Computational molecular design (CMD) is a methodology which applies optimization techniques to develop novel lead compounds for a variety of applications.
The proposed model adopts a segment methodology which applies to road segments of at least 3 km [15] or to road segments between two at-grade intersections, so as to face variability of geometric and performance features among road segments.
The aim of this methodology, which applies an overlay and index method involving several parameters, is to evaluate its suitability in the study region, Hervás, Spain, in order to optimally plan for rural building integration within its landscape.
In this paper, we present a new methodology which applies a previously published linear conversion method of raw data to a single below-canopy image to obtain unbiased estimates of canopy gap fraction.
In this paper, a methodology which applies a double prioritization procedure as well as an opportunistic usage of the two possible facets (maximizer/minimizer) of the optimization algorithm known as Hungarian method was proposed as a feasible solution for the 3GPP-LTE uplink or SC-FDMA system.
However, as with all mathematical models, it is important to appreciate the limitations of our methodology, which applies only transmission via the hands of HCWs.
Here, we are presenting those papers which applied the computable general equilibrium model (CGE) as the methodology of the study.
This research outlines the Taguchi optimization methodology, which is applied to optimize cutting parameters in drilling of glass fiber reinforced composite (GFRC) material.
This paper outlines the Taguchi optimization methodology, which is applied to optimize cutting parameters in end milling when machining hardened steel AISI H13 with TiN coated P10 carbide insert tool under semi-finishing and finishing conditions of high speed cutting.
This paper outlines the Taguchi optimization methodology, which is applied to optimize the cutting parameters in face milling when machining AlMg3 (EN AW 5754) with HSS (high speed steel) tool under semi-finishing conditions in order to get the best surface roughness and the minimum power consumption.
