AFB® of zero-order compound waveplate with high accuracy and precision retardation values

被引:0
作者
Lee, Huai-Chuan [1 ]
Meissner, Helmuth [1 ]
Meissner, David [1 ]
Meissner, Stephanie [1 ]
机构
[1] Onyx Opt Inc, 6551 Sierra Lane, Dublin, CA 94568 USA
来源
SOLID STATE LASERS XXXIV: TECHNOLOGY AND DEVICES | 2025年 / 13341卷
关键词
Adhesive free bond (AFB (R)); zero-order compound waveplates; in-process retardation thickness control; polarization management; low-loss waveplates; DESIGN;
D O I
10.1117/12.3057396
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Onyx Optics has developed an adhesive-free-bond (AFB (R)) process that produces highly precise and accurate retardation zero-order compound waveplates. The developed process leverages the epoxy bonded and the air-gaped counterparts by its production of lower optical loss waveplates. We have implemented a thickness monitoring system that can measure the retardation thickness of the waveplate in process. We can then adjust the process parameters accordingly to attain the target thickness of the waveplate. The process achieves thickness control of zero-order waveplates within +/- 0.2 mu m and retardation within +/- 1.0 degrees. The AFB (R) process can be applied to various birefringent/isotropic crystal combinations such as alpha-quartz/fused silica, MgF2/fused silica, sapphire/YAG, and MgF2 of different orientations. We have developed a modeling tool that considers the beam wavelength, retardation, and fast axis orientation of each compound waveplate layer as the independent variables and returns the analytical solution that displays a series of polarization phase maps of the transmitting beam before and after passing through each layer of multilayered compound waveplate stacks. The modeling tool also simulates the polarization states with the given parameters uncertainties and allows subsequent cross variables correction for attaining target polarization state with fabrication flexibility and efficacy.
引用
收藏
页数:6
相关论文
共 6 条
[1]   Exploiting the Poincare-Bloch symmetry to design high-fidelity broadband composite linear retarders [J].
Ardavan, Arzhang .
NEW JOURNAL OF PHYSICS, 2007, 9
[2]   Comprehensive characterization of a general composite waveplate by spectroscopic Mueller matrix polarimetry [J].
Gu, Honggang ;
Chen, Xiuguo ;
Shi, Yating ;
Jiang, Hao ;
Zhang, Chuanwei ;
Gong, Peng ;
Liu, Shiyuan .
OPTICS EXPRESS, 2018, 26 (19) :25408-25425
[3]   Design for the optical retardation in broadband zero-order half-wave plates [J].
Liu, Jin ;
Cai, Yi ;
Chen, Hongyi ;
Zeng, Xuanke ;
Zou, Da ;
Xu, Shixiang .
OPTICS EXPRESS, 2011, 19 (09) :8557-8564
[4]   Variable ultrabroadband and narrowband composite polarization retarders [J].
Peters, Thorsten ;
Ivanov, Svetoslav S. ;
Englisch, Daniel ;
Rangelov, Andon A. ;
Vitanov, Nikolay V. ;
Halfmann, Thomas .
APPLIED OPTICS, 2012, 51 (31) :7466-7474
[5]   A revised Michel-Levy interference colour chart based on first-principles calculations [J].
Sorensen, Bjorn Eske .
EUROPEAN JOURNAL OF MINERALOGY, 2013, 25 (01) :5-10
[6]  
Yunoki Akiko, Japanese Journal of Applied Physics, V33