Table 2:
Recent advances in structure prediction and computational protein design
| Category | Method | Result | Ref |
|---|---|---|---|
| Structure Prediction | AlphaFold | Highly accurate results predicting protein structure from amino acid sequence | [124] |
| AlphaFold-2 | Updated version of AlphaFold that has solved the protein folding problem | [125] | |
| RosettaFold | Similar protein structure prediction as AlphaFold | [126] | |
| ProteinMPNN | Protein backbone sequence design using deep learning | [127] | |
| trRosetta | De novo protein structure prediction using deep neural networks | [128] | |
| RaptorX | Web based server for protein structure prediction from amino acid sequence | [129] | |
| ProGen | Language models can predict protein function from sequence families | [130] | |
| AminoBERT | Structure prediction using a language model | [131] | |
| Pfam | Annotating protein function from amino acid sequence with a deep learning model | [17] | |
| Prediction of protein fitness from evolutionary data | [132] | ||
| Protein Design | Deep learning-based design of zinc finger nucleases for specific DNA binding regions | [133] | |
| Design of IL-2 mimetic protein with reduced toxicity | [134] | ||
| Development of a capsid protein using deep learning | [135] | ||
| De novo design of a chimeric antigen receptor, small molecule regulated, kill switch | [136] | ||
| Computational design of membrane permeable proteins | [137] | ||
| Protein design of axel-rotator-like components | [138] | ||
| Design of proteins binding to specific targets from aa sequence alone | [31] | ||
| Development of nanocage structural proteins | [139] | ||
| Computational design of large multicomponent proteins | [140] | ||
| Rational design of donut-shaped proteins | [141] | ||
| Design of IgG antibodies using multi-state design simulations | [142] | ||
| Design of helical membrane proteins | [143] | ||
| De novo design of a β barrel protein | [144] | ||