In contrast, as we have seen, when Everett claimed that all branches were equally real, he had something less metaphysical and more empirical in mind, which, in turn, suggests a quite different understanding of branches.
Studies in the Drosophila embryonic trachea have contributed significantly to our understanding of branching morphogenesis.
Although the precise mechanisms are still unclear, our understanding of branching in the mammary gland and elsewhere is rapidly improving.
Mechanistic understanding of branching is largely limited to flowering plants such as Arabidopsis, which have a recent evolutionary origin.
The subject area is interesting and a comparative understanding of branching in seedless and seed plants of value to the field.
This article discusses our current sense and understanding of branching morphogenesis in the context of mammary gland development, with the realization that many of these notions also apply to other areas of development and disease.
Systematic studies on precise ADMET polymers have greatly contributed to a better understanding of how branch identity and its distribution along the polymer backbone affect the thermal/electronic properties, crystallization, molecular dynamics and morphology of different materials.
Development of such a model requires understanding of multiple branches of physics and engineering such as continuum mechanics, thermodynamics, tribology and materials science.
This may aid the understanding of complex branching patterns that result from a plant's genetic behaviour.
Class options allow students to deepen their understanding of all branches of the arts, from architecture to dance, hip hop to sculpture.
