微结构纤芯光子晶体光纤基本特性及暗中空光束的产生
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摘要
光子晶体光纤作为目前光电子器件领域的研究热点之一,除了它的导光机制、制备方法和基本性质等被广泛研究外,它的应用也逐渐成为研究的焦点。论文设计了几种具有微结构纤芯的光子晶体光纤,利用电磁场散射的多极理论数值研究了微结构纤芯对光子晶体光纤特性的影响及其暗中空光束的产生。
首先,设计了两种具有微结构纤芯的光子晶体光纤(PCFs)——矩形芯和椭圆芯PCFs,数值研究了这两种光纤的基本特性.发现在光纤包层气孔不变的情况下,仅通过调节纤芯气孔的大小就可以灵活地调节光纤的双折射、色散和非线性特性.椭圆芯PCFs可以出现三个分别位于可见、近红外和中红外波段零色散波长.在结构参数相似的情况下,椭圆芯PCFs比矩形芯PCFs更容易实现高双折射和高非线性.
其次,通过在微结构纤芯光子晶体光纤中选择性填充液体的方法产生了高质量的暗中空光束,空心光束的暗斑大小可以通过在不同层气孔中填充液体或改变光纤参数来调节。有望利用液体填充的光子晶体光纤制成一种方便灵活的捕获和操纵原子的全光纤光镊。最后对暗中空光束应用前景进行了展望。
最后,在纤芯中引入一个小圆孔形成了微结构纤芯光子晶体光纤,数值研究了纤芯气孔大小或者在其中填充不同折射率的物质对暗中空光束特性的影响;研究发现无论有无中心气孔都可以产生质量很好的暗中空光束,但当中心气孔存在时,可以通过调节中心气孔半径的大小来调节暗中空光束暗斑的大小。也可以通过在纤芯孔填充不同折射率的物质改变暗中空光束的大小和质量。
Photonic crystal fiber(PCF) as one of the focus that studied by many people in the photoelectron fields, including the characters、guide-light mechanism and fabrication. PCF is also studied as the focus. This paper designs all kinds of micro-structured core Photonic crystal fibers. Influence of micro-structured core on characteristics of photonic crystal fibers are studied by electromagnetic scattering theory of multipole method at the theory, and produce of dark hollow beam is also studied.
Firstly, Photonic crystal fiber(sPCFs)with rectangle core and elliptical core have been designed in this paper. Their fundamental characteristics are studied by electromagnetic scattering theory of multipole method. It is found that the fiber birefringence, dispersion and nonlinear characteristics can be flexibly adjusted by changing the radius of the air holes in the core. The three zero-dispersion-wavelength of elliptical core PCFs locate in visible, near-infrared and mid-infrared band, respectively. For similar structural parameters, elliptical core PCFs are easier to achieve high birefringence and high nonlinear than rectangular core PCFs.
Secondly, a high-quality hollow beam is produced through a selectively liquid-filled photonic crystal fiber. A dark spot size of the liquid-filled photonic crystal fiber -generated hollow beam can be tuned by inserting liquid in the cladding region and varying photonic crystal fiber structure parameters. The liquid-filled PCF makes a convenient and flexible tool for the guiding and trapping of atoms and creation of all-fiber optical tweezers. Finally, the application of dark hollow beams in the atomic optics and the other fields are also discussed.
Finally, a method by employing circular air-hole in the fibre core was proposed to form micro- structure fibre core photonic crystal fiber. we Study properties of dark hollow beams produced by the micro-structure fiber core photonic crystal fiber by changing the radius of the air holes in the core and filling with medium for a different effective refractive index in the fibre core air-holes. It is found that: the micro-structure fiber can produce good quality of the dark hollow beam with or without center holes, but when the center air-hole exists, we can adjust a dark spot size of the dark hollow beam by changing the radius of the air holes in the core. The further study shows filling with medium for a different effective refractive index in the fibre core air-hole not only can adjust the size of dark spot of the dark hollow beam, but can adjust quality of dark hollow beams. Finally, the application of dark hollow beams in the atomic optics and the other fields are also discussed.
首先,设计了两种具有微结构纤芯的光子晶体光纤(PCFs)——矩形芯和椭圆芯PCFs,数值研究了这两种光纤的基本特性.发现在光纤包层气孔不变的情况下,仅通过调节纤芯气孔的大小就可以灵活地调节光纤的双折射、色散和非线性特性.椭圆芯PCFs可以出现三个分别位于可见、近红外和中红外波段零色散波长.在结构参数相似的情况下,椭圆芯PCFs比矩形芯PCFs更容易实现高双折射和高非线性.
其次,通过在微结构纤芯光子晶体光纤中选择性填充液体的方法产生了高质量的暗中空光束,空心光束的暗斑大小可以通过在不同层气孔中填充液体或改变光纤参数来调节。有望利用液体填充的光子晶体光纤制成一种方便灵活的捕获和操纵原子的全光纤光镊。最后对暗中空光束应用前景进行了展望。
最后,在纤芯中引入一个小圆孔形成了微结构纤芯光子晶体光纤,数值研究了纤芯气孔大小或者在其中填充不同折射率的物质对暗中空光束特性的影响;研究发现无论有无中心气孔都可以产生质量很好的暗中空光束,但当中心气孔存在时,可以通过调节中心气孔半径的大小来调节暗中空光束暗斑的大小。也可以通过在纤芯孔填充不同折射率的物质改变暗中空光束的大小和质量。
Photonic crystal fiber(PCF) as one of the focus that studied by many people in the photoelectron fields, including the characters、guide-light mechanism and fabrication. PCF is also studied as the focus. This paper designs all kinds of micro-structured core Photonic crystal fibers. Influence of micro-structured core on characteristics of photonic crystal fibers are studied by electromagnetic scattering theory of multipole method at the theory, and produce of dark hollow beam is also studied.
Firstly, Photonic crystal fiber(sPCFs)with rectangle core and elliptical core have been designed in this paper. Their fundamental characteristics are studied by electromagnetic scattering theory of multipole method. It is found that the fiber birefringence, dispersion and nonlinear characteristics can be flexibly adjusted by changing the radius of the air holes in the core. The three zero-dispersion-wavelength of elliptical core PCFs locate in visible, near-infrared and mid-infrared band, respectively. For similar structural parameters, elliptical core PCFs are easier to achieve high birefringence and high nonlinear than rectangular core PCFs.
Secondly, a high-quality hollow beam is produced through a selectively liquid-filled photonic crystal fiber. A dark spot size of the liquid-filled photonic crystal fiber -generated hollow beam can be tuned by inserting liquid in the cladding region and varying photonic crystal fiber structure parameters. The liquid-filled PCF makes a convenient and flexible tool for the guiding and trapping of atoms and creation of all-fiber optical tweezers. Finally, the application of dark hollow beams in the atomic optics and the other fields are also discussed.
Finally, a method by employing circular air-hole in the fibre core was proposed to form micro- structure fibre core photonic crystal fiber. we Study properties of dark hollow beams produced by the micro-structure fiber core photonic crystal fiber by changing the radius of the air holes in the core and filling with medium for a different effective refractive index in the fibre core air-holes. It is found that: the micro-structure fiber can produce good quality of the dark hollow beam with or without center holes, but when the center air-hole exists, we can adjust a dark spot size of the dark hollow beam by changing the radius of the air holes in the core. The further study shows filling with medium for a different effective refractive index in the fibre core air-hole not only can adjust the size of dark spot of the dark hollow beam, but can adjust quality of dark hollow beams. Finally, the application of dark hollow beams in the atomic optics and the other fields are also discussed.
引文
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