The Fe/H3PO4 system is a new electrochemical oscillator displaying a rich dynamical response on varying several controllable parameters such as the phosphoric acid concentration (CH3PO4), the Fe-disc rotation speed and the applied potential (E).
A geometrically nonlinear finite element (FE) model based on large rotation shell theory is developed for static and dynamic analysis of piezoelectric integrated thin-walled structures with cross-ply or angle-ply laminates.
The large rotation piezoelectric coupled FE model is validated by one static benchmark problem and afterwards applied to the static and dynamic analysis of piezoelectric integrated smart plates and shells composed of cross-ply or angle-ply laminates.
Perturbation experiments on the Fe|n M H2SO4 system were conducted through the: (a) insertion of a series external resistance, (b) rotation of the Fe-disc electrode, (c) injection of various chemical species on the Fe surface and (d) change of the position of the Fe electrode.
The three-axis motion consisted of flexion extension (FE), anterior posterior translation (APT) and inward outward rotation (IOR).
The motions included in the simulator were flexion extension (FE), anterior posterior translation (APT) and inward outward rotation (IOR).
The X-ray measurements were conducted on single crystal specimens exposed to Fe Kα-radiation in RCW-86 rotation chamber.
Moments (±7.5 Nm) were applied in flexion-extension (FE), lateral bending (LB) and axial rotation (AR) at 1Hz for total 10000 cycles in MTS Bionix.
Among the fifteen (15) multisegmental investigations implementing more than one protocol, the one combining (a) 0 N of preload during FE, lateral bending (LB) and axial rotation (AR) and (b) some follower preload during FE [ 34, 47– 49, 62] was frequently seen.
