Abstract:
The invention relates to an optoelectronic organic component, comprising: a first electrode (1), a first planarization layer (2), which is disposed on the first electrode, a first injection layer (3), which is disposed on the planarization layer, an organic functional layer (4), which is disposed on the injection layer, and a second electrode (5), which is disposed on the organic functional layer, where in the event that the first electrode is an anode, the following applies for the energy level: EF-EHOMO,Inj. = EF-EHOMO,Plan. and EF-EHOMO,Inj. F-EHOMO,Funk.. Or in the event that the first electrode is a cathode, the following applies for the energy level: ELUM0,Inj.-EF = ELUMO,Plan.-EF and ELUMO,inj.-EF LUMO,Funk.-EF, where EF denotes the Fermi energy, EHOMO denotes the energy of the highest occupied energy level of the respective layer, and ELUMO denotes the energy of the lowest unoccupied energy level of the respective layer.
Abstract:
The invention relates to an organic electronic component comprising a substrate (1), a first electrode (2), a second electrode (4), and an electron-conducting layer (3) arranged in such a way that it is electroconductively connected to at least one of the electrodes. The electron-conducting layer can be obtained by evaporating a metal complex together with an organic compound.
Abstract:
The invention relates to a radiation emitting device comprising a substrate, a first and a second electrode, and an emitter layer that is placed between the first and the second electrode. The emitter layer contains a matrix material, 0.5 to 5 percent by weight of a radiation emitter, and 5 to 30 percent by weight of a phosphorescent exciton trap. The weight ratio of the exciton trap is greater than that of the radiation emitter, and the maximum emission of the exciton trap lies at a shorter wavelength than that of the radiation emitter. Furthermore, the radiation emitting device is characterized in that the current efficiency of the emitter layer is at least 10 percent greater than the current efficiency of an emitter layer without an exciton trap.
Abstract:
The invention relates to a radiation emitting device comprising a substrate, a first and a second electrode, and an emitter layer that is placed between the first and the second electrode. The emitter layer contains a matrix material, 0.5 to 5 percent by weight of a radiation emitter, and 5 to 30 percent by weight of a phosphorescent exciton trap. The weight ratio of the exciton trap is greater than that of the radiation emitter, and the maximum emission of the exciton trap lies at a shorter wavelength than that of the radiation emitter. Furthermore, the radiation emitting device is characterized in that the current efficiency of the emitter layer is at least 10 percent greater than the current efficiency of an emitter layer without an exciton trap.
Abstract:
An organic radiation-emitting component, including a first electrode (1) having a first electrical contact region (10) for making electrical contact with the first electrode (1), a first organic functional layer (31) on the first electrode (1), on the first organic functional layer (31) at least one organic active region (4) suitable for emitting electromagnetic radiation during operation, and a second electrode (2) on the active region (4), wherein the first organic functional layer (31) includes a plurality of laterally arranged partial regions (30) each including a first material (51) having a first electrical conductivity and a second material (52) having a second electrical conductivity, the second electrical conductivity is greater than the first electrical conductivity, and the ratio of the proportion of the second material (52) to the proportion of the first material (51) in the partial regions (30) of the first organic functional layer (31) varies in a manner dependent on a lateral distance from the first electrical contact region (10).
Abstract:
An organic electronic component, including a substrate, a first electrode, a second electrode, an electron-conducting layer which is arranged such that it is electrically conductively connected to at least one of the electrodes, wherein the electron-conducting layer is obtained by joint vaporization of a metal complex with an organic compound.
Abstract:
The organic electronic component (100) comprises a transparent first electrode (1), an organic layer sequence (3) having first and second charge carrier transport layers and an active region, and a transparent second electrode (2). The first charge carrier transport layer is disposed between the active region and the first electrode, and the second charge carrier transport layer is disposed between the active region and the second electrode. The charge carrier transport layers comprise a matrix material with a dopant. The matrix material and the dopant form charge-transfer-complexes. The organic electronic component (100) comprises a transparent first electrode (1), an organic layer sequence (3) having first and second charge carrier transport layers and an active region, and a transparent second electrode (2). The first charge carrier transport layer is disposed between the active region and the first electrode, and the second charge carrier transport layer is disposed between the active region and the second electrode. The charge carrier transport layers comprise a matrix material with a dopant. The matrix material and the dopant form charge-transfer-complexes, which absorb a part of an electromagnetic radiation falling from outside on the organic radiation-emitting component with first and second absorption spectra. The first charge carrier transport layer causes a predetermined color impression of the component in a switched-in electronic operating condition and the second charge carrier transport layer causes a predetermined color impression of the component in a switched-off electronic operating condition, where the predetermined color impression is noticeable through the electrodes by the external observer. The first charge carrier transport layer comprises a first layer stack with first and second layers, which have the matrix material and the dopant and are differentiated from each other, and is a hole-transport layer and an electron-transport layer. The dopant comprises metal oxide with group of metals, metal organic compound and/or organic material, aromatic organic material having substituents, and alkali metal salt, earth alkali metal salt and/or metal organic compounds. The metal organic compound comprises a metal complex with hydropyrimidopyrimidine, and group of metals. The dopant has a concentration of 5% in the matrix material. The active region is suited to radiate the electromagnetic radiation with an emission spectrum in the switched-in operating condition. The emission spectrum and the first absorption spectrum are partially same. The first charge carrier transport layer has a saturable absorption coefficient. The color impression noticeable in the switched-off operating condition is not noticeable in the switched-in operating condition by the first charge carrier transport layer.
Abstract:
An electronic device comprising a substrate, a first electrode, at least one organic functional layer, and a second electrode is indicated. The organic functional layer comprises a first, a second, and a third matrix material, wherein the first matrix material has a larger band gap than the second and the third matrix materials.
Abstract:
A radiation-emitting device for emitting electromagnetic radiation which is a mixture of at least three different partial radiations of a first, a second and a third wavelength range. The radiation-emitting device here comprises a substrate; a first electrode and a second electrode, at least one first layer sequence arranged between the first and second electrodes comprising: at least one first layer with a first fluorescent emitter, which emits radiation in the first wavelength range, at least one second layer with a first phosphorescent emitter, which emits radiation in the second wavelength range; at least one second layer sequence arranged between the first and second electrodes comprising: at least one first layer with a second fluorescent emitter, which emits radiation in the first wavelength range, at least one second layer with a second phosphorescent emitter, which emits radiation in the third wavelength range, and at least one interlayer, which is free of emitter material and is arranged between the first and the second layer sequences.