The method developed resulted in enhancement of the detection sensitivity and reduction of interference from sample matrix in complicated samples and exhibited the potential application for routine analysis, especially in food, because a relatively complete process of sample treatment and analysis was described.
Often, to verify the protocol or method developed, microscale results are compared with macroscopic results.
Solution chemistry methods were developed, resulting in the controllable formation of complexes [(bath)2Eu2(piv)6]·2EtOH (1a·2EtOH), [(bath)2Eu2(piv)6]·1.5EtOH (1b·1.5EtOH), and [(bath)2Eu2(piv)6]·0.75H2O (1c·0.75H2O), where piv is (CH3 3CCO2− and bath is 4,7-diphenyl-1,10-phenanthroline.
This phase includes the methods that Galileo developed, resulting in a physics that challenged Aristotle's.
In order to assess the accuracy of the analytical method developed, its predicted results are verified using the data obtained from experiments and a design code specially used for cold-formed steel structural members.
In the rest of this article, we apply the systematic comparison method developed in the Results section to two examples of biological importance: enzyme-facilitated catalysis of substrate into product by cooperative and non-cooperative mechanisms and a genetic network with a negative feedback loop.
The results support the use of Eurocode 3 criterion instead of ISO, and this is confirmed by the analysis of a varied set of welded layouts using the former in a general numerical method developed previously, which gives results that show a very reasonable agreement with experimental results found in the bibliography.
In particular, we compare in detail the simulation results of a three-phase capillary wave problem with Prosperetti's exact physical solution and demonstrate that the method developed herein produces physically accurate results.
The resulting method developed for cleaning the arsenopyrite surface was verified through XPS, particle size distribution analysis, and scanning electron microscopy - energy dispersive X-ray spectroscopy (SEM-EDS).
The planar image-based method developed in this study resulted in similar absorbed doses to the bone marrow as reported in earlier studies with blood-based bone marrow dosimetry.
