Protein-protein docking can be challenging. One common frustration for molecular modelers stems from the abundance of false-positive predictions—docking orientations that score well but are biologically implausible. These often result from exploring a search space that’s too broad. Fortunately, the Hex…

When preparing molecular presentations or scientific movies, clarity and pacing are essential to focus your audience’s attention. One common challenge is how to introduce molecular structures visually without overwhelming viewers with sudden displays. If you’re working with detailed models—like proteins…

Working with systems that involve multiple copies of the same protein is increasingly common in coarse-grained molecular dynamics simulations — especially when simulating crowded environments or modeling self-assembly. Tools like Martinize2 help generate coarse-grained (CG) topologies for the MARTINI force…

Creating accurate molecular models of carbon nanotubes (CNTs) can be time-consuming—especially when you want a specific chirality, direction, or length. Manually inputting parameters is precise, but sometimes inspiration is better expressed visually. If you’ve ever found yourself wishing you could…

In molecular simulations, tracking the motion of binding partners, domains, or other parts of a system can quickly become overwhelming. Many molecular modelers manually inspect coordinate files or visualize entire trajectories, making it difficult to focus on the actual motion…

In molecular modeling, visual clarity matters—especially when you’re dealing with complexes where molecules interact closely, such as in docking studies or protein-ligand interactions. If you ever presented your model and found yourself thinking, “I wish I could just show how…

When working in molecular modeling, clear visual communication is just as important as robust computational results. For example, when you’re preparing a presentation or video to explain the structure or function of a molecule, it’s important to guide the viewer’s…

In molecular modeling, identifying realistic transition paths between conformational states is often essential—whether you’re exploring ligand unbinding, folding pathways, or chemical reaction mechanisms. Yet, even with tools that generate trajectories, like linear interpolation or sampling-based methods, the paths can be…

When crafting molecular animations—whether for a research talk, a publication, or a classroom—visual clarity plays a major role. Still, one detail that’s easy to overlook is the transition between visual scenes, especially when presenting sequences with completely different molecular representations,…