Spherical Mirror(球面镜)研究综述
Spherical Mirror 球面镜 - The conventional inspection methods and the inspection method of this study were simultaneously applied to the aspherical mirror with a diameter of 448 mm. [1] Spherical mirrors, which induce spherical, coma and astigmatic aberration, degrade the performance of a grating monochromator. [2] SCET proposes a geometric model where the cornea acts as a spherical mirror in a catadioptric system, changing the projection as it moves. [3] The astigmatism in a ring cavity has been eliminated based on the off-axis parabolic mirror, which was utilized as the folded mirror instead of the spherical mirror in the laser resonator. [4] The conventional inspection methods and the inspection method of this study were simultaneously applied to the aspherical mirror with a diameter of 448 mm. [5] An aspherical mirror used to produce light fields with uniform long focal depth is first proposed by the energy conservation equation and the principle of equal optical path. [6] The optical system is designed by all spherical mirrors with an compact structure which is just composed by six lenses. [7] Experimental results demonstrate that the proposed 1D-IBF solution reduces the residual profile errors to sub-nanometer Root Mean Square (RMS) for both flat and spherical mirrors. [8] Such ring structures located on flat substrates have the properties of lenses and spherical mirrors. [9] In this study, the mirascope comprised two aspherical mirrors and integrated mechanical parts with a diameter of 50. [10] Spherical mirrors were folded in a nonplanar configuration to minimize off-axis aberrations and provide a compact, cost-effective design, which achieved a diffraction-limited performance capable of imaging individual photoreceptor cells and blood vessels not only in healthy subjects but also in patients suffering from retinitis pigmentosa. [11] In this work, we propose a method to calibrate the polarization effect of a high-NA OL with Mueller matrix polarimetry in a retro-reflection configuration by using a spherical mirror as the reference sample. [12] With the examples of the OSMS measurements with a state-of-the-art x-ray aspherical mirror, available from one of the most advanced vendors of X-ray optics, we demonstrate the high efficacy of the developed calibration procedure. [13] A methodology has been developed for measuring radius Rv and eccentricity (conic parameter k) of large concave aspherical mirrors using a wavefront sensor. [14] In this study, we propose an effective one-dimensional IBF (1D-IBF) method approaching sub-nanometer root mean square (RMS) convergence for flat and spherical mirrors. [15] The proposed optical circuit splits the lamp light flux into two parts using systems consisting of a spherical mirror and a lens located opposite each other symmetrically with respect to the lamp. [16] The visible imaging system includes two elements, the first one is a flat mirror, and the second one is an optical element with four concentric zone aspherical mirrors, each concentric zone aspherical surfaces are 12-th order, the beam is folded and reflected between concentric zone aspherical mirrors and flat mirror, and then focused on the image plane. [17] The error for the relative alignment of aspherical mirrors was analyzed using coordinate measuring machines for assembling Ritchey–Chretien two-mirror objectives. [18] The system incorporates low-cost parts that include a Liquid Crystal on Silicon (LCOS), a spherical mirror with a transparent layer (SMT), a spherical surface meniscus lens, and photosensors. [19] In this paper, we propose a hybrid compensation method combining a spherical mirror and a computer generated hologram (CGH) to achieve the null testing of the convex aspherical surface. [20] This article mainly take the research on the technique of fabricating a steep off-axis aspherical mirror based on infrared interferometric testing. [21] The overall proposed methodology was put to test in a large aspherical mirror, estimating a surface aberration profile with a P–V (peak to valley) ratio of 155 nm, value well in accord with the one reported by the commercial interferometric system used for validation. [22] ) that included an emitter, lens, Spherical mirror, flat mirror, and liquid light guide input. [23] The inverted external occulter (IEO) is a circular aperture followed by a spherical mirror which back rejects the disk light. [24] In the experiments filamentation was assisted by focusing light with a spherical mirror of ROC=-2500 mm into an open-end tube, through which Ar gas was flown at slight overpressure. [25]常规检测方法和本研究的检测方法同时应用于直径为 448 mm 的非球面镜。 [1] 球面镜会导致球面、彗差和像散像差，降低光栅单色仪的性能。 [2] SCET 提出了一种几何模型，其中角膜在反射折射系统中充当球面镜，在移动时改变投影。 [3] 基于离轴抛物面镜消除了环形腔中的像散，在激光谐振腔中，它被用作折叠镜而不是球面镜。 [4] 常规检测方法和本研究的检测方法同时应用于直径为 448 mm 的非球面镜。 [5] 根据能量守恒方程和等光程原理，首次提出了一种用于产生具有均匀长焦深的光场的非球面镜。 [6] 光学系统采用全球面镜设计，结构紧凑，仅由六个透镜组成。 [7] 实验结果表明，所提出的 1D-IBF 解决方案将平面镜和球面镜的残余轮廓误差降低到亚纳米均方根 (RMS)。 [8] 这种位于平面基板上的环形结构具有透镜和球面镜的特性。 [9] 在这项研究中，miroscope 由两个非球面镜和直径为 50 的集成机械部件组成。 [10] 球面镜以非平面配置折叠，以最大限度地减少离轴像差并提供紧凑、具有成本效益的设计，实现了衍射限制性能，不仅能够对健康受试者和患有疾病的患者的单个感光细胞和血管进行成像来自色素性视网膜炎。 [11] 在这项工作中，我们提出了一种方法，通过使用球面镜作为参考样品，在回射配置中使用 Mueller 矩阵偏振法校准高 NA OL 的偏振效应。 [12] 通过使用最先进的 X 射线光学器件供应商之一提供的最先进的 X 射线非球面镜进行 OSMS 测量的示例，我们展示了开发的校准程序的高效性。 [13] 已经开发了一种使用波前传感器测量大型凹面非球面镜的半径 Rv 和偏心率（圆锥参数 k）的方法。 [14] 在这项研究中，我们提出了一种有效的一维 IBF (1D-IBF) 方法，用于平面和球面镜的亚纳米均方根 (RMS) 收敛。 [15] 所提出的光路使用由球面镜和相对于灯对称定位的彼此相对的透镜组成的系统将灯的光通量分成两部分。 [16] 可见光成像系统包括两个元件，第一个是平面镜，第二个是带有四个同心区非球面镜的光学元件，每个同心区非球面为12阶，光束在同心圆之间折叠反射带非球面镜和平面镜，然后聚焦在像平面上。 [17] 使用用于组装 Ritchey-Chretien 双镜物镜的坐标测量机分析非球面镜的相对对准误差。 [18] 该系统包含低成本部件，包括硅上液晶 (LCOS)、带透明层 (SMT) 的球面镜、球面弯月形透镜和光电传感器。 [19] 在本文中，我们提出了一种结合球面镜和计算机生成全息图（CGH）的混合补偿方法来实现凸非球面的零点测试。 [20] 本文主要对基于红外干涉测试的陡峭离轴非球面镜的制作技术进行研究。 [21] 所提出的整体方法在大型非球面镜中进行测试，估计表面像差轮廓，P-V（峰谷）比为 155 nm，该值与用于验证的商业干涉测量系统报告的值完全一致. [22] ) 其中包括发射器、透镜、球面镜、平面镜和液体光导输入。 [23] 倒置的外部遮光器 (IEO) 是一个圆形光圈，后面是一个球面镜，该镜面反射圆盘光。 [24] 在实验中，通过使用 ROC=-2500 mm 的球面镜将光聚焦到一个开口管中来辅助丝状化，Ar 气体在轻微超压下流过该管。 [25]
Concave Spherical Mirror 凹球面镜
The Phantom Bouquet is a venerable lecture demonstration that does a fine job of showing how a concave spherical mirror can form a real, inverted image. [1] For the purpose of testing optical path difference of a large optical window, a method of testing a large optical window with a concave spherical mirror is introduced. [2]幻影花束是一个古老的讲座演示，它很好地展示了凹球面镜如何形成真实的倒置图像。 [1] 为了测试大光学窗口的光程差，介绍了一种用凹球面镜测试大光学窗口的方法。 [2]
Darus Spherical Mirror 达鲁斯球面镜
P aling menantang dalam p engembangan sistem omni-vision adalah distorsi gambar yang dihasilkan dari spherical mirror atau lensa. [1] Yang paling menantang dalam pengembangan sistem omni-vision adalah distorsi gambar yang dihasilkan dari spherical mirror atau lensa. [2]开发全视系统最具挑战性的部分是球面镜或透镜导致的图像失真。 [1] 开发全视系统最具挑战性的部分是球面镜或透镜导致的图像失真。 [2]
Annular Spherical Mirror 环形球面镜
44 and a demagnification of 11, the Schwarzschild objective is composed of two annular spherical mirrors coated with Mo/Si multilayers. [1] Optical needles with controllable homogeneously 3D spin-orientation generated by an annular spherical mirror is theoretically investigated in this paper. [2]如图 44 和 11 的缩小，Schwarzschild 物镜由两个涂有 Mo/Si 多层的环形球面镜组成。 [1] 本文从理论上研究了由环形球面镜产生的具有可控均匀3D自旋方向的光学针。 [2]
Segmented Spherical Mirror 分段球面镜
The telescope’s large field-of-view (30 ×30) is imaged by four 200 mm photomultiplier-tubes at the focal plane of a segmented spherical mirror of 1. [1] By utilizing a low-cost segmented spherical mirror optical design, pioneered by the optical astronomical community, and by exploiting the already existing extremely stable large radio aperture structures in the DSN, we can minimize both of these cost drivers for implementing large optical communications ground terminals. [2]望远镜的大视场（30 × 30）由四个 200 毫米光电倍增管在 1 的分段球面镜的焦平面上成像。 [1] 通过利用光学天文界首创的低成本分段球面镜光学设计，并利用 DSN 中已经存在的极其稳定的大无线电孔径结构，我们可以最大限度地降低实现大型光通信地面终端的这两个成本驱动因素. [2]
spherical mirror atau 球面镜或
P aling menantang dalam p engembangan sistem omni-vision adalah distorsi gambar yang dihasilkan dari spherical mirror atau lensa. [1] Yang paling menantang dalam pengembangan sistem omni-vision adalah distorsi gambar yang dihasilkan dari spherical mirror atau lensa. [2]开发全视系统最具挑战性的部分是球面镜或透镜导致的图像失真。 [1] 开发全视系统最具挑战性的部分是球面镜或透镜导致的图像失真。 [2]