Sentence examples for mass loss temperature from inspiring English sources

Thermal gravimetric analysis (TGA) indicated that the lower mass loss temperature values were found for small size particles and particles with crystalline structure.

Also, there are obvious differences among SARA fractions in combustion temperature range, maximum thermal mass loss temperature, mass loss percentage and mass loss rate in each combustion stage.

Well-dispersed CB particles improve LDPE and PP thermo-oxidative stability as shown by thermogravimetric analysis (∼5 20 °C increase in 20% mass loss temperature in air with 15 20 wt% CB addition) and isothermal shear flow rheology.

The incorporation of chemically exfoliated MoS2 significantly enhanced the thermal stability and mechanical properties of WPU film: with the incorporation of 4 wt% of c-MoS2, the 5% mass loss temperature of WPU nanocomposite film was increased by 30 °C relative to neat WPU; the tensile strength and Young's modulus were increased by 140% and 85%, respectively.

The fastest mass loss temperature was 336 °C, confirming a high heat-resistance ability of ADM.

Table 3 summarizes TGA analysis of the first derivative peak temperature (T peak), onset peak temperatures, 50% mass loss temperature, % mass change between 300 and 600 °C, and % residue of nanofibers weight loss.

Mass loss, temperatures, and char fractions were measured.

These polymers showed that the glass transition temperatures were between 230 and 265 °C, and the 10% mass loss temperatures were higher than 460 °C in nitrogen atmosphere.

Thermogravimetric analyses demonstrated that almost all polymers were stable up to 450°C, and the 10% mass loss temperatures were recorded in the range 488 534°C in nitrogen.

However, hydrogenated diblock copolymers showed better thermal stability than unhydrogenated diblock copolymers, and 10% mass loss temperatures were recorded in the range 375 396°C in air and 415 428°C in nitrogen.

This is indorsed by comparing 50% mass loss temperatures (T50% mass loss) of the PAAm/starch nanofibers, cross-linked PAAm/starch nanofibers, and immobilized phytase on the PAAm/starch nanofibers, which are 348, 500, and 411 °C, respectively.