Runs were defined as the sum of consecutive displacements >22 nm in one direction (i.e., before termination by pausing, reversal, RNP detachment, or the end of imaging).
Most of the step-inducing optogenetic stimulations (114, n = 3 mice) resulted in four distinct limb movements in succession (78.1%, 89/114; as opposed to 12.3% and 9.6% for three and two consecutive displacements, respectively).
Considering the stimulations with four consecutive displacements, two particular sequences of displacements occurred in a predominant fashion: LF-RH-RF-LH (36.0%, 32/89) and RF-LH-LF-RH (20.2%, 18/89) (L, R, F, and H indicate left, right, front, and hind limb, respectively).
The following test phase consisted of six consecutive translation sequences simulating a backward translation corresponding to the preferred direction of the H1 cell, i.e. retinal image displacement from back to front.
The key property of this beam element, named LRZ [1], is the possibility to capture the relative displacement between consecutive layers which occurs during delamination.
The ability to capture the relative displacement between consecutive layers in fracture mode II and III is the more important advantage of this element, denoted QLRZ [1].
Shape Matching and Complex Fourier Descriptors analyses were used to track tag displacement through consecutive frames in a 7-day experiment under monochromatic blue light (480 nm)–darkness conditions.
The samples were loaded in axial compression with ten cycles in the elastic range followed by compression until 5 mm displacement and consecutive unloading.
In addition to average speed, the distance of target displacement between consecutive refreshes of the screen as it moves may also be important in influencing the outcomes of motion-detection mechanisms, as outlined in previous work with humans [ 40].
