In real-time measurements of biological engineering, the characteristics of the embedded outside objects would be obtained by measuring the object's environment in the measurement model.
Quantitative measurements of tissue stiffness can be obtained by measuring the speed of propagating shear waves induced in tissue by acoustic radiation force.
Interestingly, performing the experimental design for two measurements revealed that the largest reduction in variance could be obtained by measuring state one at an early and late time point.
Then the machine is turned on to try to find a solution, which can be obtained by measuring the final output phases of the pulses.
These can be obtained by measuring the magnitudes and phase shifts at several positions on the exciter surface.
Fracture toughness in terms of critical strain energy release rate can be obtained by measuring fracture load only.
The cohesive strength of a washcoat layer can be obtained by measuring the tensile strength of these tablets.
Useful information on this coupling may be obtained by measuring the reflection response of the flame to incident acoustic perturbations.
Thus the relative crystallinity can be obtained by measuring the resistance of the photoresistor from both primary and secondary crystallization.
Precise and accurate information as to the number of atoms in the sample can, however, be obtained by measuring the ratio of the number of atoms in the various separated beams.
Once it has been decided that a target is present and its location (in range and angle) has been determined, the track of the target can be obtained by measuring the target location at different times.
