The phrase "adaptive fiber" is correct and usable in written English.
It can be used in contexts related to materials science, textiles, or technology, where the fiber is designed to adjust or respond to different conditions or stimuli.
Example: "The new sportswear line features adaptive fiber that changes its properties based on temperature and humidity, providing optimal comfort for athletes."
Alternatives: "responsive fiber" or "flexible fiber".
Using structurally integrated actuators, single-axis and joint free adaptive fiber reinforced plastic components can be realized.
The maximum deformation and the deformation speed on the heating as well as on the cooling cycle strongly depend on the hinge width of adaptive fiber reinforced plastics and the meander distance of the hybrid yarn embedded in it.
In this study, an adaptive fiber tracking approach is implemented for this purpose.
A clear advantage of the adaptive fiber tracking is that the tracking efficiency may be greatly enhanced since much fewer repeated trials are needed.
While probabilistic or adaptive fiber tractography offers a viable solution for such a situation, to date it is still not fully certain that it yields a true picture of structural connectivity between gray matter regions, particularly in a quantitative manner.
Functional connectivity was measured by low frequency inter-regional correlations of BOLD MRI signals acquired in a resting steady-state, and structural connectivity was measured by using adaptive fiber tracking with diffusion tensor MRI data.
In this work, the development of adaptive pleated fiber reinforced plastics based on shape memory alloys is reported.
This paper presents the development of adaptive hinged fiber reinforced plastics based on structurally integrated shape memory alloys.
The deformation behavior of the adaptive pleated fiber reinforced plastics predominantly depends on the pleat height and spacing between two pleats.
Additionally, the deformation behavior of adaptive hinged fiber reinforced plastics is tested and results are evaluated with regard to quasi-static and dynamic aspects.
Choi, S. S., Zawadzki, R. J., Greiner, M. A., Werner, J. S. & Keltner, J. L. Fourier-domain optical coherence tomography and adaptive optics reveal nerve fiber layer loss and photoreceptor changes in a patient with optic nerve drusen.
