Besides, simulation and physical models are applied to prove that configurations of the obtained tensegrity structures are stable and the axially-connecting method is available.
The physical model is applied to fit the temperature of tens of different radial slices, allowing us to constrain the combined emissivity and albedo, thermal relaxation time and anisotropy parameters of the ring slabs with the highest radial resolution achieved so far with CIRS.
In order to assess the applied techniques in relation to traditional models, stream power-based and shear stress-based physical models were also applied in the studied case.
Their common feature is the accurate detection of key regions of interest where available force physical models may be applied for quantitative interpretation of the data.
Surprisingly, the majority of analytical methods used are still very similar to the early methods, even though modern physical models have been applied to explain how complex systems might interact and how such interaction manifests itself in recorded data.
There we have various models such as the harmonic oscillator and hypotheses about how these models apply to idealized physical systems, including specifications of spring constants and their identification with mathematical terms in a model, small oscillation limits, and so forth.
In spite of the restrictions applied to the physical model, the technique applied showed very good stability and repeatability during the entire measurement campaign producing a reliable data set for the validation of the microscale numerical models.
