The rapid rise of scientific literature on deep learning in computational mechanics illustrates its potential but also its pitfalls due to its hyped-up over-optimism. This chapter summarizes the methodological overview of the preceding chapter, including assessments. These pinpoint the most promising research directions and highlight which to avoid. In addition, clear guidelines within deep learning for simulation are provided. In particular, the well-known but under-utilized principles of good scientific practice are reiterated in the context of deep learning in computational mechanics. Following these ensures much-needed transparency and integrity, thereby accelerating future improvements in this field—creating a pathway for deep learning to contribute meaningfully to computational mechanics.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

The Future of Deep Learning in Computational Mechanics

  • Leon Herrmann,
  • Moritz Jokeit,
  • Oliver Weeger,
  • Stefan Kollmannsberger

摘要

The rapid rise of scientific literature on deep learning in computational mechanics illustrates its potential but also its pitfalls due to its hyped-up over-optimism. This chapter summarizes the methodological overview of the preceding chapter, including assessments. These pinpoint the most promising research directions and highlight which to avoid. In addition, clear guidelines within deep learning for simulation are provided. In particular, the well-known but under-utilized principles of good scientific practice are reiterated in the context of deep learning in computational mechanics. Following these ensures much-needed transparency and integrity, thereby accelerating future improvements in this field—creating a pathway for deep learning to contribute meaningfully to computational mechanics.