Micromagnetic modeling is a powerful tool for understanding the magnetization processes in magnetic films and thin film devices, thereby providing guidelines to material microstructure engineering and device design.
With the development of portable electronics, integrated graphene microstructures and devices have attracted increasing attention due to their environment-benign, lightweight feature with small occupied area.
Device annealing has recently been proven to optimize the blend microstructure and improve the device efficiency.
This work supports the current growth model: a small amount of Cu excess during the absorber process is required to obtain a quality microstructure and high performance devices.
The microstructure and performance of MgSr devices, in vitro degradation and biological properties including in vitro cytocompatibility and osteoinductivity were investigated.
Microscopic inspection and measurement becomes essential for small critical dimensions in modern products such as integrated circuits, materials microstructure and the other micro-devices, therefore it has been widely used in many applications.
It starts with an introduction and then explains the concept of spintronics and multistates logics and finally correlates the microstructure with device properties.
Dependence of the clustering factor on temperature, voltage, device area, dielectric microstructure and resistance state has also been examined.
We integrate a graph-based microstructure characterization tool, and a microstructure-aware device simulator into the MapReduce workflow to automatically generate, explore and identify highly correlated microstructural traits.
A number of polydimethylsiloxane (PDMS) microfluidic devices have been developed and widely used, while PDMS based microstructure device does not support long-term stability and repeated use, moreover it requires special facilities for fabrication and plasma bonding.
