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Context <p>In this study, the effect of external electric field (EEF) on three kinds of high nitrogen heterocyclic compounds with different ring structures (<b>PA-1 ~ 3</b>, oxadiazole, triazole, and tetrazole) was investigated by quantum chemical calculation. By using B3LYP/6-311G + (d, p) theory and Laplace bond order (LBO) analysis, the trigger bond was determined, and further EEF was applied along the <i>X</i>/<i>Y</i>/<i>Z</i> axis (0–0.02 a.u.) to study its effects on molecular structure, electron distribution, and DOS. The results show that EEF in different directions has a significant effect on charge transfer and intermolecular interaction, which provides a theoretical basis for regulating energy output and thermal stability. This work highlights the potential of computational strategies in the design of energetic materials with controllable properties, and builds a bridge between theoretical prediction and practical application in high-energy systems.</p> Methods <p>The Gaussian 16 software has been chosen for simulation and computation in this study. The B3LYP functional and 6-311G + (d, p) basis set has been utilized for the calculation and simulation of external electric fields, with the strength ranging from 0 to 0.020 a.u. and an increment gradient of 0.005 a.u.</p>

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Electrostatic field modulation of high-nitrogen heterocycles: a computational study on energy and stability

  • 期刊论文

  • 发表日期：

    2025年8月25日

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  • Peng Zhang,
  • MengJie Bo,
  • YuQin Chu,
  • Yang Zhu,
  • Peng Ma

摘要

Context

In this study, the effect of external electric field (EEF) on three kinds of high nitrogen heterocyclic compounds with different ring structures (PA-1 ~ 3, oxadiazole, triazole, and tetrazole) was investigated by quantum chemical calculation. By using B3LYP/6-311G + (d, p) theory and Laplace bond order (LBO) analysis, the trigger bond was determined, and further EEF was applied along the X/Y/Z axis (0–0.02 a.u.) to study its effects on molecular structure, electron distribution, and DOS. The results show that EEF in different directions has a significant effect on charge transfer and intermolecular interaction, which provides a theoretical basis for regulating energy output and thermal stability. This work highlights the potential of computational strategies in the design of energetic materials with controllable properties, and builds a bridge between theoretical prediction and practical application in high-energy systems.

Methods

The Gaussian 16 software has been chosen for simulation and computation in this study. The B3LYP functional and 6-311G + (d, p) basis set has been utilized for the calculation and simulation of external electric fields, with the strength ranging from 0 to 0.020 a.u. and an increment gradient of 0.005 a.u.