Develop and execute innovative computational strategies, leveraging molecular dynamics, enhanced sampling, and free energy methods to solve complex challenges in drug discovery
Partner closely with cross-functional teams including medicinal chemists, structural biologists, and AI/ML researchers to integrate computational insights and advance our drug discovery projects
Analyze, interpret, and effectively present complex simulation data to both technical and non-technical audiences
Contribute to GPCR Structure-Based Drug Discovery projects by applying computational chemistry and CADD approaches
Stay up-to-date with the latest advancements in molecular modeling, enhanced sampling methods, and binding free energy approaches, integrating new methodologies to continuously improve our workflows
Requirements
PhD in biophysical chemistry, computational chemistry or related field
A minimum of 4 years of hands-on experience in a research lab, pharmaceutical company, or biotech startup, with a focus on molecular dynamics and free energy calculations
Deep understanding of thermodynamics, binding free energy, and enhanced sampling methods
Extensive experience with Free Energy (FE) methods, including Absolute, Relative, and Hydration FE calculations, and various enhanced sampling approaches
Proven experience applying FE methods to a wide range of macromolecule-ligand systems
Hands-on experience with High-Performance Computing (HPC) environments, including the use of job schedulers like Slurm
Experience in developing, implementing, or optimizing new FE or enhanced sampling methods
Experience with classical (AMBER, CHARMM, OPLS) and polarizable force fields (AMOEBA)
Familiarity with advanced simulation package options, such as performance optimization and force field tuning
Familiarity with ML-based potentials for molecular dynamics simulations, including an understanding of their development and application
Skilled in using various computational tools to analyze and visualize interactions from MD simulations and docking poses
Proven experience and deep understanding of GPCR structure, function, and signaling pathways.