The differential scanning calorimeter analysis (DSC) of psyllium and that of Psy-g-PMA were carried out with DSC instrument (Model: Q 10 V9.4 Build 287 Universal).
DSC of the 3D printed struts was also analyzed to assess changes in thermal properties due to FFF.
The primary thermal parameters (crystallization and melting temperatures) obtained from the DSC of the symmetrical molecules correspond well with the carbon numbers of the JLEs.
Differential thermal analysis (DTA) and differential scanning calorimetry (DSC) of the minute samples in the range of microgram to nanogram were studied using original cantilever-type calorimeters.
The DSC of poly DT 12,10) shows multiple thermal events indicative of a more complex internal structure.
DSC of copolymers run in air atmosphere, at a heating rate of 10°C min−1, shows a broader exotherm compared to homopolymer.
Dynamic DSC of diallyl orthophthalate (DAOP) showed a strong correlation between the cure rate and the half life temperature of the initiator employed.
DSC of the ring-opening copolymerizations showed that the copolymerization behavior – in terms of polymerization onset temperature and total exothermic transition – depend greatly on the composition of the monomer feed.
Thermal analysis (DSC) of all membranes showed dual melting peaks at low heating rates (≤5 °C/min), suggesting that the crystallites formed in the immersion precipitation process were imperfect and they underwent re-crystallization during the heating process.
Dice similarity coefficient (DSC) of 81.27 ± 6.27% in validation, which significantly outperforms both a previous state-of-the art method and a preliminary version of this work that report DSCs of 71.80 ± 10.70% and 78.01 ± 8.20%, respectively, using the same dataset.
This assumption was investigated by comparing thermal behaviors (measured by differential scanning calorimetry, DSC) of parylene C coatings before and after the following specific surface treatment, i.e., (i) first parylene C coating incubation with TEOS followed by (ii) SNP formation and growth from such a TEOS-modified coating surface.
