Research on the Motion Problem of "Bench Dragon" Based on Computer Simulation
DOI:
https://doi.org/10.54097/j1sfwb73Keywords:
Computer Simulation, Dichotomy, L2 - Norm.Abstract
The bench dragon, composed of multiple connected benches, spirals in a manner where the dragon head leads and the body and tail follow in a helical pattern with equal intervals. This paper employs computer simulation technology to construct a mathematical model that simulates the dynamic behavior of the bench dragon. The model aims to accurately predict the position and velocity vectors of each bench unit during the spiraling motion, as well as potential collision phenomena that may occur during the spiraling process. Furthermore, the binary search algorithm is applied to conduct an in-depth analysis of the minimum helix pitch required for the bench dragon to successfully turn under different spiral spacing conditions. Through these studies, the spiral path of the bench dragon has been optimized, enhancing its aesthetic and dynamic efficiency. This motion collision model is not only of significant importance to the performance art of the bench dragon but also applicable to the analysis and optimization of dynamic systems in other fields.
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