Combination of bending strain energy and interfacial energy for the bending-sliding model is pictured green.
The actuator response in bending strain was investigated.
For the 20-layer MoS2, the bending strain energy becomes dominating, and it tends to bend with interlayer sliding.
Consequently, it was found that transverse bending strain can be calculated with the cabling parameters, i.e. former diameter, spiral pitch and tape thickness, and it seems that longitudinal bending strain can also be calculated as well as transverse bending strain.
When bearing bending strain, the excited full bridge strain gauge outputs a voltage directly proportional to the bending strain, hence linear displacement.
The formation of kinks could be understood by the competition between bending strain energy and commensurability effects in interfacial energy on interlayer sliding.
The flexible printed sensor is capable of precisely measuring repetitive tensile and compressive bending strain changes.
The ratios of in-plane and bending strain were calculated to help determine the heating condition.
Results were also compared in terms of the irreversible bending strain.
However, to minimize the bending strain energy a fine mesh is needed.
Additionally, Q was observed to decrease as a linear function of the global bending strain.
