ML-based q-RASPR provides better predictions than QSPR for the performance and stability parameters of energetic materials (EMs).
This work demonstrates the synthesis, characterization, and energetic properties’ evaluation of polynitro-functionalized 4-phenyl-1H-pyrazole-based heat-resistant explosives.
The unique type of molecular architectures with a remarkable initiation ability and enhanced stability is proposed. The relationship between the structure and sensitivity of Cu(N3)2-based primary explosive is revealed.
We elucidate the coalescence mechanisms of miscible binary nanoparticles based on their nanophase diagrams to inspire their tailored gas-phase synthesis.
A family of new asymmetric N-methylene-C linked nitropyrazoles and 1,2,4-triazol-3-one based thermally stable energetic materials with reduced sensitivity has been synthesized. Background image via Canva.