Basic research on intravascular low intensity laser therapy

来源 :ChineseOpticsLetters | 被引量 : 0次 | 上传用户:Tiki0127
下载到本地 , 更方便阅读
声明 : 本文档内容版权归属内容提供方 , 如果您对本文有版权争议 , 可与客服联系进行内容授权或下架
论文部分内容阅读
Intravascular low intensity laser therapy (ILILT) was popular in Russia in 1980s and in China in 1990s, respectively. There is photobiomodulation on blood cells and blood in vitro if the radiation intensity is so low that the photodynamic effects of endogenous photosensitizer can not damage membrane or cell compartments and the cells are not in health or normal states. The present in vivo research is of problem as the tip intensity of the fiber-optic used in ILILT might induce the apoptosis or necrosis of the blood cells near to the tip. Obviously, the in vivo research should be further done.
其他文献
鉴于准分子激光器能发射可调谐强紫外输出,所以被认为是遥感某些大气成分,尤其是羟基原子团的理想光源。但是大多数准分子激光器的低效率和短寿命成了诸如在航天飞机和气象气球等空中应用中的障碍。目前,帕萨迪纳美国航天局喷气推进实验室的研究者们所做的实验证明,在激光器放电系统中采用一种称为饱和感应器的特殊幵关可以提高准分子激光器的效率并延长其寿命。
期刊
为了得到CsI光阴极在紫外波段的时间弥散特性, 使用蒙特卡罗方法对CsI光阴极在紫外光入射情况下的光电发射进行模拟, 研究了当阴极厚度为5~45nm、入射紫外光能量为6.8~8.4eV时CsI光阴极出射电子的时间分布。得到了CsI光阴极的时间弥散与紫外光能量和CsI光阴极厚度的关系, 发现当CsI光阴极厚度小于30nm的时候, 光阴极的时间弥散随紫外光的能量增加而减小, 随光阴极厚度的增加而增加。当CsI光阴极厚度大于30nm的时候, 光阴极的时间弥散趋于稳定, 与紫外光的能量和光阴极的关系较小。
期刊
The mid-infrared spectrum can be recorded from almost any material, making mid-infrared spectroscopy an extremely important and widely used sample characterization and analysis technique. However, sensitive photoconductive detectors operate primarily in t
期刊
期刊
Photodynamic therapy (PDT) gains wide attention as a useful therapeutic method for cancer. It is mediated by the oxygen and photosensitizer under the specific light irradiation to produce the reactive oxygen species (ROS), which induce cellular toxicity a
利用光镊捕获单个微小粒子,在各个研究领域得到重要应用。光镊也能同时捕获两个或更多个粒子,明确地知道光阱中粒子的个数,是顺利进行研究的前提。根据光散射原理,提出通过测量阱域内微小粒子的背散光强度来区分光阱中的粒子个数,实验上成功地实现了对直径分别为1 μm,0.5 μm,0.2 μm,100 nm和73 nm的被捕获于光阱中的粒子个数的分辨。对背散光光强随着粒子直径变化所反映的信息进行了分析,讨论了光阱中多粒子的排列状态。通过背散光实时动态分辨光阱中的纳米粒子个数的实验方法,对将光镊扩展到纳米尺度的应用提供
High-efficiency submegahertz bandwidth photon pair generators will enable the field of quantum technology to transition from laboratory demonstrations to transformational applications involving information transfer from photons to atoms. While spontaneous
期刊
以TiO2为多孔模板并以聚3,4-亚乙二氧基噻吩-聚苯乙烯磺酸(PEDOT:PSS)为催化材料合成了具有交联孔隙结构的TiO2-PEDOT:PSS纳米复合薄膜(TPNF),并将其作为对电极应用于染料敏化太阳电池(DSC)。首先将TiO2纳米颗粒沉积在导电的掺杂氟的SnO2透明玻璃(FTO)上形成骨架和孔隙均在纳米级别的模板,随后将PEDOT:PSS水溶液附着在模板的骨架表面,最终经热处理获得TPNF。通过优化模板结构和旋涂转速,获得了催化活性优异的TPNF,组装后DSC的填充因子和转换效率分别达到0.52
期刊