结晶
形态学(生物学)
材料科学
机械加工
Crystal(编程语言)
生物系统
动能
计算
计算机科学
统计物理学
热力学
算法
物理
地质学
古生物学
量子力学
生物
冶金
程序设计语言
作者
Yongjie Li,Xianggui Xue,Chaoyu Wang,Yuchuan Shi,Zejun Wu,Chaoyang Zhang
标识
DOI:10.1021/acs.cgd.3c00734
摘要
Crystal morphology can significantly impact rheological, machining, and loading properties of materials and additionally the energy and safety of energetic materials. With the development of computation technology and the increasing requirement of shape-tailored energetic crystals, a high-efficiency morphology prediction method is highly desired. Thus, a timely summary of existing crystal morphology prediction models at the microscopic level and their applications to energetic compounds is implemented in this article to set a basis for comparing their advantages and disadvantages and establishing more accurate ones. In general, these models take into account more structural and thermodynamic factors with fewer or even no kinetic factors, resulting in more or less deviation from experimental observation. Therefore, more accurate morphology prediction models are expected to be constructed in the future, in terms of both macroscopic crystallization conditions and microscopic structures as well as big data.
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