The synergistic analysis of microstructure and micromechanical properties at multi-scale provides valuable information towards the material design of cement-based materials with nanomaterials.
The microstructural characterization of two different NC materials (RT-HPT and HT-HPT) from the micrometer to atomic scale provides an accessible pathway for understanding their multi-strengthening mechanisms.
The system supports the development of multi modal and multi scale models by providing a collection of objects that enable the creation of a transport infrastructure and its environment at multiple levels of detail.
This multi-modal, multi-scale approach provides the simultaneous breadth of coverage and spatio-temporal resolution required to determine neural computations at the speed-of-thought.
The results show that the multi-scale method provides stable and accurate results and matches very well the analytical solution.
The proposed multi-scale method provides an effective way for the design of complex segmental tunnel models applied in shaking table tests.
The proposed 3D multi-scale model provides a new tool for investigating the behaviors of CSC in CSC-initiated tumors, which enables scientists to investigate and generate testable hypotheses about CSCs in tumor development and drug response under different microenvironments and drug perturbations.
Numerical studies show that the proposed multi-loop multi-scale controllers provide improved nominal performance and performance robustness over some well-established multi-loop PID controller schemes.
The design guidelines for the design of multi-scale fins provided after optimizations, can be useful in the design of variant cooling devices in practical engineering applications.
The current applied multi-scale models provide an efficient approach to predict the CTEs of 3D textile materials, which will give some highlights for thermodynamic analysis and structures design of the C/C composite.
Furthermore, the design of specific multi scale surface topographies on titanium alloys can provide a fast osseointegration.
