量子安全直接通信(Quantum secure direct communication,QSDC)是一种预先不需要建立共享秘钥而直接传输秘密信息的协议。针对信道中联合噪声的存在,提出一种基于单光子态自避错传输的量子安全直接通信协议。研究结果表明,该方案有效地...量子安全直接通信(Quantum secure direct communication,QSDC)是一种预先不需要建立共享秘钥而直接传输秘密信息的协议。针对信道中联合噪声的存在,提出一种基于单光子态自避错传输的量子安全直接通信协议。研究结果表明,该方案有效地避免了联合噪声对传输信息的影响,使接收方得到原未知量子态的成功率可趋近于100%,大大提高了量子态传输的保真度。该方案实验操作简单,有很高的学术研究和应用价值。展开更多
We report a small molecule host of 4,4(-N,N)-dicarbazole-biphenyl(CBP) doped with 8% tris(2-phenylpyridine) iridium(Irppy3) for use in efficient green phosphorescent organic light-emitting devices(PHOLEDs) combined wi...We report a small molecule host of 4,4(-N,N)-dicarbazole-biphenyl(CBP) doped with 8% tris(2-phenylpyridine) iridium(Irppy3) for use in efficient green phosphorescent organic light-emitting devices(PHOLEDs) combined with different electron transport layers of Alq and BAlq. The PHOLEDs exhibit maximum current efficiency and power efficiency of 19.8 cd/A and 6.21 lm/W, respectively. The high performance of such PHOLEDs is attributed to the better electron mobile ability of BAlq and sub-monolayer quinacridone(QAD) as carrier trapping layer and equal charge carrier mobilities of hole and electron to form the broad carrier recombination zone in the emitting layer, which can 1reduce the triplet-triplet annihilation and improve the efficiency of the device.展开更多
文摘量子安全直接通信(Quantum secure direct communication,QSDC)是一种预先不需要建立共享秘钥而直接传输秘密信息的协议。针对信道中联合噪声的存在,提出一种基于单光子态自避错传输的量子安全直接通信协议。研究结果表明,该方案有效地避免了联合噪声对传输信息的影响,使接收方得到原未知量子态的成功率可趋近于100%,大大提高了量子态传输的保真度。该方案实验操作简单,有很高的学术研究和应用价值。
基金supported by the Major Project of Science and Technology Office of Fujian Province of China(No.2014H0042)the Natural Science Foundation of Fujian Province of China(No.2015J01664)+1 种基金the Project of Science and Technology Research of Quanzhou in Fujian Province of China(Nos.2013Z125 and 2014Z137)the 2016 Annual National or Ministries Preparatory Research Foundation Project in Quanzhou Normal University(No.2016YYKJ21)
文摘We report a small molecule host of 4,4(-N,N)-dicarbazole-biphenyl(CBP) doped with 8% tris(2-phenylpyridine) iridium(Irppy3) for use in efficient green phosphorescent organic light-emitting devices(PHOLEDs) combined with different electron transport layers of Alq and BAlq. The PHOLEDs exhibit maximum current efficiency and power efficiency of 19.8 cd/A and 6.21 lm/W, respectively. The high performance of such PHOLEDs is attributed to the better electron mobile ability of BAlq and sub-monolayer quinacridone(QAD) as carrier trapping layer and equal charge carrier mobilities of hole and electron to form the broad carrier recombination zone in the emitting layer, which can 1reduce the triplet-triplet annihilation and improve the efficiency of the device.
