown in Figures 3 and 4 contains organic materials. When an electric current is applied to the organic layer 130, it can perform certain functions. Applying an electric current means applying a voltage to the organic layer 130 or allowing current to flow through it. The organic layer 130 may be a light-emitting layer that emits light when an electric current is applied, or a layer whose light transmittance or refractive index changes when an electric current is applied. The organic layer 130 may contain organic semiconductor materials. As shown in Figures 3 and 4, the organic layer 130 may include a first-color organic layer 130A, a second-color organic layer 130B, and a third-color organic layer 130C. Each organic layer 130A to 130C can be formed by vapor deposition using the vapor deposition mask 20 of this embodiment. For example, the first-color organic layer 130A may be located on the first-color electrode 120A and may be a red light-emitting layer. For example, the second-color organic layer 130B may be located on the second-color electrode 120B and may be a blue light-emitting layer. For example, the third-color organic layer 130C may be located on the third-color electrode 120C and may be a green light-emitting layer. For example, the through-holes of the mask used to form the first-color organic layer 130A may be formed in a manner corresponding to the pattern of the first-color organic layer 130A. The through-holes of the mask used to form the second-color organic layer 130B may be formed in a manner corresponding to the pattern of the second-color organic layer 130B. The through-holes of the mask used to form the third-color organic layer 130C can be formed in a manner corresponding to the pattern of the third-color organic layer 130C. In the description of this specification, when describing the common structure of the organic layers in the first-color organic layer 130A, the second-color organic layer 130B, and the third-color organic layer 130C, the term "organic layer 130" and its symbol are used. The structure of the second electrode 140 will be described using FIG. 3 and FIG. 4 . As shown in Figures 3 and 4, the second electrode 140 can be superimposed on the first color organic layer 130A, the second color organic layer 130B, and the third color organic layer 130C in top view. The second electrode 140 can be formed across the first color organic layer 130A, the second color organic layer 130B, and the third color organic layer 130C. The second electrode 140 can be formed continuously over the entire organic layer 130. However, it is not limited to this, the second electrode 140 can be patterned in a manner corresponding to each element 115A, 115B, and 115C. In this case, the second electrode 140 can comprise a plurality of layers. Each layer of the second electrode 140 can be patterned in a manner superimposed on at least one of the first color organic layer 130A, the second color organic layer 130B, and the third color organic layer 130C in top view, with the layers of the second electrode 140 partially overlapping each other. The first element 115A described above may include a first color electrode 120A, a first color organic layer 130A, and a second electrode 140. When the second electrode 140 is patterned to correspond to the respective elements 115A, 115B, and 115C, the layer of the second electrode 140 located above the first color organic layer 130A may constitute the first element 115A. The second element 115B may include a second color electrode 120B, a second color organic layer 130B, and the second electrode 140. When the second electrode 140 is patterned to correspond to the respective elements 115A, 115B, and 115C, the layer of the second electrode 140 located above the second color organic layer 130B may constitute the second element 115B. The third element 115C may include a third color electrode 120C, a third color organic layer 130C, and the second electrode 140. When the second electrode 140 is patterned to correspond to the respective elements 115A, 115B, and 115C, the layer of the second electrode 140 located above the third-color organic layer 130C constitutes the third element 115C. The first element 115A, the second element 115B, and the third element 115C are each sub-pixels. A single pixel can be formed by combining one first element 115A, one second element 115B, and two third elements 115C. When a voltage is applied between the first electrode 120 and the second electrode 140, the organic layer 130 located therebetween is driven. If the organic layer 130 is a light-emitting layer, light is emitted from the organic layer 130 and is extracted to the outside through the second electrode 140 or through the first electrode 120. In the case where the organic layer 130 is a light-emitting layer that emits light by passing an electric current, the organic layer 130 may include a hole injection layer, a hole transport layer, an electron transport layer, an electron injection layer, etc. For example, when the first electrode 120 is an anode, the organic layer 130 may include a hole injection and transport layer between the light-emitting layer and the first electrode 120. The hole injection and transport layer may be a hole injection layer having a hole injection function. Alternatively, the hole injection and transport layer may be a hole transport layer having a hole transport function, or may have both hole injection and hole transport functions. The hole injection and transport layer may have a structure comprising a stacked hole injection layer and a hole transport layer. When the second electrode 140 is a cathode, the organic layer 130 may include an electron injection and transport layer between the light-emitting layer and the second electrode 140. The electron injection and transport layer may be an electron injection layer having an electron injection function. Alternatively, the electron injection and transport layer may be an electron transport layer having an electron transport function, or may have both electron injection and electron transport functions. The electron injection and transport layer may have a structure comprising a stack of an electron injection layer and an electron transport layer. The first electrode 120 comprises a conductive material. For example, the first electrode 120 may comprise a metal, a conductive metal oxide, or other conductive inorganic materials. The first electrode 120 may comprise a transparent and conductive metal oxide such as indium tin oxide. As a material constituting the first electrode 120, indium tin oxide (ITO) or indium zinc oxide (IZO) may be used. When the organic layer 130 is a light-emitting layer, the organic layer 130 contains a light-emitting material. The light-emitting layer may contain additives to improve leveling properties. The light-emitting material may be a known material. For example, the light-emitting material may be a dye-based material, a metal complex-based material, or a polymer-based material. The second electrode 140 includes a conductive material such as a metal. The second electrode 140 can be formed on the organic layer 130. Materials constituting the second electrode 140 include platinum, gold, silver, copper, iron, tin, chromium, aluminum, indium, lithium, sodium, potassium, calcium, magnesium, chromium, or carbon. These conductive materials can be used alone, or two or more materials can be used in combination. In the case of using two or more materials, layers containing each material can be stacked. The conductive material can use an alloy containing two or more materials. For example, the conductive material can use magnesium alloys such as MgAg, aluminum alloys such as AlLi, AlCa, and AlMg, alloys of alkali metals or alkaline earth metals, etc. As the material constituting the second electrode 140, indium tin oxide called ITO, indium sub-lead oxide called IZO, etc. can be used. The organic device 100 may include a sealing layer (not shown) that covers elements on the substrate 110, such as the organic layer 130. The sealing layer can inhibit water vapor and the like outside the organic device 100 from entering the interior of the organic device 100. This can prevent the organic layer 130 and the like from being degraded by moisture. The sealing layer may include a layer composed of, for example, an organic material. In order to inhibit the refraction of light in the sealing layer, the organic material may have a refractive index equal to that of the organic layer 130, or may have a refractive index close to that of the organic layer 130. The organic material may be sealed by, for example, an inorganic material such as silicon nitride (SiN). In this case, the sealing layer may have a laminated structure in which a layer of organic material and a layer of inorganic material are laminated. A planarization layer (not shown) may be interposed between the second electrode 140 and the sealing layer. The planarization layer may be a layer used to improve the adhesion of the sealing layer by penetrating the concave and convex parts of the elements on the substrate 110. The positions of the first electrode 120 and the organic layer 130 are inspected by observing the organic device 100 using a high-magnification digital microscope. Based on the inspection results, the dimensions of the first electrode 120 and the organic layer 130 can be calculated, and the aforementioned pitch of the first electrode 120 can be calculated. If the substrate 110 has the desired light transmittance, the pitch of the individual color electrodes 120A-120C of the first electrode 120 can be calculated by observing through the substrate 110. If the substrate 110 does not have the desired light transmittance, the pitch of the individual color electrodes 120A-120C can be calculated by observing the first electrode 120 after removing the second electrode 140 and the organic layer 130. The method for forming the first electrode 120 of the aforementioned organic device 100 by vapor deposition will be explained using FIG8. FIG8 is a diagram showing the vapor deposition apparatus 10. The vapor deposition apparatus 10 performs a vapor deposition process in which a vapor deposition material is deposited onto the object. The vapor deposition apparatus 10 may include a vapor deposition source 6, a heater 8, and a shielding device 40. The vapor deposition apparatus 10 may include an exhaust mechanism for creating a vacuum gas environment inside the apparatus 10. The vapor deposition source 6 is, for example, a crucible. The vapor deposition source 6 contains a vapor deposition material 7, such as a conductive material. The heater 8 heats the vapor deposition source 6, causing the vapor deposition material 7 to evaporate in a vacuum gas environment. The shielding device 40 is configured to face the crucible 6. As shown in Figure 8, the mask device 40 may include at least one mask 50 and a frame 41 that supports the mask 50. The frame 41 may include a first frame surface 41a and a second frame surface 41b. The mask 50 can be fixed to the first frame surface 41a. The second frame surface 41b is located on the opposite side of the first frame surface 41a. The frame 41 may include a frame opening 42. The frame opening 42 passes through from the first frame surface 41a to the second frame surface 41b. The mask 50 can be fixed to the frame 41 in a manner that crosses the frame opening 42 when viewed from above. The frame 41 can support the mask 50 in a pulled state along the direction of the first frame surface 41a. In this way, the mask 50 can be suppressed from bending. The first mask 50A, the second mask 50B, or the third mask 50C described later can be used as the mask 50. In the description of this specification, when describing the common mask structure of the first mask 50A, the second mask 50B, and the third mask 50C, the term and symbol "mask 50" are used. In this case, similarly, for the component elements of the mask such as the through-hole or the shielding area described later, symbols that are simply numbers without letters, such as "53" or "54", can be used. On the other hand, when describing the content unique to each of the first mask 50A, the second mask 50B, and the third mask 50C, symbols with the corresponding letters such as "A", "B", or "C" after the numbers may also be used. The mask 50 of the mask device 40 faces the first surface 110a of the substrate 110. The object to which the evaporation material 7 is attached using the mask 50 is the substrate 110. The mask 50 includes a plurality of through-holes 53. The through-holes 53 allow the evaporation material 7 flying from the evaporation source 6 to pass through. The evaporation material 7 passing through the through-holes 53 adheres to the first surface 111a of the substrate 110. The mask 50 includes a first surface 51a and a second surface 51b. The first surface 51a faces the first surface 110a. The second surface 51b is located on the opposite side of the first surface 51a and faces the first frame surface 41a of the frame 41. The through-holes 53 extend from the first surface 51a to the second surface 51b. The evaporation apparatus 10 may include a substrate holder 2 for holding a substrate 110. The substrate holder 2 is movable in the thickness direction of the substrate 110. The substrate holder 2 is movable along the first surface 110a of the substrate 110. The substrate holder 2 can change the inclination of the substrate 110. For example, the substrate holder 2 may include a plurality of chucks for holding the outer edge of the substrate 110. Each chuck is independently movable in the thickness direction of the substrate 110 and along the first surface 110a. The vapor deposition apparatus 10 may include a mask holder 3 for holding the mask device 40. The mask holder 3 is movable in the thickness direction of the mask 50. The mask holder 3 is movable in the direction along the first surface 51a of the mask 50. For example, the mask holder 3 may include a plurality of chucks on the outer edge of the holding frame 41. Each chuck is movable independently in the thickness direction of the mask 50 and in the direction along the first surface 51a. The position of the mask 50 of the mask device 40 relative to the substrate 110 can be adjusted by moving at least one of the substrate holder 2 and the mask holder 3 . The vapor deposition apparatus 10 may include a cooling plate 4. The cooling plate 4 may face the second surface 110b of the substrate 110. The cooling plate 4 may have a flow path for circulating the coolant within the cooling plate 4. The cooling plate 4 may suppress the temperature rise of the substrate 110 during the vapor deposition step. The evaporation device 10 may include a magnet 5 facing the second surface 110b across the cooling plate 4. The magnet 5 may overlap the cooling plate 4. The magnet 5 pulls the mask 50 to the substrate 110 by magnetic force. Thereby, the gap between the mask 50 and the substrate 110 can be reduced or eliminated. Therefore, the generation of shadows in the evaporation step can be suppressed. Therefore, the dimensional accuracy and positional accuracy of the first electrode 120 can be improved. Alternatively, an electrostatic chuck using electrostatic force can be used instead of the magnet 5 to pull the mask 50 to the substrate 110. The masking device 40 will be described below. Figure 9 is a top view of the masking device 40. The masking device 40 may include two or more masks 50. The masks 50 may be fixed to the frame 41 by, for example, welding. The frame 41 includes a pair of first sides 411 and a pair of second sides 412. The frame 41 may have a rectangular outline. The mask 50 may be secured to the first sides 411 in a tensioned state. The first sides 411 may be longer than the second sides 412. The pair of first sides 411 and the pair of second sides 412 may surround the frame opening 42. The material constituting the frame 41 may be the same as the material of the mask 50 described later. For example, the material constituting the frame 41 may be an iron alloy containing nickel. The mask 50 will be described using Figures 9 to 14. Figure 10 is an enlarged top view of an example of the mask 50. Figure 11 is a top view of the first mask device 40A including the first mask 50A. Figure 12 is a top view of the second mask device 40B including the second mask 50B. Figure 13 is a top view of the third mask device 40C including the third mask 50C. Figure 14 is a cross-sectional view showing an example of the cross-sectional structure of the mask 50. As shown in Figures 9 and 10, the mask 50 includes at least one unit 52. The unit 52 includes a through-hole 53 and a shielding area 54 surrounding the through-hole 53. The unit 52 is composed of a plurality of through-holes 53. The mask 50 may include two or more units 52. When using the mask 50 to manufacture a display device such as an OLED display device, one unit 52 may correspond to the display area of ​​one OLED display device, that is, to one screen. One unit 52 may correspond to a plurality of display areas. The shielding area 54 may be located between two units 52. Although not shown, the mask 50 may include a through-hole located between two units 52. The unit 52 may have a generally quadrilateral outline in plan view, or more precisely, a generally rectangular outline in plan view. Each unit 52 may have a contour of various shapes corresponding to the shape of the display area of ​​the organic EL display device. For example, each unit 52 may have a circular contour. The mask 50 has a third masking direction D3 and a fourth masking direction D4. The fourth masking direction D4 may intersect or be orthogonal to the third masking direction D3. The third masking direction D3 may form a 45° angle with the first component direction G1 and the second component direction G2. The fourth masking direction D4 may also form a 45° angle with the first component direction G1 and the second component direction G2. The third and fourth masking directions D3 and D4 may be directions along the outer contour 50a of the mask 50. The third masking direction D3 may be the direction in which the masks 50 are arranged in the masking device 40 shown in FIG. 9, or it may be the width direction of the mask 50. The fourth masking direction D4 may be the length direction of the mask 50. As shown in Figure 10, the mask 50 includes the aforementioned through hole 53 and masking area 54. The through hole 53 is arranged in the first direction D1 and the second direction D2 of the mask. The first direction D1 of the mask is along the first direction G1 of the element, and the second direction D2 of the mask is along the second direction G2 of the element. The first direction D1 and the second direction D2 of the mask can form a 45° angle with respect to the outer contour 50a of the mask 50, and can also form a 45° angle with respect to the third direction D3 and the fourth direction D4 of the mask. Hereinafter, the mask 50 used for forming the first electrode 120 of the organic device 100 described above by the vapor deposition method will be described. As shown in FIG10 , when the mask 50 is viewed along the normal direction of the first surface 51 a, the mask 50 includes a first mask region M1 and a second mask region M2. The first mask region M1 corresponds to the first display region 101 of the organic device 100. The second mask region M2 corresponds to the second display region 102 of the organic device 100. The second mask region M2 is located at a different position from the first mask region M1 in a plan view. The plurality of through-holes 53 may be located in the first mask region M1. The plurality of through-holes 53 in the first mask region M1 may be arranged in a pattern. For example, the plurality of through-holes 53 may be arranged to correspond to any one of the first color electrode 120A, the second color electrode 120B, and the third color electrode 120C of the first electrode 120 in the first display region 101. The plurality of through-holes 53 may be located in the second mask region M2. The plurality of through-holes 53 in the second mask region M2 may be arranged in a pattern. For example, the plurality of through-holes 53 may be arranged to correspond to any one of the first color electrode 120A, the second color electrode 120B, and the third color electrode 120C of the first electrode 120 in the second display region 102. The mask 50 may have alignment marks 50M. Alignment marks 50M are formed, for example, at the corners of units 52 of the mask 50. Alignment marks 50M can be used to position the mask 50 relative to the substrate 110 during the step of forming the first electrode 120 on the substrate 110 using a vapor deposition method with the mask 50. Alignment marks 50M may be formed, for example, at a position overlapping with the frame opening 42, or at a position overlapping with the frame 41. Alignment marks 50M can be used for positioning the mask 50 and the frame 41 during the fabrication of the mask assembly 40. In the first electrode formation step described after the formation of the first electrode 120, a plurality of masks 50 may be used. As shown, for example, in Figures 11 to 13, the plurality of masks 50 may also include a first mask 50A, a second mask 50B, and a third mask 50C. The first mask 50A, the second mask 50B, and the third mask 50C may constitute different masking devices 40. As shown in Figure 11, the masking device 40 including the first mask 50A is also referred to as the first masking device 40A. As shown in Figure 12, the masking device 40 including the second mask 50B is also referred to as the second masking device 40B. As shown in Figure 13, the masking device 40 including the third mask 50C is also referred to as the third masking device 40C. In the first electrode formation step, for example, the first mask device 40A shown in FIG. 11 is installed in the evaporation apparatus 10, and the first color electrode 120A of the first electrode 120 is formed on the substrate 110. Subsequently, the second mask device 40B shown in FIG. 12 is installed in the evaporation apparatus 10, and the second color electrode 120B of the first electrode 120 is formed on the substrate 110. Subsequently, the third mask device 40C shown in FIG. 13 is installed in the evaporation apparatus 10, and the third color electrode 120C of the first electrode 120 is formed on the substrate 110. In this manner, in the first electrode formation step, a plurality of masks 50, namely, the first mask 50A, the second mask 50B, and the third mask 50C, are sequentially used. The plurality of masks 50 used to form the first electrode 120 of the organic device 100 are also referred to as a "mask group." As shown in Fig. 14, the mask 50 is formed of a metal plate 51 having a plurality of through holes 53. The through holes 53 penetrate the metal plate 51 from the first surface 51a to the second surface 51b. The through hole 53 may include a first recess 531 and a second recess 532. The first recess 531 is located on the first surface 51a. The first recess 531 is formed concavely on the first surface 51a. The second recess 532 is located on the second surface 51b. The second recess 532 is formed concavely on the second surface 51b. The first recess 531 is connected to the second recess 532 in the thickness direction of the metal plate 51. Viewed from above, the dimension r2 of the second recess 532 can be larger than the dimension r1 of the first recess 531. The first recess 531 can be formed by processing a metal plate 51 from the first surface 51a using etching or the like. The second recess 532 can be formed by processing a metal plate 51 from the second surface 51b using etching or the like. The first recess 531 and the second recess 532 are connected in a connecting portion 533. The height h of the connecting portion 533 from the first surface 51a is also called the section height. The section height may be a factor affecting shading, as described later. Symbol 534 denotes the through portion. The opening area of ​​the through hole 53, viewed from above, is the smallest within the through portion 534. The through portion 534 can be defined by the connecting portion 533. In Figure 14, the through portion 534 is represented by dimension r. Dimension r is smaller than dimension r1 and smaller than dimension r2. During the evaporation method using mask 50, the evaporation material 7 passes from the second surface 51b to the first surface 51a through the through-portion 534 of the through-hole 53. The evaporation material 7 adheres to the substrate 110 through the through-portion 534, thereby forming the first electrode 120 described above on the substrate 110. More specifically, the first color electrode 120A, the second color electrode 120B, and the third color electrode 120C described above are formed on the substrate 110. The planar contours of the color electrodes 120A-120C formed on the substrate 110 are primarily defined by the planar contours of the through-portion 534. The through hole 53 may have a roughly circular outline, a roughly elliptical outline, or a roughly polygonal outline when viewed from above. For example, the through hole 53 may have a roughly square, hexagonal, or octagonal outline. The through hole 53 may be formed in a similar shape in the thickness direction of the mask 50. In the examples shown in Figures 15 to 17, the through hole 53 has a roughly circular outline, similar to the first color electrode 120A, the second color electrode 120B, and the third color electrode 120C described above. The diameter of the second through hole 53B described later may be larger than the diameter of the first through hole 53A. The diameter of the third through hole 53C may be smaller than the diameter of the first through hole 53A. The area of ​​the metal plate 51 outside the through portion 534 is the aforementioned shielding area 54 , which can shield the evaporation material 7 from the substrate 110 . The shielding area 54 of the second shielding area M2 may include a recess that does not penetrate the metal plate 51. By providing a recess in the second shielding area M2, the rigidity of the second shielding area M2 can be reduced. This reduces the difference in rigidity between the second shielding area M2 and the first shielding area M1. Therefore, wrinkles in the shielding 50 due to the difference in rigidity can be suppressed. Wrinkles, for example, are easily caused when tension is applied to the shielding 50. The thickness T of the mask 50 can be, for example, 5 μm or more, 10 μm or more, 15 μm or more, or 20 μm or more. The thickness T of the mask 50 can be, for example, 25 μm or less, 30 μm or less, 50 μm or less, or 100 μm or less. The range of the thickness T of the mask 50 can be determined by the first group consisting of 5 μm, 10 μm, 15 μm, and 20 μm, and / or the second group consisting of 25 μm, 30 μm, 50 μm, and 100 μm. The range of the thickness T of the mask 50 can be determined by a combination of any one of the values ​​included in the first group and any one of the values ​​included in the second group. The range of the thickness T of the mask 50 can be determined by a combination of any two of the values ​​included in the first group. The range of the thickness T of the mask 50 can be determined by any combination of two of the values ​​contained in the second group above. For example, it may be 5 μm to 100 μm, 5 μm to 50 μm, 5 μm to 30 μm, 5 μm to 25 μm, 5 μm to 20 μm, 5 μm to 15 μm, 5 μm to 10 μm, 10 μm to 100 μm, 10 μm to 50 μm, 10 μm to 30 μm, 10 μm to 25 μm, 10 μm to 20 μm, 10 μm to 15 μm, 15 μm to 100 μm, 15 μm to 50 μm, 15 μm to 30 μm, 15 μm to 25 μm, 15 μm to 20 μm, 20 μm to 100 μm, μm or less, can be 20 μm or more and 50 μm or less, can be 20 μm or more and 30 μm or less, can be 20 μm or more and 25 μm or less, can be 25 μm or more and 100 μm or less, can be 25 μm or more and 50 μm or less, can be 25 μm or more and 30 μm or less, can be 30 μm or more and 100 μm or less, can be 30 μm or more and 50 μm or less, can be 50 μm or more and 100 μm or less. A contact measurement method was used to measure the thickness T of the mask 50. A HEIDENHAIN-METRO length gauge "MT1271" including a ball bushing-guided plunger was used. The cross-sectional shape of the through hole 53 is not limited to the shape shown in FIG14. The method for forming the through hole 53 is not limited to etching, and various methods can be used. For example, the mask 50 can be formed by plating in a manner that forms the through hole 53. As a material constituting the mask 50, for example, an iron alloy containing nickel can be used. In addition to nickel, the iron alloy may further contain cobalt. For example, as the material of the mask 50, an iron alloy in which the total content of nickel and cobalt is 30% by mass or more and 54% by mass or less, and the content of cobalt is 0% by mass or more and 6% by mass or less can be used. As an iron alloy containing nickel or nickel and cobalt, an indium steel containing 34% by mass or more and 38% by mass or less of nickel, a super indium steel containing cobalt in addition to 30% by mass or more and 34% by mass or less of nickel, or a low thermal expansion Fe-Ni plating alloy containing 38% by mass or more and 54% by mass or less of nickel can be used. By using such an iron alloy, the thermal expansion coefficient of the mask 50 can be reduced. For example, in the case of using a glass substrate as the substrate 110, the thermal expansion coefficient of the mask 50 can be set to a low value equivalent to that of the glass substrate. This can prevent the dimensional and positional accuracy of the vapor-deposited layer formed on the substrate 110 from decreasing due to the difference in the coefficients of thermal expansion between the mask 50 and the substrate 110 during the vapor deposition step. The mask group 56 will be described below. The mask group 56 includes two or more masks 50. In this embodiment, the mask group 56 may include the first mask 50A, the second mask 50B, and the third mask 50C as described above. The laminate obtained by overlapping the first mask 50A, the second mask 50B, and the third mask 50C is also referred to as the mask laminate 55. The first mask 50A is described in more detail using Figure 15. Figure 15 is a top view showing the first mask region M1 and the second mask region M2 enlarged on the first surface 51a of the first mask 50A. As shown in Figure 15, the first mask 50A includes a first through hole 53A and a first shielding region 54A. In both the first shielding region M1 and the second shielding region M2, the first through hole 53A is located at a position corresponding to the first color electrode 120A of the first electrode 120. The outline of the through hole 53 shown in Figure 15 and Figures 16 to 20 described below is the outline of the through holes 53A to 53C in the first surface 51a of the mask 50A to 50C. The outline of the through holes 53A to 53C in the first surface 51a corresponds to the outline of the first recess 531 in the first surface 51a. As shown in Figure 15, in both the first masking region M1 and the second masking region M2, the first through hole 53A can be arranged along the first masking direction D1 or along the second masking direction D2. The first through hole 53A located in the second region M2 of the mask can be arranged along the first hole (described later) in the first direction D1 of the mask (61). The first through hole 53A located in the second region M2 of the mask can be arranged along the second hole (described later) in the second direction D2 of the mask (62). The first through hole 53A located in the first region M1 of the mask can be arranged along the third hole (described later) in the first direction D1 of the mask (63). The first through hole 53A located in the first region M1 of the mask can be arranged along the fourth hole (described later) in the second direction D2 of the mask (64). The pitch of the first through-hole 53A along the first direction D1 of the mask can be the same as the first color electrode 120A described above, which is the first pitch P1. The pitch of the first through-hole 53A along the second direction D2 of the mask can also be the first pitch P1. The first through-hole 53A located in the first region M1 of the mask can be arranged at equal intervals along both the first direction D1 and the second direction D2 of the mask. The first through-hole 53A located in the second region M2 of the mask can be arranged at equal intervals along both the first direction D1 and the second direction D2 of the mask. The second mask 50B will be described in more detail with reference to Fig. 16. Fig. 16 is a plan view showing, in an enlarged manner, the first mask region M1 and the second mask region M2 on the first surface 51a of the second mask 50B. 16 , the second mask 50B includes a second through hole 53B and a second shielding region 54B. In each of the first mask region M1 and the second mask region M2, the second through hole 53B is located at a position corresponding to the second color electrode 120B of the first electrode 120. As shown in FIG. 16 , in each of the first mask region M1 and the second mask region M2 , the second through holes 53B may be arranged along the first mask direction D1 or along the second mask direction D2 . The second through-holes 53B located in the second mask region M2 can be arranged along the fifth hole arrangement 65 described later along the first mask direction D1. The second through-holes 53B located in the second mask region M2 can be arranged along the sixth hole arrangement 66 described later along the second mask direction D2. The second through-holes 53B located in the first mask region M1 can be arranged along the seventh hole arrangement 67 described later along the first mask direction D1. The second through-holes 53B located in the first mask region M1 can be arranged along the eighth hole arrangement 68 described later along the second mask direction D2. The pitch of the second through-holes 53B along the first mask direction D1 can be the first pitch P1, similar to the second color electrode 120B described above, and can be equal to the pitch of the first through-holes 53A. The pitch of the second through-holes 53B along the second mask direction D2 can be the first pitch P1, and can be equal to the pitch of the first through-holes 53A. The second through-holes 53B located in the first mask region M1 can be arranged at equal intervals along the first mask direction D1 and the second mask direction D2. The second through-holes 53B located in the second mask region M2 can be arranged at equal intervals along the first mask direction D1 and the second mask direction D2. The third mask 50C will be described in more detail with reference to Fig. 17. Fig. 17 is a plan view showing, in an enlarged manner, the first mask region M1 and the second mask region M2 on the first surface 51a of the third mask 50C. As shown in Figure 17, the third mask 50C includes a third through hole 53C and a third masking region 54C. In both the first masking region M1 and the second masking region M2, the second through hole 53B is located at a position corresponding to the third color electrode 120C of the first electrode 120. The two third through holes 53C constituting a through hole group 53G, described later, may include one third through hole 53Ca and one third through hole 53Cb. Third through hole 53Ca is located at a position corresponding to third color electrode 120Ca of first electrode 120, and third through hole 53Cb is located at a position corresponding to third color electrode 120Cb of first electrode 120. In this specification, the term "third through hole 53C" and the symbol "third through hole 53C" are used when describing the configuration of third through hole 53C that is common to third through hole 53Ca and third through hole 53Cb. As shown in Figure 17, in both the first masking region M1 and the second masking region M2, the third through hole 53C can be arranged along the first masking direction D1 or along the second masking direction D2. The third through-holes 53Ca located in the second mask region M2 can be arranged along the first hole arrangement 61 described later along the first mask direction D1. The third through-holes 53Cb located in the second mask region M2 can be arranged along the second hole arrangement 62 described later along the second mask direction D2. The third through-holes 53Cb located in the second mask region M2 can be arranged along the fifth hole arrangement 65 described later along the first mask direction D1. The third through-holes 53Ca located in the second mask region M2 can be arranged along the sixth hole arrangement 66 described later along the second mask direction D2. The third through-holes 53Ca located in the first mask region M1 can be arranged along the third hole arrangement 63 described later along the first mask direction D1. The third through-holes 53Cb located in the first mask region M1 can be arranged along the fourth hole arrangement 64 described later along the second mask direction D2. The third through-holes 53Cb located in the first mask region M1 can be arranged along the seventh hole arrangement 67 described later along the first mask direction D1. The third through-holes 53Ca located in the first mask region M1 can be arranged along the eighth hole arrangement 68 described later along the second mask direction D2. The pitch of the third through holes 53Ca along the first mask direction D1 can be the first pitch P1, similar to the third color electrode 120Ca described above, and can be equal to the pitch of the first through holes 53A. The pitch of the third through holes 53Cb along the first mask direction D1 can be the first pitch P1, and can be equal to the pitch of the first through holes 53A. The pitch of the third through holes 53Ca along the second mask direction D2 can be the first pitch P1, and can be equal to the pitch of the first through holes 53A. The pitch of the third through holes 53Cb along the second mask direction D2 can be the first pitch P1, and can be equal to the pitch of the first through holes 53A. The third through-holes 53Ca located in the first mask region M1 can be arranged at equal intervals along both the first mask direction D1 and the second mask direction D2. The third through-holes 53Cb located in the first mask region M1 can be arranged at equal intervals along both the first mask direction D1 and the second mask direction D2. The third through-holes 53Ca located in the second mask region M2 can be arranged at equal intervals along both the first mask direction D1 and the second mask direction D2. The third through-holes 53Cb located in the second mask region M2 can be arranged at equal intervals along both the first mask direction D1 and the second mask direction D2. The following describes a method for measuring the shape and position of through-holes 53A-53C in each mask 50A-50C. The shape and position of through-holes 53A-53C in the first surface 51a of each mask 50A-50C are measured by performing image processing on the first surface 51a. A camera is used to capture the first surface 51a of each mask 50A-50C, obtaining image data related to the outlines of through-holes 53A-53C in the first surface 51a. Based on the acquired image data, the shape and position of each through-hole 53A-53C are calculated, as well as the aforementioned pitch of each through-hole 53A-53C. Figures 18 to 20 illustrate the positional relationship between the first mask 50A, the second mask 50B, and the third mask 50C. Figure 18 is an enlarged top view showing the through-hole 53 of the mask group 56 in the second region M2 of the mask. Figure 19 is an enlarged top view showing the through-hole 53 of the mask group 56 in the first region M1 of the mask. Figure 20 is an enlarged top view showing the through-hole 53 of the mask group 56 in both the first region M1 and the second region M2 of the mask. Mask group 56 can be a mask laminate 55 comprising two or more overlapping masks 50. Mask laminate 55 shown in Figures 18 to 20 comprises overlapping first mask 50A, second mask 50B, and third mask 50C. The set of through-holes 53 corresponding to one element 115 is referred to as through-hole group 53G, as described below. Each through-hole group 53G comprises one first through-hole 53A, one second through-hole 53B, and two third through-holes 53C. In the mask stack 55, the alignment marks 50M of each mask 50A-50C (see Figures 11-13) can overlap. Alternatively, the masks 50A-50C can overlap based on the position of the unit 52 of each mask 50A-50C. Alternatively, the masks 50A-50C can overlap based on the position of the through holes 53A-53C and the masking areas 54A-54C of each mask 50A-50C. When overlapping the masks 50A-50C, tension can be applied to each mask 50A-50C. An image showing the overlapping state of two or more masks 50 can be obtained by overlaying the image data of each mask 50. For example, using an image processing device, the image data of the first surface 51a of each mask 50A-50C obtained as described above can be overlaid. This can produce images such as those shown in Figures 18-20. While acquiring the image data, tension can be applied to each mask 50A-50C. An image showing the overlapping state of two or more masks 50 can be obtained by overlaying the design drawings used to manufacture each mask 50A-50C. As shown in FIG. 18 and FIG. 19 , in each of the first mask region M1 and the second mask region M2 , the first through holes 53A and the third through holes 53C may be alternately arranged along the first mask direction D1 or along the second mask direction D2 . As shown in FIG18 , the first through-hole 53A and the third through-hole 53Ca located in the second mask region M2 can form a first hole arrangement 61 along the first mask direction D1. The first hole arrangement 61 corresponds to the first electrode arrangement 151 described above. A plurality of first hole arrangements 61 can be formed in the second mask region M2. The first through-hole 53A and the third through-hole 53Cb located in the second mask region M2 can form a second hole arrangement 62 along the second mask direction D2. The second hole arrangement 62 corresponds to the second electrode arrangement 152 described above. A plurality of second hole arrangements 62 can be formed in the second mask region M2. The first through hole 53A and the third through hole 53C located in the second region M2 of the mask can be arranged along the first direction D1 and the second direction D2 of the mask, respectively, in a manner that repeats the second pitch P2 and the third pitch P3. The pitch of the first through hole 53A and the third through hole 53Ca forming a through hole group 53G in the first hole arrangement 61 described above can be the second pitch P2 described above. The pitch of the first through hole 53A forming one of two adjacent through hole groups 53G in the first hole arrangement 61, and the pitch of the third through hole 53Ca forming the other through hole group 53G, can be the third pitch P3 described above. The pitch of the first through hole 53A and the third through hole 53Cb forming a through hole group 53G in the second hole arrangement 62 described above can be the second pitch P2. In the second hole arrangement 62 , a pitch between the first through-holes 53A constituting one through-hole group 53G of two adjacent through-hole groups 53G and the third through-holes 53Cb constituting the other through-hole group 53G may be a third pitch P3 . As shown in Figure 19, the first through-hole 53A and the third through-hole 53Cb located in the first region M1 of the shield can form a third hole arrangement 63 along the first direction D1 of the shield. The third hole arrangement 63 corresponds to the third electrode arrangement 153 mentioned above. A plurality of third hole arrangements 63 can be formed in the first region M1 of the shield. The first through-hole 53A and the third through-hole 53Cb located in the first region M1 of the shield can form a fourth hole arrangement 64 along the second direction D2 of the shield. The fourth hole arrangement 64 corresponds to the fourth electrode arrangement 154 mentioned above. A plurality of fourth hole arrangements 64 can be formed in the first region M1 of the shield. The first through hole 53A and the third through hole 53C located in the first region M1 of the shield can be arranged at a fourth pitch P4 along the first direction D1 and the second direction D2 of the shield, respectively. In the third hole arrangement 63 described above, the pitch between the first through hole 53A and the third through hole 53C can be the fourth pitch P4. In the fourth hole arrangement 64 described above, the pitch between the first through hole 53A and the third through hole 53Cb can be the fourth pitch P4. The first through hole 53A and the third through hole 53C located in the first region M1 of the shield can be arranged at equal intervals along the first direction D1 and the second direction D2 of the shield, respectively. As shown in FIG. 18 and FIG. 19 , in each of the first mask region M1 and the second mask region M2 , the second through holes 53B and the third through holes 53C may be alternately arranged along the first mask direction D1 or along the second mask direction D2 . As shown in FIG18 , the second through-hole 53B and the third through-hole 53Cb located in the second mask region M2 can form a fifth hole arrangement 65 along the first mask direction D1. The fifth hole arrangement 65 corresponds to the fifth electrode arrangement 155 described above. A plurality of fifth hole arrangements 65 can be formed in the second mask region M2. The second through-hole 53B and the third through-hole 53Ca located in the second mask region M2 can form a sixth hole arrangement 66 along the second mask direction D2. The sixth hole arrangement 66 corresponds to the sixth electrode arrangement 156 described above. A plurality of sixth hole arrangements 66 can be formed in the second mask region M2. The second through-holes 53B and the third through-holes 53C located in the second mask region M2 can be arranged along the first mask direction D1 and the second mask direction D2, respectively, with a repeating second pitch P2 and third pitch P3. The pitch between the second through-holes 53B and the third through-holes 53Cb that constitute one through-hole group 53G in the fifth hole arrangement 65 can be the second pitch P2 described above. The pitch between the second through-holes 53B that constitute one through-hole group 53G in the fifth hole arrangement 65 and the third through-holes 53Cb that constitute the other through-hole group 53G can be the third pitch described above. The pitch between the second through-holes 53B and the third through-holes 53Ca that constitute one through-hole group 53G in the sixth hole arrangement 66 can be the second pitch P2. The pitch between the second through-holes 53B of one through-hole group 53G of two adjacent through-hole groups 53G in the sixth hole arrangement 66 and the third through-holes 53Ca of the other through-hole group 53G may be the third pitch P3. As shown in Figure 19, the second through-hole 53B and the third through-hole 53Cb located in the first mask region M1 can form a seventh hole arrangement 67 along the first mask direction D1. The seventh hole arrangement 67 corresponds to the seventh electrode arrangement 157 described above. A plurality of seventh hole arrangements 67 can be formed in the first mask region M1. The second through-hole 53B and the third through-hole 53Ca located in the first mask region M1 can form an eighth hole arrangement 68 along the second mask direction D2. The eighth hole arrangement 68 corresponds to the eighth electrode arrangement 158 ​​described above. A plurality of eighth hole arrangements 68 can be formed in the first mask region M1. The second through-holes 53B and the third through-holes 53C located in the first mask region M1 can be arranged at a fourth pitch P4 along the first mask direction D1 and the second mask direction D2, respectively. In the seventh hole arrangement 67 described above, the pitch between the second through-holes 53B and the third through-holes 53Cb can be the fourth pitch P4. In the eighth hole arrangement 68 described above, the pitch between the second through-holes 53B and the third through-holes 53Ca can be the fourth pitch P4. As shown in FIG20 , through-hole group 53G located in the first mask region M1 and through-hole group 53G located in the second mask region M2 can be arranged along either the first mask direction D1 or the second mask direction D2. More specifically, center 53O of through-hole group 53G located in the first mask region M1 and center 53O of through-hole group 53G located in the second mask region M2 can be arranged along either the first mask direction D1 or the second mask direction D2. Along both the first mask direction D1 and the second mask direction D2, center 53O of through-hole group 53G located in the second mask region M2 can be located on an extension of the arrangement of center 53O of through-hole group 53G located in the first mask region M1. The center 53O of the through-hole group 53G can be the intersection of the line segment connecting the center of the first through-hole 53A and the center of the second through-hole 53B, and the line segment connecting the center of the third through-hole 53Ca and the center of the third through-hole 53Cb. In this case, the center 53O of the through-hole group 53G is located midway between the centers of the first through-hole 53A and the second through-hole 53B, and also midway between the centers of the third through-hole 53Ca and the third through-hole 53Cb. As shown in Figure 20, the first hole arrangement 61 can be offset from the third hole arrangement 63 in the second direction D2 of the mask. The second hole arrangement 62 can be offset from the fourth hole arrangement 64 in the first direction D1 of the mask. The fifth hole arrangement 65 can be offset from the seventh hole arrangement 67 in the second direction D2 of the mask. The sixth hole arrangement 66 can be offset from the eighth hole arrangement 68 in the first direction D1 of the mask. An example of a method for manufacturing the organic device 100 is described using Figures 21 to 26. Figure 21 is a cross-sectional view illustrating the step of forming the first color electrode 120A of the first electrode 120. Figure 22 is a cross-sectional view illustrating the step of forming the second color electrode 120B of the first electrode 120, and Figure 23 is a cross-sectional view illustrating the step of forming the third color electrode 120C of the first electrode 120. Figure 24 is a cross-sectional view illustrating the step of forming the insulating layer. Figure 25 is a cross-sectional view illustrating the step of forming the organic layer. Figure 26 is a cross-sectional view illustrating the step of forming the second electrode. The following describes the method for manufacturing the organic device 100 using a cross-sectional view of the second display area 102, but the organic device 100 can also be manufactured similarly in the first display area 101. First, the substrate 110 is prepared. Next, the first electrode forming step may be performed. In the first electrode formation step, the first electrode 120 is formed on the substrate 110 using the above-mentioned mask group 56. First, as shown in FIG21, the first color electrode 120A of the first electrode 120 is formed by vapor deposition using the first mask 50A. For example, a conductive material such as a metal can be vapor deposited onto the substrate 110 through the first through-hole 53A of the first mask 50A. In this way, the first color electrode 120A is formed. Next, as shown in FIG22, the step of forming the second color electrode 120B of the first electrode 120 by vapor deposition using the second mask 50B is implemented. For example, a conductive material such as metal can be vapor deposited onto the substrate 110 through the second through-hole 53B of the second mask 50B. In this way, the second color electrode 120B is formed. Next, as shown in FIG23, the third color electrode 120C of the second electrode 140 can be formed by vapor deposition using the third mask 50C. For example, a conductive material such as a metal can be vapor deposited onto the substrate 110 through the third through-hole 53C of the third mask 50C. In this way, the third color electrode 120C is formed. The order of forming the first color electrode 120A, the second color electrode 120B, and the third color electrode 120C is not particularly limited. For example, the steps can be performed in the order of forming the third color electrode 120C, the second color electrode 120B, and the first color electrode 120A. 24 , the insulating layer forming step may be performed. The insulating layer 160 is formed between the color electrodes 120A to 120C of the first electrode 120. The insulating layer 160 may overlap the ends of the color electrodes 120A to 120C. Next, the organic layer formation steps can be performed as shown in FIG25. An organic layer 130, comprising a first-color organic layer 130A, a second-color organic layer 130B, and a third-color organic layer 130C, is formed on the first electrode 120. The first-color organic layer 130A can be formed, for example, by vapor deposition using a mask having through-holes corresponding to the first-color organic layer 130A. For example, the first-color organic layer 130A can be formed by vapor deposition of organic materials, etc., onto the first-color electrode 120A through the mask. The second-color organic layer 130B can also be formed by vapor deposition using a mask having through-holes corresponding to the second-color organic layer 130B. The third-color organic layer 130C can also be formed by vapor deposition using a mask having through-holes corresponding to the third-color organic layer 130C. Subsequently, the second electrode formation step can be performed as shown in FIG26. The second electrode 140 is formed on the first color organic layer 130A, the second color organic layer 130B, and the third color organic layer 130C. The second electrode 140 can be formed continuously over the entire organic layer 130. For example, the second electrode 140 can be formed by depositing conductive materials such as metals onto the organic layer 130 through a mask. Light passing through the second display region 102 of the organic device 100 manufactured in this manner will be described. In the second display area 102, optical components are sometimes located on the back side of the substrate 110. Light reaching the organic device 100 passes through the second display area 102 and reaches the optical components. Elements 115 are patterned in the second display area 102, and the first electrodes 120 constituting each element 115 are patterned. Non-electrode regions 121, where no first electrodes 120 exist, are formed around the first electrodes 120. Light reaching the second display area 102 passes through the non-electrode regions 121 and reaches the optical components. Light passing through the second display area 102 is diffracted according to the pattern of the first electrode 120. When the regularity of the arrangement of the first electrode 120 is high, the intensity of the diffracted light may increase. In this case, the clarity of the image produced by the optical component may decrease. For example, when the pitch between the first color electrode 120A and the third color electrode 120Ca along the first direction G1 of the element is constant, the regularity of the arrangement of the first color electrode 120A and the third color electrode 120Ca along the first direction G1 of the element may be improved. Similarly, when the pitch between the first color electrode 120A and the third color electrode 120Cb along the second direction G2 of the element is constant, the regularity of the arrangement of the first color electrode 120A and the third color electrode 120Cb along the second direction G2 of the element may be improved. When the pitch between the second color electrodes 120B and the third color electrodes 120Cb along the first device direction G1 is constant, the regularity of the arrangement of the second color electrodes 120B and the third color electrodes 120Cb along the first device direction G1 can be improved. When the pitch between the second color electrodes 120B and the third color electrodes 120Ca along the second device direction G2 is constant, the regularity of the arrangement of the second color electrodes 120B and the third color electrodes 120Ca along the second device direction G2 can be improved. On the other hand, in the second display area 102 of the organic device 100 of this embodiment, the regularity of the arrangement of the first electrode 120 may be reduced. More specifically, the pitch of the first color electrode 120A and the third color electrode 120Ca along the first direction G1 of the element is arranged in a manner that repeats the second pitch P2 and the third pitch P3. Therefore, the regularity of the arrangement of the first color electrode 120A and the third color electrode 120Ca along the first direction G1 of the element can be reduced. Similarly, the pitch of the first color electrode 120A and the third color electrode 120Cb along the second direction G2 of the element is arranged in a manner that repeats the second pitch P2 and the third pitch P3. Therefore, the regularity of the arrangement of the first color electrode 120A and the third color electrode 120Cb along the second direction G2 of the element can be reduced. The pitch of the second color electrode 120B and the third color electrode 120Cb along the first direction G1 of the element is arranged in a manner that repeats the second pitch P2 and the third pitch P3. Therefore, the regularity of the arrangement of the second color electrode 120B and the third color electrode 120Cb along the first direction G1 of the element can be reduced. The pitch of the second color electrode 120B and the third color electrode 120Ca along the second direction G2 of the element is arranged in a manner that repeats the second pitch P2 and the third pitch P3. Therefore, the regularity of the arrangement of the second color electrode 120B and the third color electrode 120Ca along the second direction G2 of the element can be reduced. Thus, according to this embodiment, the first color electrode 120A and the third color electrode 120C of the first electrode 120 located in the second display area 102 are arranged along the first device direction G1 and the second device direction G2, respectively, with a repeating second pitch P2 and third pitch P3. The second pitch P2 is different from the third pitch P3. Therefore, the regularity of the arrangement of the first color electrode 120A and the third color electrode 120C can be reduced, thereby reducing the diffraction of light passing through the second display area 102. Consequently, the intensity of diffracted light generated by light passing through the organic device 100 can be reduced. Furthermore, according to this embodiment, the first color electrodes 120A of the first electrodes 120 located in the first display area 101 and the second display area 102 are arranged with a first pitch P1 along the first element direction G1 and the second element direction G2, respectively. Therefore, the pitch of the first color electrodes 120A located in the second display area 102 can be made equal to the pitch of the first color electrodes 120A located in the first display area 101. In this case, the pixel density of the second display area 102 can be made equal to the pixel density of the first display area 101. Therefore, a decrease in the pixel density of the second display area 102 can be prevented, and the quality of the image displayed from the second display area 102 can be improved. Furthermore, according to this embodiment, the first color electrodes 120A and the third color electrodes 120C located in the first display area 101 are arranged at a fourth pitch P4 along the first device direction G1 and the second device direction G2, respectively. The fourth pitch P4 is half the first pitch P1. Therefore, the first color electrodes 120A and the third color electrodes 120C located in the first display area 101 can be arranged at equal intervals along the first device direction G1 and the second device direction G2, respectively. Consequently, the quality of the image displayed in the first display area 101 can be improved. Furthermore, according to this embodiment, the first color electrode 120A and the third color electrode 120C constituting one pixel in the second display area 102 are arranged at a second pitch P2 along the first device direction G1 and the second device direction G2, respectively. The second pitch P2 is smaller than the third pitch P3. Therefore, the quality of the image displayed in the second display area 102 can be improved. Furthermore, according to this embodiment, the second color electrodes 120B and the third color electrodes 120C of the first electrode 120 located in the second display area 102 are arranged along the first device direction G1 and the second device direction G2, respectively, with a repeating second pitch P2 and third pitch P3. The second pitch P2 is different from the third pitch P3. Therefore, the regularity of the arrangement of the second color electrodes 120B and the third color electrodes 120C can be reduced, thereby reducing the diffraction of light passing through the second display area 102. Consequently, the intensity of diffracted light generated by light passing through the organic device 100 can be reduced. Furthermore, according to this embodiment, the second color electrodes 120B of the first electrodes 120 located in the first display area 101 and the second display area 102 are arranged at a first pitch P1 along the first device direction G1 and the second device direction G2, respectively. Therefore, the pitch of the second color electrodes 120B located in the second display area 102 can be made equal to the pitch of the second color electrodes 120B located in the first display area 101. In this case, the pixel density of the second display area 102 can be made equal to the pixel density of the first display area 101. This prevents a decrease in the pixel density of the second display area 102, thereby improving the quality of the image displayed in the second display area 102. Furthermore, according to this embodiment, the second color electrodes 120B and the third color electrodes 120C located in the first display area 101 are arranged at a fourth pitch P4 along the first device direction G1 and the second device direction G2, respectively. The fourth pitch P4 is half the first pitch P1. Therefore, the second color electrodes 120B and the third color electrodes 120C located in the first display area 101 can be arranged at equal intervals along the first device direction G1 and the second device direction G2, respectively. Consequently, the quality of the image displayed in the first display area 101 can be improved. Furthermore, according to this embodiment, the second color electrode 120B and the third color electrode 120C constituting one pixel in the second display area 102 are arranged at a second pitch P2 along the first device direction G1 and the second device direction G2, respectively. The second pitch P2 is smaller than the third pitch P3. Therefore, the quality of the image displayed in the second display area 102 can be improved. Furthermore, according to this embodiment, the mask group 56 includes: a first mask 50A including a first through-hole 53A, a second mask 50B including a second through-hole 53B, and a third mask 50C including a third through-hole 53C. The first through-hole 53A can form the first color electrode 120A of the first electrode 120. The second through-hole 53B can form the second color electrode 120B of the first electrode 120, and the third through-hole 53C can form the third color electrode 120C of the first electrode 120. Therefore, the regularity of the arrangement of the first electrode 120 can be reduced. Thus, an organic device 100 that can reduce the intensity of diffracted light can be obtained. Various modifications can be made to the above-described embodiments. Hereinafter, as needed, modifications will be described with reference to the drawings. In the descriptions and drawings used in this specification, parts that can be constructed in the same way as the corresponding parts in the above-described embodiments are represented by the same symbols, and repeated descriptions are omitted. Furthermore, where the effects obtained in the above-described embodiments are obviously also obtained in the modifications, their descriptions are also omitted. The explanation will focus on the first variation example. In the above embodiment, the first color electrodes 120A and the third color electrodes 120C located in the first display area 101 are arranged at the fourth pitch P4 along the first device direction G1 and the second device direction G2, respectively. However, the present disclosure is not limited thereto. For example, the first color electrode 120A and the third color electrode 120C located in the first display area 101 may be arranged in the same manner as the first color electrode 120A and the third color electrode 120C located in the second display area 102 . More specifically, the first color electrode 120A and the third color electrode 120C located in the first display area 101 can be arranged along the first element direction G1 and the second element direction G2 respectively, repeating the second pitch P2 and the third pitch P3. In this case, the manufacturing efficiency of the organic device 100 can be improved. For example, in the third electrode arrangement 153 described above, the pitch between the first color electrode 120A and the third color electrode 120Cb constituting one element 115 can be the second pitch. In the third electrode arrangement 153, the pitch between the first color electrode 120A constituting one of two adjacent elements 115 and the third color electrode 120Cb constituting the other element 115 can be the third pitch P3. In the fourth electrode arrangement 154 described above, the pitch between the first color electrode 120A and the third color electrode 120Cb constituting one element 115 can be the second pitch P2. A pitch between the first color electrode 120A constituting one element 115 of two adjacent elements 115 in the fourth electrode arrangement 154 and the third color electrode 120Cb constituting the other element 115 may be a third pitch P3. The second variation example will be explained. In the above embodiment, the second color electrodes 120B and the third color electrodes 120C located in the first display area 101 are arranged at the fourth pitch P4 along the first device direction G1 and the second device direction G2, respectively. However, the present disclosure is not limited thereto. For example, the second color electrode 120B and the third color electrode 120C located in the first display area 101 may be arranged in the same manner as the second color electrode 120B and the third color electrode 120C located in the second display area 102 . More specifically, the second color electrode 120B and the third color electrode 120C located in the first display area 101 can be arranged along the first element direction G1 and the second element direction G2 respectively, with repeated second pitches P2 and third pitches P3. In this case, the manufacturing efficiency of the organic device 100 can be improved. For example, in the seventh electrode arrangement 157 described above, the pitch of the second color electrode 120B and the third color electrode 120Cb constituting one element 115 can be the second pitch. In the seventh electrode arrangement 157, the pitch of the second color electrode 120B constituting one of two adjacent elements 115 and the third color electrode 120Cb constituting the other element 115 can be the third pitch P3. In the eighth electrode arrangement 158 ​​described above, the pitch of the second color electrode 120B and the third color electrode 120Cb constituting one element 115 can be the second pitch P2. In the eighth electrode arrangement 158 ​​, a pitch between the second color electrode 120B constituting one element 115 and the third color electrode 120Ca constituting the other element 115 of two adjacent elements 115 may be a third pitch P3 . The third variation will be explained. In the above embodiment, the center 115O of ​​the element 115 located in the first display area 101 and the center 115O of ​​the element 115 located in the second display area 102 are arranged along the first element direction G1 and along the second element direction G2. However, the present disclosure is not limited thereto. For example, the center 115O of ​​the element 115 located in the first display area 101 and the center 115O of ​​the element 115 located in the second display area 102 may be offset in the second device direction G2. In this case, the first electrode arrangement 151 described above may be located as an extension of the third electrode arrangement 153. More specifically, the first color electrode 120A and the third color electrode 120Ca located in the second display area 102 and the first color electrode 120A and the third color electrode 120Ca located in the first display area 101 are arranged along the first device direction G1. Alternatively, the fifth electrode arrangement 155 may be located as an extension of the seventh electrode arrangement 157. More specifically, the second color electrode 120B and the third color electrode 120Cb located in the second display area 102 and the second color electrode 120B and the third color electrode 120Cb located in the first display area 101 are arranged along the first device direction G1. For example, the center 115O of ​​the element 115 located in the first display area 101 and the center 115O of ​​the element 115 located in the second display area 102 may be offset in the first device direction G1. In this case, the second electrode arrangement 152 described above may be located as an extension of the fourth electrode arrangement 154. More specifically, the first color electrode 120A and the third color electrode 120Cb located in the second display area 102 and the first color electrode 120A and the third color electrode 120Cb located in the first display area 101 are arranged along the second device direction G2. Alternatively, the sixth electrode arrangement 156 may be located as an extension of the eighth electrode arrangement 158. More specifically, the second color electrode 120B and the third color electrode 120Ca located in the second display area 102 and the second color electrode 120B and the third color electrode 120Ca located in the first display area 101 are arranged along the second device direction G2. The fourth variation will be explained. In the above embodiment, the insulating layer 160 is described as being located between two adjacent first electrodes 120 in a plan view. However, the present disclosure is not limited thereto. In the case where two adjacent color electrodes 120A-120C are separated, the insulating layer 160 may not be formed. The fifth variation will be described. In the above embodiment, the first color organic layer 130A is a red light-emitting layer, and the second color organic layer 130B is a blue light-emitting layer. However, the present disclosure is not limited to this embodiment. Alternatively, the first color organic layer 130A may be a blue light-emitting layer, and the second color organic layer 130B may be a red light-emitting layer. In this case, the diameter of the first color electrode 120A may be larger than the diameter of the second color electrode 120B. Several variations of the above-mentioned embodiment have been described, but it is also possible to combine and apply a plurality of variations. Next, the embodiments of the present disclosure will be described in more detail using Figures 27 to 30 . However, the embodiments of the present disclosure are not limited to the following embodiments, as long as they do not exceed the gist of the present disclosure. Figure 27 illustrates a method for evaluating diffracted light. Figure 28 illustrates the evaluation results of the projection pattern of Example 1. Figure 29 illustrates the evaluation results of the projection pattern of Example 2. Figure 30 illustrates the evaluation results of the projection pattern of Example 3. The diffraction produced by light passing through the second display area 102 formed by the first electrode 120 of Examples 1 to 3 was verified by simulation. The second display region 102 of the organic device 100 having the first electrode 120 shown in Figures 5 to 7 is designed. The following shows the dimensions of the first pitch P1, the second pitch P2, and the third pitch P3 for each example. In addition, the ratio of the second pitch P2 to the third pitch P3 is also shown. (Example 1) P1: 87.8 μm P2: 43.9 μm P3: 43.9 μm Ratio of P2 to P3: 1.00 (Example 2) P1: 87.8 μm P2: 35.4 μm P3: 52.4 μm Ratio of P2 to P3: 0.68 (Example 3) P1: 87.8 μm P2: 29.5 μm P3: 58.3 μm Ratio of P2 to P3: 0.51 The planar shape of each color electrode 120A-120C is circular. The diameter of each color electrode 120A-120C is the same in each example, as shown below: Diameter of the first color electrode 120A: 26.1 μm Diameter of the second color electrode 120B: 32.8 μm Diameter of the third color electrode 120C: 20.7 μm 3 and 4 are formed continuously over the entire organic layer 130. As a simulation model, the second electrode 140 is simulated in the non-electrode region 121 located around the first electrode 120 as shown in FIG27. Simulations were performed for Examples 1 to 3 to obtain the intensity of the diffracted light generated through the second display area 102. More specifically, as shown in FIG27, light L1 is incident on substrate 110 along the normal direction of the first surface 110a of substrate 110. The wavelength of light L1 is 550 nm, and the diameter of light L1 is 3 mm. Subsequently, the diffraction generated by light passing through non-electrode area 121 and light passing through first electrode 120 was calculated by simulation. Symbol L2 represents light that travels straight through without diffraction and reaches screen 170. Symbol Pc represents the point of arrival of light L2 on screen 170. Symbol L3 represents the diffracted light generated through non-electrode area 121. The distance between the second surface 110b of substrate 110 and screen 170 is 5000 mm. The transmittance of each color electrode 120A-120C is 0%. The transmittance is defined as the transmittance for light having a wavelength of 550 nm. The transmittance of each color electrode 120A-120C can be measured in the same manner as the transmittance of the substrate 110 described above. The transmittance of the second electrode 140 is set to 38%. The transmittance of the organic layer 130 is significantly greater than that of the second electrode 140 and can be ignored. Therefore, the transmittance of the non-electrode region 121 is set to the transmittance of the second electrode 140. Figures 28-30 show the projection patterns of the light reaching screen 170 in Examples 1-3. In Figures 28-30, diffracted light systems appear as dots around the arrival point Pc of light L2. More specifically, light L2 reaching the arrival point Pc represents the peak value of the 0th order diffracted light. Moving away from the peak value of the 0th order diffracted light, peak values ​​of the 1st, 2nd, 3rd, and 4th orders diffracted light appear sequentially. The larger the size of each diffracted light shown in Figures 28-30, the stronger the intensity of the diffracted light. As shown in the light projection pattern in Figure 28, the diffracted light is concentrated at specific locations, and its intensity is high. More specifically, the peak values ​​of the second-order diffracted light along the first direction G1 and the second direction G2 of the element are more pronounced. The peak value of the first-order diffracted light located along the first direction G1 and the second direction G2 of the element is weaker than that of the second-order diffracted light. The difference in intensity between the first-order and second-order diffracted light is significant. On the other hand, in the light projection patterns shown in Figures 29 and 30, it can be seen that the diffracted light is more dispersed compared to the light projection pattern shown in Figure 28. More specifically, along both the first direction G1 and the second direction G2 of the element, the difference between the intensity of the first-order diffracted light and the intensity of the second-order diffracted light is reduced. Therefore, according to Examples 2 and 3, the intensity of the diffracted light is reduced compared to the case of Example 1. Thus, according to Examples 2 and 3, the intensity of the diffracted light incident on optical components such as sensors can be reduced. As shown in the light projection pattern in Figure 30, the diffracted light is further dispersed compared to the light projection pattern shown in Figure 29. More specifically, the difference between the intensity of the first-order diffracted light and the intensity of the second-order diffracted light is further reduced in the first direction G1 and the second direction G2 of the element. Therefore, it can be said that by increasing the difference between the second pitch P2 and the third pitch P3 shown in Figure 5, the dispersion of the diffracted light can be promoted. The following shows the maximum intensity of the diffracted light in Examples 1 to 3. Maximum intensity represents the ratio of the intensity of the diffracted light after the first order to the intensity of the diffracted light after the zeroth order. In Examples 1 to 3, the intensity of the diffracted light after the first order is highest in the first direction G1 and the second direction G2 of the element. Example 1: 5.2% Example 2: 3.5% Example 3: 3.2% Thus, it can be seen that the maximum intensity of the diffracted light in Example 2 is less than that in Example 1, and the maximum intensity of the diffracted light in Example 3 is less than that in Example 2. 2: Substrate holder 3: Mask holder 4: Cooling plate 5: Magnet 6: Evaporation source / crucible 7: Evaporation material 8: Heater 10: Evaporation device 40: Mask device 40A: First mask device 40B: Second mask device 40C: Third mask device 41: Frame 41a: First frame surface 41b: Second frame surface 42: Frame opening 50: Mask 50A: Mask / First mask 50a: Outer contour 50B: Mask / Second mask 50C: Mask / Third mask 50M: Alignment mark 51: Metal plate 51a: First surface 51b: Second surface 52: Unit 53: Through hole 53A: First through hole / Through hole 53B: Second through hole / Through hole 53C: Third through hole / Through hole 53Ca, 53Cb: 3rd through hole 53G: through hole group 53O: Center of through hole group 54: Shielding area 54A: 1st shielding area 54B: 2nd shielding area 54C: 3rd shielding area 55: Mask laminate 56: Mask group 61: 1st hole arrangement 62: 2nd hole arrangement 63: 3rd hole arrangement 64: 4th hole arrangement 65: 5th hole arrangement 66: 6th hole arrangement 67: 7th hole arrangement 68: 8th hole arrangement 100: Organic device 100a: Outer contour of organic device 100 101: 1st display area 102: 2nd display area 110: Substrate 110a: 1st surface 110b: 2nd surface 115: Element 115A: 1st element 115B: 2nd element 115C: 3rd element 115O: Center of element 120: 1st electrode 120A: Color electrode / 1st color electrode 120B: color electrode / 2nd color electrode 120C: color electrode / 3rd color electrode 120Ca: 3rd color electrode 120Cb: 3rd color electrode 121: non-electrode area 130: organic layer 130A: color organic layer / 1st color organic layer 130B: color organic layer / 2nd color organic layer 130C: color organic layer / 3rd color organic layer 140: second electrode 151: first electrode arrangement 152: second electrode arrangement 153: third electrode arrangement 154: fourth electrode arrangement 155: fifth electrode arrangement 156: sixth electrode arrangement 157: seventh electrode arrangement 158: eighth electrode arrangement 160: insulating layer 170: screen 411: first side 412: second side 531: first recess 532: second recess 533: connecting portion 534: through portion AA, BB: Line D1: Masking direction 1 D2: Masking direction 2 D3: Masking direction 3 D4: Masking direction 4 G1: Component direction 1 G2: Component direction 2 L1,L2: Light; L3: Diffracted light; M1: First region of the mask; M2: Second region of the mask; P1: First pitch; P2: Second pitch; P3: Third pitch; P4: Fourth pitch; Pc: Point of arrival of light; T: Thickness of the mask; r: Dimension; r1: Dimension of the first recess; r2: Dimension of the second recess. FIG1 is a top view showing an example of an organic device according to an embodiment of the present disclosure. FIG2 is an enlarged top view showing elements in the first display area and the second display area of ​​the organic device. FIG3 is a cross-sectional view of the organic device in the first display area, taken along line AA in FIG2 . FIG4 is a cross-sectional view of the organic device in the second display area, taken along line BB in FIG2 . FIG5 is an enlarged top view of FIG2 showing the first electrode in the second display area. FIG6 is an enlarged top view of FIG2 showing the first electrode in the first display area. FIG7 is an enlarged top view of FIG2 showing the first electrodes in the first and second display areas. FIG8 is a diagram showing an example of a vapor deposition device equipped with a mask device. FIG9 is a top view showing an example of the mask device shown in FIG8 . FIG10 is a top view showing an example of a mask of the mask device shown in FIG9 . FIG11 is a top view showing the first mask device. FIG12 is a top view showing the second mask device. FIG13 is a top view showing a third mask device. FIG14 is a cross-sectional view showing an example of the cross-sectional structure of the mask shown in FIG10. FIG15 is an enlarged top view showing an example of a first mask including a first through-hole for forming the first electrode shown in FIG7. FIG16 is an enlarged top view showing an example of a second mask including a second through-hole for forming the first electrode shown in FIG7. FIG17 is an enlarged top view showing an example of a third mask including a third through-hole for forming the first electrode shown in FIG7. FIG18 is an enlarged top view showing the through-holes of the mask group in the second mask region. FIG19 is an enlarged top view showing the through-holes of the mask group in the first mask region. FIG20 is an enlarged top view showing the through-holes of the mask group in the first mask region and the second mask region. FIG21 is a cross-sectional view used to illustrate the step of forming the first color electrode in the first electrode formation step of the method for manufacturing an organic device. FIG22 is a cross-sectional view for illustrating the step of forming a second color electrode in the first electrode forming step of the method for manufacturing an organic device. FIG23 is a cross-sectional view for illustrating the step of forming a third color electrode in the first electrode forming step of the method for manufacturing an organic device. FIG24 is a cross-sectional view for illustrating the insulating layer forming step of the method for manufacturing an organic device. FIG25 is a cross-sectional view for illustrating the organic layer forming step of the method for manufacturing an organic device. FIG26 is a cross-sectional view for illustrating the second electrode forming step of the method for manufacturing an organic device. FIG27 is a diagram showing a method for evaluating diffracted light. FIG28 is a diagram showing the evaluation results of the projection pattern of Example 1. FIG29 is a diagram showing the evaluation results of the projection pattern of Example 2. FIG30 is a diagram showing the evaluation results of the projection pattern of Example 3. 102: Second display area 115: Component 120: Electrode 1 120A: Color electrode / 1st color electrode 120B: Color electrode / Second color electrode 120Ca: Third color electrode 120Cb: 3rd color electrode 121: Non-electrode region 151: 1st electrode arrangement 152: Second electrode arrangement 155: 5th electrode arrangement 156: Sixth electrode arrangement G1: Component first direction G2: Component second direction P1: 1st pitch P2: Second pitch P3: 3rd pitch

Claims

1. An organic device having a first display area and a second display area located at a position different from the first display area when viewed from above, and comprising: a substrate; a first electrode located on the substrate; an organic layer located on the first electrode; and a second electrode located on the organic layer and overlapping the first electrode when viewed from above; wherein the first electrode comprises a plurality of first color electrodes, a plurality of second color electrodes, and a plurality of third color electrodes; the organic layer comprises: a plurality of first color organic layers located on the first color electrodes, a plurality of second color organic layers located on the second color electrodes, and a plurality of third color organic layers located on the third color electrodes; wherein one pixel is constituted by one first color electrode, one second color electrode, and two third color electrodes; the first color electrodes and the third color electrodes are alternately arranged along a first direction and alternately arranged along a second direction orthogonal to the first direction; The first color electrode located in the first display area and the second display area is arranged with a first pitch along the first direction and the second direction, respectively; the first color electrode and the third color electrode located in the second display area are arranged with a repeating second pitch and third pitch along the first direction and the second direction, respectively; the second pitch is different from the third pitch; wherein the first color electrode and the third color electrode located in the first display area are arranged with a fourth pitch along the first direction and the second direction, respectively; and the fourth pitch is half of the first pitch.

2. The organic device of claim 1, wherein the first color electrode and the third color electrode constituting one pixel in the second display area are arranged along the first direction and the second direction respectively with the second pitch; and the second pitch is smaller than the third pitch.

3. The organic device of claim 1, wherein the aforementioned second color electrode and the aforementioned third color electrode are arranged alternately along the aforementioned first direction and alternately along the aforementioned second direction; and in each of the aforementioned first display area and the aforementioned second display area, the aforementioned second color electrode is arranged along the aforementioned first direction and the aforementioned second direction with the aforementioned first pitch; and the aforementioned second color electrode and the aforementioned third color electrode located in the aforementioned second display area are arranged along the aforementioned first direction and the aforementioned second direction in a manner that repeats the aforementioned second pitch and the aforementioned third pitch.

4. The organic device of claim 3, wherein the second color electrode and the third color electrode located in the first display area are arranged with a fourth pitch along the first direction and the second direction respectively; and the fourth pitch is half of the first pitch.

5. The organic device of claim 3, wherein the second color electrode and the third color electrode located in the first display area are arranged along the first direction and the second direction respectively in a manner that repeats the second pitch and the third pitch.

6. The organic device of claim 3, wherein the aforementioned second color electrode and the aforementioned third color electrode, which constitute one of the aforementioned pixels, located in the aforementioned second display area, are arranged along the aforementioned first direction and the aforementioned second direction respectively with the aforementioned second pitch; and the aforementioned second pitch is smaller than the aforementioned third pitch.

7. An organic device according to any one of claims 1 to 6, wherein the ratio of the second pitch to the third pitch is 0.50 to 0.70.

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