1. <u id="ysy16"></u>
    2. <sub id="ysy16"></sub>
      <cite id="ysy16"></cite>
      亚洲欧美一级一级a,免费国产黄网在线观看,国产亚洲精aa在线观看不卡,麻豆秘密入口亚洲综合,亚洲男人天堂2021,人善交videos欧美3d,日韩av毛片福利国产福利,精品国产av色欲果冻传媒
      產(chǎn)品詳情
      • 產(chǎn)品名稱:F8BT

      • 產(chǎn)品型號(hào):F8BT
      • 產(chǎn)品廠商:Ossila
      • 產(chǎn)品價(jià)格:0
      • 折扣價(jià)格:0
      • 產(chǎn)品文檔:
      你添加了1件商品 查看購(gòu)物車
      簡(jiǎn)單介紹:
      A widely used green emitting reference polymer for a variety of applications including as an emissive species in OLEDs [1], an approximately balanced p-type and n-type polymer for OFETs [2] and light emitting transistors [3] as well as being used a polymeric accepter for OPVs [1]. The deep lying HOMO and LUMO levels (5.9 / 3.3 eV) make it air stable while the liquid-crystalline and beta phases mak
      詳情介紹:

      General Information

      Full name Poly(9,9-dioctylfluorene-alt-benzothiadiazole)
      Synonyms
      • F8BT
      • PFBT
      Chemical formula (C35H42N2S)n
      CAS number 210347-52-7
      HOMO / LUMO HOMO = -5.9 eV, LUMO = -3.3 eV [2]
      Classification / Family Polyfluorenes, Benzothiodiazoles, Organic semiconducting materials, Semiconducting polymers, OLED green emitter materials, OLED materials, Organic Photovoltaic materials, Polymer solar cells, OFET materials

      Product Details

      Purity > 99.9%
      Mw > 230,000 g/mol
      Appearance Orange powder

      Batch History

      Batch No. Mw (g/mol) Mn (g/mol) PDI
      20181206 237,460 87,620 1.70
      20160113 376,200 221,300 1.70
      20150430 253,600 120,200 2.11
      20150423 240,600 123,400 1.95
      f8bt, 210347-52-7 chemical structure
      Chemical structure of F8BT. CAS No.: 210347-52-7. Chemical formula: (C35H42N2S)n.

       

      Applications

      A widely used green emitting reference polymer for a variety of applications including as an emissive species in OLEDs [1], an approximately balanced p-type and n-type polymer for OFETs [2] and light emitting transistors [3] as well as being used a polymeric accepter for OPVs [1]. The deep lying HOMO and LUMO levels (5.9 / 3.3 eV) make it air stable while the liquid-crystalline and beta phases make it widely used for basic research purposes.

       

      Device structure ITO/PEDOT:PSS/TFB/F8BT/F8imBT-Br*/Ca/Al [4]
      Colour Green green
      Max. EQE 5.1%
      Max. Current Efficiency 17.9 cd/A
      Max. Power Efficiency 16.6?lm?W?1

       

      Usage Datasheet

      For a high efficiency green OLED we recommend blending F8 (PFO) with F8BT with the below specifications. This ink can then be deposited either in air or in a glovebox with little difference in performance, provided that the exposure time and light levels are minimised. For more details see our fabrication guide.

      At typical concentrations of 10 mg/ml 100 mg of F8 (PFO) will make around 200 spin-coated devices on Ossila's standard ITO substrates (20 x 15 mm) assuming 50% solution usage (50% loss in filtering and preparation).

      OLED reference device:

      • F8 with F8BT
      • Blend ratio of 19:1 (F8:F8BT) in Toluene
      • Total concentration of 10 mg/ml
      • 0.45 μm PTFE (hydrophobic) filter
      • Spun at 2000 rpm (approx. 70 nm thickness)

      Pipetting 20 μl of the above solutions onto a substrate spinning at 2000 rpm should provide a good even coverage with approximately 70 nm thickness. The substrate needs to be spun until dry, which is typically only a few seconds — 15 seconds should be ample to achieve this. Thermal annealing should be undertaken at 80°C for 10 minutes prior to cathode deposition

      A basic but efficient OLED can be made using PEDOT:PSS as a hole transport layer and Calcium/Aluminium as the electron contact. When used with the Ossila ITO substrates and shadow masks this produces an easy to fabricate yet efficient >100 cd/m2) device.

      Polyfluorene-based OLED architecture based on F8 blended with F8BT
      Typical Ossila device architecture: Polyfluorene-based OLED architecture based on F8 blended with F8BT.

       

      Literature and References

      Please note that Ossila has no formal connection to any other authors or institutions in these references.

      1. Conjugated-Polymer Blends for Optoelectronics. C.R. McNeill et al., Advanced Materials, Vol 21, Issue 38-39, 3840 (2009)
      2. Electron and hole transport in poly(fluorene-benzothiadiazole). Y. Zhang et al., Appl. phys. Lett., Vol 98, 143504 (2011)
      3. Organic Light Emitting Field Effect Transistors: Advances and Perspectives. F. Cicoira et al., Advanced Functional Materials, Vol 17, Issue 17, 3421-3434 (2007)
      4. High-Efficiency Polymer LEDs with Fast Response Times Fabricated via Selection of Electron-Injecting Conjugated Polyelectrolyte Backbone Structure, M. Suh et al., ACS Appl. Mater. Interfaces, (2015), DOI: 10.1021/acsami.5b07862.
      在線客服
      主站蜘蛛池模板: 亚洲 自拍 另类 欧美 综合 | 亚洲日本人成网站在线观看| aⅴ精品无码无卡在线观看| 性色av无码中文av有码vr| 国产精品无码专区久久久| 国产精品一二二区视在线| 粉嫩小仙女扒开双腿自慰| 天堂v亚洲国产ⅴ第一次| 亚洲AV无码成人精品区网页| 人妻夜夜爽天天爽三区麻豆av| 精品成在人线av无码免费看 | 国产成人一区二区不卡| 野花日本韩国视频免费8| 中国老妇女毛茸茸bbwbabes| 97一区二区在线播放| 亚洲熟妇丰满多毛xxxx| 国产高清不卡一区二区| 日韩永久永久永久黄色大片| 国产av天堂无码一区二区三区| 久久精品国产亚洲AV忘忧草18 | 又粗又硬又大又爽免费视频播放| 成人无码区免费视频网站| 熟女乱| 日韩人妻一区二区三区免费| 国产精品午夜波多野结衣性色 | 亚洲伊人久久综合成人| 亚洲AV日韩精品久久久久| 色yeye免费视频免费播放| 久久精品第九区免费观看| 美女禁区a级全片免费观看| 精品国产乱子伦一区二区三区| 一本色道久久综合亚洲精| 性欧美rxxx| 亚洲精品国产精品国自产观看| 97人妻碰碰碰久久久久禁片| 亚洲乱理伦片在线观看中字| 2021无码最新国产在线观看| 久久精品国产亚洲av品| 在线亚洲精品国产成人二区| 激情综合网激情综合| 久久国产高潮流白浆免费观看|