The natural heterogeneity and geometric irregularity of bamboo limit its structural reliability in construction. This paper presents a Computationally Assisted Fabrication Process (CAFP) that integrates material-informed design, structural simulation, and digital fabrication within an automation-oriented workflow. Ultra-thin laminated bamboo sheets are exploited for their conditional bending capacity, enabling actively bent structures and complex curved shells. To overcome instability observed in prior assemblies, fiberglass reinforcement is incorporated, with mechanical testing confirming substantial improvements in flexural strength. Simulation-driven optimization further reduces stress utilization from 36.4% to 5.5% and maximum displacement from 24.4 cm to 1.43 cm, demonstrating significant gains in stability and efficiency. The workflow systematically links geometry generation, structural evaluation, strip-based mesh segmentation, and parametric joinery design, providing an end-to-end pathway from design to digital construction. By embedding material properties into computational processes, the paper contributes an automation-ready method for reliable and efficient bamboo construction, expanding its potential in architectural practice.
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