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From thermodynamics to protein design: Diffusion models for biomolecule generation towards autonomous protein engineering
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Protein design with desirable properties has been a significant challenge for many decades. Generative artificial intelligence is a promising approach and has achieved great success in various protein generation tasks. Notably, diffusion models stand out for their robust mathematical foundations and impressive generative capabilities, offering unique advantages in certain applications such as protein design. In this review, we first give the definition and characteristics of diffusion models and then focus on two strategies: Denoising Diffusion Probabilistic Models and Score-based Generative Models, where DDPM is the discrete form of SGM. Furthermore, we discuss their applications in protein design, peptide generation, drug discovery, and protein-ligand interaction. Finally, we outline the future perspectives of diffusion models to advance autonomous protein design and engineering. The E(3) group consists of all rotations, reflections, and translations in three-dimensions. The equivariance on the E(3) group can keep the physical stability of the frame of each amino acid as much as possible, and we reflect on how to keep the diffusion model E(3) equivariant for protein generation.
Forward citations
Cited by 3 Pith papers
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The Effect of Stochasticity in Score-Based Diffusion Sampling: a KL Divergence Analysis
KL divergence bounds show stochasticity in diffusion sampling contracts error with exact scores, but for learned scores it can help or hurt depending on the time profile of the score error.
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A GCN with wavelet-denoised targets predicts activity for the TEAS enzyme on a 9-site hypercube, with test R-squared up to 0.66.
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Geometric deep learning assists protein engineering. Opportunities and Challenges
A perspective synthesizing geometric deep learning applications in protein engineering and proposing an explainable, structure-aware design pipeline.
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