Peg phase change energy storage capacity

Can Peg be used as phase change materials for thermal energy applications?

The thermal properties and thermodynamic data obtained in this work would be technically necessary and important for theoretically studying and actually using PEG as phase change materials for thermal energy applications.

What is thermal energy storage using phase change materials (PCMs)?

Recently, the technique of thermal energy storage using phase change materials (PCMs) has intrigued a great deal of interests due to the PCMs are capable of storing/releasing thermal energy during the phase transition process at almost constant temperatures with the involved latent heats absorbed/released.

What is the heat storage capacity of Peg?

In the infrared thermography of ( Fig. 11 c), the heat storage capacity of the DW after adding 1.5 g PRP f (9.5) at room temperature was tested. The heat storage capacity of PEG can be maintained for about 20 min at its liquid–solid phase change temperature, which is 4 times higher than DW.

Does peg adsorb after a thermal cycle?

SEM and TEM results proved that PEG was well adsorbed even after the thermal cycle. The excellent chemical compatibility, thermal stability and durability of the ss-PCC were also beneficial for thermal energy storage applications such as building energy conservation and domestic hot water and heating systems.

Do GNS/peg composites have high thermal energy storage capacities?

The phase change enthalpies of GNS/PEG and Ag–GNS/PEG reach over 166.1 J/g because of the low content of GNS or Ag–GNS, which are not much different from pure PEG (185.3 J/g). These results indicate Ag–GNS/PEG composites have high thermal energy storage capacities to meet practical application requirements.

Does peg perform reversible phase transition with thermal management?

Moreover, the C es of the two composites exceeded 99%, indicating that PEG (greater than 99%) in both composites effectively performs the reversible phase transition with thermal management. Fig. 7. DSC curves of heating (a) and crystallization (b) of PEG, PP f (9.0), and PRP f (9.5).