This technique allows multiple modes to be controlled with a single actuator.
Crystallographic orientations, measured through EBSD, allow three different twinning modes to be identified.
By specifying the axial wavenumberk, the eigenproblem permits real frequencies of propagating modes to be determined.
The number of modes to be controlled is decided according to total modal mass participation being ninety percent.
These images allow a computer modes to be constructed that simulates the material behavior, which in turn allows the design of improved materials.
The method suggested allows the spatial modes to be determined basing on results registered at selected points in the pipe.
The percentage of participation from each linear mode determines the number of modes to be included for accurate frequency results.
A technique that determines good locations for the sensors and actuators, based on the modes to be controlled, is employed.
The Willow Garage researchers, which included Leila Takayama, who we named a TR35 winner this year for her work on human-robot interaction, found the two modes to be most efficient the least likely to result in mistakes.
Here, we implement a novel non-destructive technique that allows the evolution in amplitude and phase of frequency modes to be reconstructed via post-processing of the fibre backscattered light.
Thermodynamic considerations enabled the delineation of the binding modes to be hydrogen bonding (AZ-01 and -03), electrostatic interactions (AZ-03) and hydrophobic bonding (AZ-04).
