Cathode structure for inversion type organic luminous assembly
A technology of light-emitting components and cathode structures, applied in the direction of light-emitting materials, electroluminescent light sources, light sources, etc., can solve the problems of easy diffusion, easy reaction and deterioration, and difficult use and processing of highly active metals
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Embodiment 1
[0076] In order to illustrate that the use of the electron injection layer of the present invention can effectively improve the electron injection capability of an organic light-emitting device with an inverted structure using silver (Ag) as the cathode conductive metal, a dual-cathode electronic single-carrier device was fabricated for comparison.
[0077] In this embodiment, please refer to the structure of component A Figure 4A , wherein the substrate 41 is a glass substrate, the lower electrode cathode layer 42 is 80 nanometers thick silver (Ag), and the organic electron transport layer 43 is 80 nanometers thick Alq 3 , the upper electrode cathode layer 44 is 0.5 nanometer thick lithium fluoride (LiF) / 100 nanometer thick aluminum (Al).
[0078] For the structure of component B, please refer to Figure 4B , wherein the substrate 51 is a glass substrate, the lower electrode cathode layer 52 is 80 nanometers thick silver (Ag), and the electron injection layer 53 is 0.2 nano...
Embodiment 2
[0082] In order to illustrate that the use of the electron injection layer of the present invention can effectively improve the electron injection capability of an organic light-emitting device with an inverted structure using aluminum (Al) as the cathode conductive metal, a dual-cathode electronic single-carrier device was fabricated for comparison.
[0083] In this embodiment, please refer to the structure of component C Figure 5A , wherein the substrate 61 is a glass substrate, the lower electrode cathode layer 62 is 80 nanometers thick silver (Ag), and the organic electron transport layer 63 is 80 nanometers thick Alq 3 , the upper electrode cathode layer 64 is 0.5 nanometer thick lithium fluoride (LiF) / 100 nanometer thick aluminum (Al).
[0084] Please refer to B of the figure for the structure of component D, wherein the substrate 71 is a glass substrate, the lower electrode cathode layer 72 is silver (Ag) with a thickness of 80 nanometers, and the electron injection la...
Embodiment 3
[0088] In this embodiment, in order to illustrate the influence of the electron injection layer of the present invention on the photoelectric characteristics of an organic light-emitting component with an inverted structure using silver (Ag) as the cathode of the lower electrode, the following components were fabricated for comparison:
[0089] In this embodiment, the structure of component E can refer to Figure 2A , wherein the substrate 21 is a glass substrate, the cathode layer 22 is 80 nanometers thick silver (Ag), and the organic structure layer 23 is 50 nanometers thick Alq 3 / 40 nm thick α-NPD / 20 nm thick m-MTDATA and F 4 -TCNQ mixture, the anode layer 24 is 20 nanometers thick silver (Ag), and the outermost layer is provided with a 30 nanometers thick tellurium oxide (TeO 2 ) as a refractive index matching layer.
[0090] For the structure of component F, please refer to image 3 , wherein the substrate 31 is a glass substrate, the cathode layer 32 is 80 nanometers ...
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