Analyzing objects concerning their static and dynamic change is mostly performed with IMU (Inertial Measurement Units) or GNSS (Global Navigation Satellite System) sensors fixed to a physically defined surface. We can use a total station to record additional data or support other sensors by referencing them to a homogeneous coordinate frame. LiDAR (Light Detection and Ranging) enables simultaneous, contactless, spatially connected, and time-referenced observations recording an object. All sensors share the ability to detect equivalent signal properties concerning different signal-to-noise ratios. Since object deformation is not limited to a fixed position, we must continuously model or interpret the dynamic movement within our processing to get a spatio-temporal understanding. Therefore, LiDAR offers advanced options for understanding the spatio-temporal behavior of an object with a frequency analysis executed in the or time domain. In our work, point clouds are processed in a state-of-the-art time series analysis of discretized locations in the frequency domain. Furthermore, fusing point cloud observations in a time domain approach offers a unique opportunity to analyze the spatio-temporal behavior of objects. This observation-level fusion reduces the number of required processing steps. The resulting parameter model leads to simplification of present periodic signals, yet retaining spatial and temporal consistency and streamlining subsequent interpretation
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Analyzing objects concerning their static and dynamic change is mostly performed with IMU (Inertial Measurement Units) or GNSS (Global Navigation Satellite System) sensors fixed to a physically defined surface. We can use a total station to record additional data or support other sensors by referencing them to a homogeneous coordinate frame. LiDAR (Light Detection and Ranging) enables simultaneous, contactless, spatially connected, and time-referenced observations recording an object. All sensor...
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