Noble H D, Chipman R A
College of Optical Sciences, University of Arizona, Tucson, Arizona 85721, USA.
Opt Express. 2012 Jan 2;20(1):17-31. doi: 10.1364/OE.20.000017.
Recently, an order-independent Mueller matrix decomposition was proposed in an effort to elucidate the nine depolarization degrees of freedom [Handbook of Optics, Vol. 1 of Mueller Matrices (2009)]. This paper addresses the critical computational issues involved in applying this Mueller matrix roots decomposition, along with a review of the principal matrix root and common methods for its calculation. The calculation of the pth matrix root is optimized around p = 10(5) for a 53 digit binary double precision calculation. A matrix roots algorithm is provided which incorporates these computational results. It is applied to a statistically significant number of randomly generated physical Mueller matrices in order to gain insight on the typical ranges of the depolarizing Matrix roots parameters. Computational techniques are proposed which allow singular Mueller matrices and Mueller matrices with a half-wave of retardance to be evaluated with the matrix roots decomposition.
最近,为了阐明九个去极化自由度,人们提出了一种与顺序无关的穆勒矩阵分解方法[《光学手册》,穆勒矩阵第1卷(2009年)]。本文讨论了应用这种穆勒矩阵根分解所涉及的关键计算问题,并回顾了主矩阵根及其常用计算方法。对于53位二进制双精度计算,第p个矩阵根的计算在p = 10(5)附近进行了优化。提供了一种包含这些计算结果的矩阵根算法。该算法应用于大量具有统计意义的随机生成的物理穆勒矩阵,以便深入了解去极化矩阵根参数的典型范围。还提出了计算技术,允许使用矩阵根分解来评估奇异穆勒矩阵和具有半波延迟的穆勒矩阵。