A pressure pulse unit was used to perform the ageing experiments in an accelerated way.
Ageing experiments showed that the activity of the catalyst was lost if the catalyst was used above 720 °C, the melting point of the lithium carbonate phase.
The enthalpy loss determined by ageing experiments at Tg−20 K, for times between 1 and 3000 h, allows the calculation of the rate of relaxation per decade (βH) and the non-linearity parameter (x).
A physical aging experiment was performed on a Colombian sample at 65°C.
Finally, due to importance of high-temperature aging of the invert emulsion, an aging experiment was done at 120 °C.
One accelerated aging experiment found light to be the single greatest threat to papyrus (Flieder et al. 2001 [30]).
The heat aging experiment was performed to evaluate the heat-resistant capability of C n HSB under reservoir conditions.
In order to validate the performance of lithium-ion battery, an accelerated aging experiment of the battery is designed.
In the aging experiment, vulcanizates obtained at optimum cure are aged at 70 ± 1 °C in an oven for 1 5 days and provided with forced air circulation.
A statistically designed accelerated aging experiment was conducted to investigate the effects of aging time, temperature, and state-of-charge (SOC) on the performance of lithium-ion cells.
