Abstract
Background: In recent years, the ultimate goal has been to learn how to select ionic liquids specifically for materialistic or molecular level applications of these neoteric materials. Progress has been initiated, but much more is needed to optimize the full potential of ionic liquids in every aspect of modern-day science.
Methods: A number of engineering parameters need to be determined for the challenging flourishing of ionic liquids in sustainable commercial applications.
Results & Discussion: In particular, the general absence of specific heat capacity (Cp) data is a substantial obstacle to the design of chemical reactors and heat transfer systems if any ionic liquid-based processes are to be developed beyond the laboratory scale. The specific heat capacities of ionic liquids and their mixtures have significant importance in chemical engineering work, accompanying the design and operation of reactors and heat-related operations required for the commercialization of ionic liquids and technologies associated with them.
Conclusion: In this work, thermal profiles of the surfactant or sponge ionic liquids have been explored very aptly to measure the specific heat capacity (Cp) of the pyridinium cation- based surfactant or sponge ionic liquids.
Keywords: Thermal stability, pyridinium cation, surfactant ionic liquids, heat capacity neoteric materials, ion-rich media.
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