This research provides an in-depth understanding of fundamental fiber-matrix interaction properties and mechanisms, and their consequent effects on crack-bridging and tensile performance of the developed fly ash-based SHGCs.
The crystallization rate, which is a function of both temperature and molecular orientation factor, is evaluated with the equation proposed by Ziabicki [A. Ziabicki, Fundamentals of Fiber Formation, Wiley, New York, 1976].
In this fiber, fundamental mode propagates in an acceptable loss, while the HOMs decay rapidly.
The model field, dispersion, birefringence and confinement loss of the fiber fundamental mode are simulated by full-vector finite element method.
A compendium of results illustrating the effects of plate geometry, aspect ratio, support conditions and lamina stacking sequence on the natural fundamental frequency of fiber reinforced composite plates is presented.
The fundamental frequencies of fiber-reinforced laminated cylindrical shells with a given material system are maximized with respect to fiber orientations by using the golden section method.
The different fundamental failure mechanisms of fiber direction tension, fiber direction compression, and matrix dominated transverse tension and shear are discussed in turn.
This fundamental investigation into how fiber morphology and crosslinking protocols can affect the heparin binding ability of electrospun fibers is crucial for predicting the delivery of many different types of bioactive molecules from an electrospun scaffold for tissue engineering applications.
This led to efficient matching of the fundamental mode of the fiber to that of waveguide.
The fundamental assumption of our fiber segmentation technique is that adjacent voxels in a tract have similar properties of diffusion.
This implies a special focus on the fundamental aspects of vegetal fiber friction at the macro-, meso-, and microscale.
