
光发射装置
One or more semiconductor light emitting devices are mounted in the cavity.
一个或者多个半导体发光器件安装在空腔中。
The present invention relates to organic light emitting devices having carrier blocking layers comprising metal complexes.
本发明涉及具有含金属配合物的载流子传输层的有机发光元件。
In this fashion, the light emitting devices are mounted on the board by a chip-on-board technique.
以这种方式, 发光装置通过板上芯片技术安装在所述板上。
The light emitting devices require no battery power or any other form of charging, and never need servicing or maintenance.
发光器件无需电池电源或任何其他形式的收费,绝不需要维修或维护。
The deposition of organic thin film is very important in organic light emitting devices, which directly affects the quality of thin film, efficiency and cost of device.
有机电致发光器件中有机薄膜的制备方法非常重要,不同方法制备的薄膜质量不同,这直接影响着器件的效率;制备方法直接影响到产业化中的器件制备成本。
Organic white light emitting devices(OWLEDs) have tremendous application merits and potential markets.
有机白光LED主要有电致发光与光致发光两类。
A new type of photo isolator has been developed by packing light emitting devices with silicon photo negative resistance devices face to face to realize electrical isolation.
将发光器件和硅光电负阻器件面对面地封装在一起 ,其间实现电隔离 ,构成一种新型光耦合器。
The compounds may be prepared as films and such films may be used as a hole transporting layer, an emissive layer or an electron transporting layer in organic light emitting devices.
所述化合物可制备成膜,且所述膜可用作有机发光器件中的空穴传输层、发光层或电子传输层。
Light emitting devices having charge transporting layers comprising one or more metal complexes are provided.
提供了具有电荷传输层的发光元件,所述电荷传输层含有一种或多种金属配合物。
Organic light emitting devices (OLEDs) have been used in flat-panel displays and lighting with a near-30-year development.
有机电致发光器件(OLED)经过近三十年的发展,已经在照明和显示上得到一定程度的应用。
The electrical potential, field and carrier density in emission layer of single layer organic light-emitting devices are numerically stu***d based on the trapped charge limited conduction theory.
以陷阱电荷限制传导理论为基础,用数值方法研究了单层有机电致发光器件发光层中电势、电场和载流子密度的空间分布。
The method of manufacturing a display includes the steps of: forming a plurality of organic light-emitting devices in a display region on a substrate to form a light-emitting panel;
所述制造显示装置的方法包括以下步骤:在基板上的显示区域中形成多个有机发光器件以形成发光面板;
The Company will provide you with inexpensive light-emitting devices, to serve you.
本公司将为您提供物美价廉的发光器件,竭诚为您服务。
White organic light-emitting devices (WOLEDs) are currently attracting considerable attention for use in flat panel displays and as solid state lighting sources.
近些年来,白色有机电致发光器件因其在平板显示和固态照明上的应用,引起了人们广泛的关注。
The effect of the composite hole transporting layer with different polystyrene(PS)-triphenyl diamine(TPD) mass ratios on the performance of organic light-emitting devices(OLEDs) was investigated.
研究了不同质量比的聚*********(PS)三苯基二胺(TPD)复合空穴传输层对有机电致发光器件(OLED)性能的影响。
The organic light-emitting devices (OLEDs) were fabricated by vacuum evaporation method on PET flexible substrate.
利用真空蒸镀方法,在PET柔性衬底上制备了有机电致发光器件。
Scientists are also experimenting with using quasicrystals in coatings for frying pans, heat insulation in engines, and in light-emitting devices called LEDs.
科学家们也尝试将其用于煎锅涂层,发动机隔热材料和LED的发光部件中。
Compared with four types of white organic light-emitting devices, the effects of the luminescent mechanisms.
所以研究和发展白色磷光有机电致发光器件具有特殊的意义。
For a light-emitting material, the research on how to improve the performance of its light-emitting is of great significance to improve the efficiency of light-emitting devices.
对于一种发光材料,研究如何改善其发光性能对提高器件的发光效率具有非常重要的意义。
This study is a step to develop a complete physics-of-failure-based reliability prediction methodology for semiconductor light-emitting devices.
文中介绍了一种基于概率方法的半导体发光器件可靠性预计模型。
Abstract : A new type of optical signal transmission system based on organic light-emitting devices (OLED) has been investigated using direct light intensity modulation method.
摘要 :采用直接光强调制的方法,建立了一种新型有机电致发光器件(OLED)的光电信号传输体系,研究了发光层掺杂、发光面积和预置电压对OLED响应速度的影响。
Research advances on organic light-emitting devices(OLED) are reviewed. OLEDs history, structure, materials and manufacturing are introduced.
介绍了有机电致发光器件(OLED的历史,结构,材料及制作工艺;
At first, the thesis reviewed the histories and described structures, organic materials, hotspot, foreground of organic Light-Emitting Devices.
论文先回顾了有机电致发光器件的历史进展、介绍了器件结构、有机材料、发光机理、研究热点及应用前景。
光发射器件(Light-Emitting Devices, LED) 是指通过电能或其他能量激发后能够主动发出可见光或非可见光(如红外光、紫外光)的半导体电子器件。其核心原理是半导体材料中的电子与空穴复合时,以光子形式释放能量,实现电光转换。以下从技术定义、分类及原理进行详细解释:
光发射器件基于电致发光(Electroluminescence) 效应工作:当电流通过半导体PN结时,电子从高能级跃迁至低能级,多余能量以光子形式释放。其发光波长由半导体材料的能带间隙(Bandgap)决定,公式可表示为: $$ E_g = frac{hc}{lambda} $$ 其中 ( E_g ) 为能带间隙,( h ) 为普朗克常数,( c ) 为光速,( lambda ) 为发射光波长。通过调整材料组分(如InGaN、AlGaAs),可精确控制发光颜色。
发光二极管(LED)
有机发光二极管(OLED)
激光二极管(Laser Diode)
IEEE光子学会对LED物理机制的详解:IEEE Photonics Society
国际显示技术协会(SID)发布的结构与工艺标准:SID OLED Resource
美国光学学会(OSA)技术报告:OSA Publishing
通过材料创新(如钙钛矿LED)与结构优化(量子点增强),光发射器件持续向高效率、广色域方向演进,成为现代光电技术的核心组件。
“Light emitting devices” 可以拆解为三个部分理解,以下是详细解释:
“Light emitting devices” 指通过电能或其他能量转化为光能的主动发光器件,典型代表包括:
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