This work presents a novel interpretation theory based on basic concepts of fracture mechanics and applied to the micro-mechanical analysis of the stress state induced by the instrument on the investigated mortar.
This chapter focuses on the basic concepts of tensegrity mechanics, such as self-stress states and mechanisms.
This chapter covers the basic concepts of quantum mechanics as they apply to nanophotonic structures and devices.
Therefore, the most useful principles are based on data obtained from laboratory testing and in-situ measurements, used in conjunction with the basic concepts of solid mechanics to quantify the behavior of rock in response to various disturbances.
In recent years, synthesis and characterization of II VI semiconductor materials at nano scale has attracted the research community, due to their great potential to examine the basic concepts of quantum mechanics [1, 2] and finding applications in various fields such as solar cells [3, 4, 5], lasers [6, 7], LEDs [8, 9, 10] and biological labeling [11, 12, 13] etc.
In this paper, the basic concepts of continuum damage mechanics are outlined.
Second, the characteristic fracture initiation point can be determined by exploiting the basic concepts of continuum damage mechanics.
This section of the Reference Module in Materials Science and Materials Engineering introduces general basic concepts of toughness and strength of composite materials, the primary mechanics of composite materials, and their processing containing different matrix and different reinforcing elements.
Fig. 4 Basic concepts of topic maps.
