As a molecular modeler, do you often find yourself constrained by computational resources and long simulation times? If simulating atomistic systems feels like an uphill battle, especially when dealing with large biomolecules and their dynamics, there’s a way to simplify…

Molecular modelers often need to analyze energy changes in their systems to better understand molecular trajectories, binding paths, or reaction mechanisms. Such analyses can quickly become cumbersome if switching between different views, units, or components requires additional computation or reconfiguration.…

Molecular modeling processes often involve setups where default settings and standard index groups generated by GROMACS fall short of meeting specific analysis requirements. Whether you’re isolating a subset of residues for advanced analysis, defining pull groups, or preparing a complex…

Exploring large-scale biomolecular motions is often a challenge for molecular modelers. For those analyzing protein-ligand interactions or investigating how structural changes activate biological functions, discovering how to open or close binding sites efficiently is a critical task. With the Normal…

For molecular modelers, one common challenge is minimizing specific parts of large molecular systems while leaving other regions untouched. Whether you’re tweaking a molecular structure for precision or focusing on a single functional group, you might wonder: how can I…

One of the common challenges molecular modelers face is efficiently constructing complex molecular systems. Thanks to tools like SAMSON, assembling molecules from fragments has been greatly simplified. Instead of starting from scratch or laboriously piecing atoms together, you can use…

For molecular modelers working in academic environments, the cost of powerful tools can be a hurdle to overcome. That’s where SAMSON’s academic status offers relief. Whether you’re a researcher pushing the frontiers of biomolecular understanding or a student eager to…