Showing 141 - 160 results of 15,969 for search '(( algorithm a function ) OR ((( algorithm python function ) OR ( algorithm reduced function ))))*', query time: 0.65s Refine Results
  1. 141

    Loss function variation curve. by Chunhua Yang (346871)

    Published 2025
    “…<div><p>This study proposes the S-YOLOv10-ASI algorithm to improve the accuracy of tea identification and harvesting by robots, integrating a slice-assisted super-reasoning technique. …”
  2. 142
  3. 143

    Optimization results of different algorithms. by Haijian Wang (746739)

    Published 2024
    “…<div><p>An Aquila optimizer-back propagation (AO-BP) neural network was used to establish an approximate model of the relationship between the design variables and the optimization objective to improve elevator block brake capabilities and achieve a lightweight brake design. Subsequently, the constraint conditions and objective functions were determined. …”
  4. 144

    The structure of a speed reducer. by Yanzhao Gu (21192659)

    Published 2025
    “…The experimental results showed that GWOA achieved better convergence speed and solution accuracy than other algorithms in most test functions, especially in multimodal and compositional optimization problems, with an Overall Efficiency (OE) value of 74.46%. …”
  5. 145

    Simulation settings of rMAPPO algorithm. by Jianbin Zheng (587000)

    Published 2025
    “…In response to the multi-agent system of the H-beam riveting and welding work cell, a recurrent multi-agent proximal policy optimization algorithm (rMAPPO) is proposed to address the multi-agent scheduling problem in the H-beam processing. …”
  6. 146

    Model optimization flow by MFO algorithm. by Ruoqi Wang (14958062)

    Published 2023
    “…The non-loading and unloading time of yard bridge 2 is 3.2min, and the operating box volume is 25 boxes. The objective function of the genetic algorithm converges when it iterates to generation 903 and 107.9min. …”
  7. 147

    Benchmark test function results. by Ruyi Dong (9038174)

    Published 2025
    “…Moreover, the experimental results obtained by LLSKSO yielded smaller line densities and greater strengths compared to other algorithms. LLSKSO achieves theoretical optima in 16 out of 20 high-dimensional benchmark functions, with an average CPU runtime reduced by 30% compared to baseline methods. …”
  8. 148
  9. 149
  10. 150
  11. 151
  12. 152
  13. 153

    A detailed process of iterative simulation coupled with bone density algorithm; (a) a function of stimulus and related bone density changes, and (b) iterative calculations of finite element analysis coupled with user’s subroutine for changes in bone density. by Hassan Mehboob (8960273)

    Published 2025
    “…<p>A detailed process of iterative simulation coupled with bone density algorithm; (a) a function of stimulus and related bone density changes, and (b) iterative calculations of finite element analysis coupled with user’s subroutine for changes in bone density.…”
  14. 154
  15. 155

    Parameter sets of the chosen algorithms. by WanRu Zhao (18980374)

    Published 2024
    “…However, reducing the maximum sidelobe level (SLL) of the beam pattern is a crucial challenge in antenna arrays. …”
  16. 156

    The flow chart of IERWHO algorithm. by WanRu Zhao (18980374)

    Published 2024
    “…However, reducing the maximum sidelobe level (SLL) of the beam pattern is a crucial challenge in antenna arrays. …”
  17. 157

    The flow chart of WHO algorithm. by WanRu Zhao (18980374)

    Published 2024
    “…However, reducing the maximum sidelobe level (SLL) of the beam pattern is a crucial challenge in antenna arrays. …”
  18. 158

    Comparative experimental data of loss functions. by Huiying Zhang (200681)

    Published 2025
    “…Additionally, three innovative loss functions—focalerDIoU, focalerGIOU and focalerShapeIoU are proposed to reduce losses during the training process. …”
  19. 159
  20. 160

    Compare algorithm parameter settings. by Yuqi Xiong (12343771)

    Published 2025
    “…The algorithm integrates three key strategies: a precise population elimination strategy, which optimizes the population structure by eliminating individuals with low fitness and intelligently generating new ones; a lens imaging-based opposition learning strategy, which expands the exploration of the solution space through reflection and scaling to reduce the risk of local optima; and a boundary control strategy based on the best individual, which effectively constrains the search range to avoid inefficient searches and premature convergence. …”