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Turing is seeking experienced Computational Protein Design experts to explore generative AI approaches for protein engineering. You will design challenging evaluation tasks, run computational experiments, and develop reproducible benchmarks to assess AI models in protein design.
Your work will involve diffusion-based design, binder generation, and sequence–structure optimization, with emphasis on rigor and scientific validity.
We are seeking experienced Computational Protein Design experts to explore and evaluate advanced generative AI approaches for protein engineering as part of a frontier AI scientific evaluation initiative. In this role, you will develop challenging scientific evaluation tasks involving de novo protein generation, diffusion-based structure design, protein binder development, and sequence–structure optimization. You will independently conduct computational experiments, evaluate AI-generated protein designs, and develop reproducible benchmarks and technical proof-of-concept results to assess the capabilities and limitations of generative AI models in protein engineering. Design scientifically rigorous evaluation tasks involving de novo protein design, target-conditioned binder generation, motif scaffolding, and sequence–structure optimization. Develop and execute computational protein design workflows using generative AI models, diffusion-based approaches, and established protein engineering tools. Define task inputs, biological constraints, expected outputs, evaluation criteria, and reproducible experimental protocols. Evaluate AI-generated protein sequences and structures for folding confidence, structural stability predictions, geometric validity, interface quality, novelty, and biological plausibility. Analyze protein folding, sequence–structure relationships, and protein–protein interactions to assess the quality and feasibility of generated designs. Develop objective scoring rubrics, reference analyses, and computational validation methods to evaluate model performance. Identify model limitations, failure cases, unrealistic structural predictions, and potential weaknesses in generated protein designs. Distinguish computational predictions from experimentally validated results and document scientific assumptions and limitations.