Computed laminography (CL) overcomes the dual limitations of X-ray energy constraints and mechanical structural restrictions inherent in computed tomography (CT), enabling high-resolution nondestructive imaging of plate-like objects. Nevertheless, existing CL imaging systems are constrained to single scanning modes, failing to meet diverse application requirements or support research on relevant CL theory and reconstruction algorithms. To address these challenges, we design a mode-switchable CL system (MSCL) that seamlessly transitions between multiple scanning configurations and can achieve various scanning trajectories, including circular, linear, and composite trajectories. This system achieves theoretical detail resolution at the micrometer (μm) level. Meanwhile, a software tool “CLRecTool” is created to process the projection data of different CL scanning modes collected using the TIGRE toolbox, achieving CL image reconstruction. Simulation and actual experiments evaluate the effects of scanning trajectories and reconstruction algorithms on imaging quality. This versatility and scalability establish MSCL as a critical experimental platform for advancing CL imaging theory and algorithm development, while accelerating CL technology's adoption in multi-scenario industrial applications.
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