Theoretical analysis uncovers unified melting temperature pressure scaling across hard and soft matter, indicating the universal role of intermolecular interaction strength.
This report focuses on cognitive gaps of the pressure dependence of melting temperature, presenting: (i) a coherent discussion on Tm(P) behavior for both ‘Hard Matter’ (‘standard’ solid state) and Soft Matter systems, to reveal the importance of the strength of intermolecular interactions; (ii) a model picture linking systems with dTm/dP>0, dTm/dP<0, and the TmP curve maximum, which also shows the relevance of the negative-pressure domain; and (iii) the ultimate validation test of the recent ‘universal’ parabolic scaling of Pm(T) against empirical data. The evidence for ‘Hard Matter’ focuses on systems relevant to the semiconductor industry: silicon, germanium, and gallium nitride. For Soft Matter, these include unique polymeric systems and liquid-crystalline pentylcyanobiphenyl (5CB). For the latter, symmetry-selected melting/freezing takes place. Finally, the report presents the specific case of graphite and diamond. The report also presents an innovative solution for melting-temperature and pressure detection.
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Drozd-Rzoska et al. (2026) studied this question.
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