Sentence examples for decomposition profile from inspiring English sources

The catalytic decomposition profile of methylene blue by birnessite nanorods was tested.

No significant improvement in the thermal decomposition profile was observed for the IPN compared to the respective homonetworks.

Peak deconvolution of the [Zn(dipya)(ipht)]n decomposition profile, in the form of a derivative thermogram (DTG), in nitrogen atmosphere, revealed the presence of three decomposition steps, while in air five single steps were isolated.

Thermogravimetric analysis (TGA) and differential thermal analysis (DTA) were used to understand the decomposition profile of the precursors and to select pyrolysis temperatures located in regions of thermal stability.

Thermal analysis curves revealed decomposition profile of pure CA occurred at 217°C (99.2%) in one step while decomposition of ZCA intercalation compound occurred in two steps, the first one is at around 137°C (weight loss of 13.2%) and the second step is at around 358°C (weight loss of 38.8%).

Two different, commercially-important epoxy resins, tetraglycidyl methylene dianiline (TGDDM) and diglycidyl ether of bisphenol A (DGEBA) have been cured separately with diethyl toluene diamine (DETDA) and bis(4-aminophenoxy)phenyl 4-aminophenoxy phenyld their relative combustion performance has been examined and discussed in terms of their decomposition profile.

The CH4 temperature-programmed decomposition profiles showed that the ignited decomposition temperatures of CH4 increased from 273 to 378 °C when MgAl2O4 replaced the catalyst support γ-Al2O3.

On the other hand, the bimetallic formulation (i.e., CoMo + CA/Al2O3) showed fairly comparable thermal decomposition profiles (i.e., TGA and DSC) that Mo + CA/Al2O3 sample despite the presence of Co cation.

The difference in the decomposition profiles for the two cigarettes investigated could be mainly due to the ingredients added during cigarette manufacture and the different growing conditions of tobacco used in cigarette processing [5].

For the first time, in-situ measurements of catalyst particle size distributions coupled with reactant decomposition profiles and a detailed axial SEM study of formed CNT materials reveal specific domains that have important implications for scale-up.

Formulations containing a high proportion of an ingredient(s) could dominate the thermal decomposition profiles, such as fatty acids in Manek, humic acids, algal extracts, plant peptides and amino acids in Rygex and Ecoryg, and amino acids, plant and algal extracts in Algavyt, Algavyt Zn/Mn and Ryzoset (Table 1; Figs. 2, 3).