In step 5 above (rotating the cord using your fingertips while coiling) if during the coiling process the rotation of the cord is done in alternating directions (for example, rotating the cord with fingertips first counter-clockwise, then clockwise, then counter-clockwise, then clockwise, etc).
To map the two outlooks, a process of rotation and translation is performed to match the source to the target.
But influenced by nanoparticles in the lower layer, in compression process the rotation of nanoparticles is restrained.
These results have been taken as evidence of a continuous process of rotation and have generated competing hypotheses.
Also, it has been observed that workers often add motions during the insertion process, including rotation and oscillation.
In successive steps of the OMR process, the rotation of portions of each single staff is checked and corrected using the technique described here.
In FSW process, simultaneous rotation, and translation of the tool associated with severe plastic deformation of material around the tool pin brings challenges in measurement of torque and forces experienced during welding.
Due to the cutting process, a rotation of the shearing direction by 90° is also introduced.
However, when considering molecular dynamics and rf irradiation, as is the case in R1ρ RD experiments, the various time-dependent processes (sample rotation, rf irradiation, and conformational exchange) may interfere, leading to different decay processes.
A simple anisotropic magnetoresistive (AMR) sensor for linear positioning is designed as integrated bridge structure and implemented based on standard technology processes and rotation of the initial anisotropy axis after the patterning of the resistors.
