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February 22, 2026Applied Sciences0 citationsOpen Access

Strategy-Enhanced Differential Evolution for Suppressing Wide-Range Angular Measurement Errors in Differential Wavefront Sensing

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YLY. LiCFC. D. FuHZHongming Zhang

Key Points

  • To develop an improved algorithm for enhancing precision in measuring angular errors during differential wavefront sensing.
  • Proposed Bi-inheritance and Tournament-Selection-based Differential Evolution (BiTsDE) algorithm
  • Introduced fitness-guided inheritance of mutation and crossover factors
  • Employed tournament-based elite parent selection for better strategy optimization
  • Conducted simulations and experiments to test angular resolution and error reduction
  • Achieved angular resolution better than 0.06 nrad within ±1 mrad
  • Reduced demodulation error by 99.9% compared to linear DWS up to 600 μrad
  • Provided 17.9 nrad precision and 42% faster convergence than conventional methods

Abstract

Differential wavefront sensing (DWS) is widely adopted for high-precision angular detection in interferometric systems, yet its measurement range is constrained by the nonlinear implicit phase–angle relationship. This paper proposes a strategy-enhanced differential evolution algorithm, termed Bi-inheritance and Tournament-Selection-based Differential Evolution (BiTsDE), to suppress nonlinear angular errors. The method introduces fitness-guided inheritance of mutation and crossover factors and tournament-based elite parent selection, enabling adaptive balance between global exploration and local exploitation. Unlike conventional DE variants that mainly tune control parameters, BiTsDE optimizes the evolutionary search strategy, enhancing early-stage diversity and late-stage convergence stability. Simulations demonstrate angular resolution better than 0.06 nrad within ±1 mrad. Experiments show that up to 600 μrad, BiTsDE reduces demodulation error by 99.9% compared with linear DWS, achieving 17.9 nrad precision and 42% faster convergence. These results validate BiTsDE as an effective solution for nonlinear error suppression in DWS-based high-precision optical metrology, particularly for space-based gravitational wave detection.

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Cite This Study

Li et al. (2026) studied this question.

synapsesocial.com/papers/699a9d8e482488d673cd37d9https://doi.org/10.3390/app16042064
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