BSIM3 is a physical MOSFET model with extensive built-in dependencies of important dimensional and processing parameters such as channel length, width, gate oxide thickness, junction depth, substrate doping concentration, and so on.
Processing parameters such as temperature, which control glass viscosity, and flow rate, layer height and feed rate, can thus be adjusted to tailor printing to the desired component, its shape and its properties.
The effects of processing parameters such as sonication on the degree of achievable alignment as well as its implications are also discussed.
In this study, effects of processing parameters such as spacer powder size and amount on compaction, sintering and final structural properties were investigated.
The effects of processing parameters such as intercritical annealing temperature and time on the microstructural evaluations, mechanical properties, strain hardening behaviors and fracture mechanisms have been studied.
The machined surface integrity have been analysed as a function of processing parameters, such as feed rate, cutting speed, depth of cut and cutting tool geometry.
Computer simulation of the electrochemical cells is an effective tool for the visualization of processing parameters such as the potential distribution, current density, and concentration profile.
SEM images showed that the fiber diameter and the nanostructured morphology depended on processing parameters such as solution viscosity (e.g. concentration and polymer molecular weight), applied electric field strength, solution feeding rate and ionic salt addition.
The proposed framework establishes a physical connection from processing parameters such as media size, velocity and peening coverage to the resultant structure, opening the possibility of designing a severe surface peening process to achieve a desired nanostructure.
The hydrostatic strain coefficient (dh), voltage coefficients (gh) and longitudinal piezoelectric coefficient (d33) of porous piezoelectric materials has a strong dependence on processing parameters such as porosity parameter, polymer percentage, density and poling voltage.
Distinct changes in film morphology, from continuous surface coating to open porous format, were achieved by variation of processing parameters such as collagen:PCL ratio and the weight of the starting lyophilised collagen mat.
