Thermal nano wonders: Differential scanning calorimetry’s deep dive into nanomaterials

Conducted through Differential Scanning Calorimetry (DSC), this contribution endeavors to explore the intricate thermal characteristics of nanoscale composites to identify their thermal profile.The specific thermal properties and the compositional percent of the materials like nanotubes, nanoparticles, nanowires, and nanofibers were analyzed profusely.C tip nanotubes were found to be the component in the highest proportion with an overall percentage of 65 %, while nanofibers had a proportion of 55 % nanoparticles had an overall proportion of 30 %, and nanowires 45 % according to the research conducted.Hence, in terms of thermal conductivity, the compared material ranked in the order: nanotubes: 300 W/mK nanowires: 250 W/mK nanoparticles: 200 W/mK and nanofibers: 180 W/mK.Based on the information derived from the melting point investigation, the four common nanomaterials are nanotubes, nanowires, nanoparticles and nanofibers with melting points of 1500C, 1300C, 1200C, and 1100C respectively.Consequently, heat capacities were estimated to be 800 J/kgK for the nanotubes, while the nanowires had a heat capacity of 700 J/kg K, the nanoparticles had a heat capacity of 600 J/kg K and the nanofibers had a heat capacity of 500 J/kg K.The results presented and discussed here underscore the compositional, thermal, melting point, and heat capacity dominance of nanotubes that has familiarized researchers with the significant thermal divergences of nanomaterials.This study reveals the utility of Differential Scanning Calorimetry in determining the numerous thermal characteristics of nanomaterials and thereby contributes to the advancement of enhanced thermal energy storage, new efficient thermal control systems, and high-temperature applications.