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    • 8. 发明授权
    • Aerosol generator
    • 气溶胶发生器
    • US08167282B2
    • 2012-05-01
    • US13373066
    • 2011-11-03
    • Anthony Michael DeSantoloRobert Scott Windeler
    • Anthony Michael DeSantoloRobert Scott Windeler
    • B01F3/04
    • C03B19/1438B01D1/0005C03B37/01433C03B37/01838C03B2201/28C03B2201/31C03B2201/34C03B2201/36C03B2207/81C03B2207/87
    • A method of fabricating a glass body that includes a multiplicity of constituents, at least one of which is a dopant (e.g., a rare-earth element) having a low vapor pressure (LVP) precursor includes the steps of: (a) generating an aerosol from the LVP precursor; (b) separately generating vapors of the other constituents; (c) convecting the aerosol and vapors to deposition system including a substrate; and (d) forming at least one doped layer on a surface of the substrate. In one embodiment, the method also includes filtering the aerosol so as to remove aerosol particles outside of a particular range of sizes. Also described is a unique aerosol generator that is particularly useful in generating aerosols of rare-earth dopants. Particular embodiments directed to the fabrication of Yb-doped optical fibers are described.
    • 一种制造玻璃体的方法,其包括多个成分,其中至少一个是具有低蒸气压(LVP)前体的掺杂剂(例如,稀土元素),其包括以下步骤:(a)产生 来自LVP前体的气溶胶; (b)分别生成其他成分的蒸气; (c)将气溶胶和蒸气对流到包括基底的沉积系统; 和(d)在所述衬底的表面上形成至少一个掺杂层。 在一个实施方案中,该方法还包括过滤气溶胶以除去特定范围的气溶胶颗粒。 还描述了一种独特的气溶胶发生器,其特别用于产生稀土掺杂剂的气溶胶。 描述了涉及制造掺杂Yb的光纤的特定实施例。
    • 9. 发明授权
    • Method and apparatus for modulating signal strength within optical systems
    • 调制光学系统内信号强度的方法和装置
    • US06385368B1
    • 2002-05-07
    • US09257351
    • 1999-02-19
    • Karl R. AmundsonTodd Christian HaberJefferson Lynn WagenerRobert Scott Windeler
    • Karl R. AmundsonTodd Christian HaberJefferson Lynn WagenerRobert Scott Windeler
    • G02B626
    • G02F1/0115G02B6/02095G02B6/021G02B6/266G02F1/1334G02F2201/307G02F2203/03
    • Embodiments of the invention include an optical system apparatus and method for modulating the strength of a grating such as a long period grating (LPG) within optical systems and devices by varying the light transmission and loss characteristics of the cladding mode, rather than varying the effective refractive index of the fiber layers. According to embodiments of the invention, the use of a light-scattering or light absorptive material in the cladding of the optical fiber or other optical energy transmission medium causes the cladding to switch between a first state that effectively allows coherent coupling of cladding modes and a second state that effectively prevents coherent coupling of cladding modes. The light-scattering materials include electro-optic materials that cause the cladding to switch between the first and second states based on the presence (or absence) of an electric field, magneto-optic materials that cause the cladding to switch between the first and second states based on the presence (or absence) of a magnetic field, and materials capable of phase transitions that cause the cladding to switch between the first and second states based on temperature. The light-absorptive materials include dopants that cause the cladding to switch between the first and second states based on the wavelength of the optical energy. Embodiments of the invention differ from conventional optical media in that, according to embodiments of the invention, the cladding mode loss (attenuation) is varied rather than conventional changes in the index of refraction. The magnitude of the loss according to embodiments of the invention depends on the specification arrangements employed, but such loss typically is defined in dB per unit length in the given cladding mode.
    • 本发明的实施例包括一种用于通过改变包层模式的光透射和损耗特性来调制光学系统和装置内的诸如长周期光栅(LPG)的光栅的强度的光学系统装置和方法,而不是改变有效 纤维层的折射率。 根据本发明的实施例,在光纤或其他光能传输介质的包层中使用光散射或光吸收材料使得包层在有效地允许包层模式的相干耦合的第一状态和 有效地防止包层模式的相干耦合的第二状态。 光散射材料包括基于电场的存在(或不存在)使得包层在第一和第二状态之间切换的电光材料,使得包层在第一和第二状态之间切换的磁光材料 基于磁场的存在(或不存在)的状态,以及能够基于温度使包层在第一和第二状态之间切换的相变材料。 光吸收材料包括基于光能的波长使包层在第一和第二状态之间切换的掺杂剂。 本发明的实施例不同于传统的光学介质,因为根据本发明的实施例,包层模式损耗(衰减)是变化的,而不是常规的折射率的变化。 根据本发明的实施例的损耗的大小取决于所采用的规范布置,但是在给定的包层模式中,这种损耗通常以单位长度的dB为单位。
    • 10. 发明授权
    • Method of making optical waveguide devices using perchloryl fluoride to
make soot
    • 使用高氯氟化物制造光波导器件来制造烟灰的方法
    • US6109065A
    • 2000-08-29
    • US65961
    • 1998-04-24
    • Robert Michael AtkinsRobert Scott Windeler
    • Robert Michael AtkinsRobert Scott Windeler
    • C03B8/04C03B37/018G02B6/00G02B6/02C03B37/027
    • C03B37/01807C03B37/01838C03B2201/12C03B2201/28C03B2201/34C03B2201/36C03B2201/40
    • Applicants have determined that much of the nonuniformity in solution doped preforms is due to nonuniformity of the soot layer caused by the high temperature necessary for complete reaction, and that MCVD fabrication using reaction temperature lowering gases such as nitrous oxide (N.sub.2 O) can produce more uniform soot layers. The conventional oxygen/reactant gas mixture presents a very small temperature window in which a uniform silica soot layer can be deposited without sintering. If the temperature in oxygen is too low, SiCl.sub.4 will not react completely and silicon oxychlorides will form. This degrades the soot layer and makes it unusable. If the temperature is too high the soot layer begins to sinter, decreasing the surface area and porosity. Adding a reaction temperature lowering gas lowers the reaction temperature and enables deposition of soot on the tube wall at a temperature substantially lower than the sintering temperature. This results in a more uniform, porous soot layer along the length of the preform and from one preform to another; and, in turn, the greater uniformity permits more uniform solution doping.
    • 申请人已经确定了溶液掺杂预制件中的大部分不均匀性是由于完全反应所需的高温引起的烟灰层的不均匀性,并且使用反应温度降低气体如一氧化二氮(N 2 O)的MCVD制造可以产生更均匀的 烟灰层。 常规的氧气/反应物气体混合物呈现非常小的温度窗口,其中可沉积均匀的二氧化硅烟灰层而不烧结。 如果氧气中的温度太低,SiCl4将不会完全反应并形成硅氧氯化物。 这会降低烟灰层,使其不可用。 如果温度太高,烟灰层开始烧结,减少表面积和孔隙率。 添加反应降温气体降低了反应温度,并且能够以基本上低于烧结温度的温度将烟灰沉积在管壁上。 这导致沿着预成型件的长度和从一个预成型件到另一个预制件的更均匀的多孔的烟灰层; 反过来,更大的均匀性允许更均匀的溶液掺杂。