What NMR should enable in your project

The goal of NMR is to deliver direct insight into molecular interactions and their biological relevance, not simply to generate spectra.

NMR experiments can:

  • detect binding in solution without labelling artifacts
  • confirm and characterize compound interactions with your target
  • determine binding affinity where applicable
  • map interaction sites at residue level
  • support structure-informed design decisions

Since measurements occur in solution, NMR can detect interactions that are challenging for other techniques, such as weak binders and dynamic systems.

The outcome is a clear understanding of how a compound interacts with the target and whether it merits further pursuit, not just detection of binding.

Experience with complex targets and NMR systems

Effective use of NMR in drug discovery requires both technical expertise and sound experimental judgment. ZoBio scientists have more than 4 decades of combined experience in NMR-based drug discovery with deep understanding of the underlying science. Our team has demonstrated expertise in the development of NMR methods and their successful implementation in a commercial drug discovery setting as evidenced through peer reviewed publications. We routinely use NMR for fragment screening, orthogonal confirmation of compound binding, and structural biology.

Our expertise covers proteins, RNA targets, and systems where other techniques offer limited insight. This experience enables us to design experiments for complex systems that yield interpretable and actionable results.

How NMR experiments are selected and applied

NMR comprises a set of complementary approaches, and selecting the appropriate method is critical.

Two main strategies are used:

Where NMR adds value across drug discovery

NMR supports multiple stages of your project:

Fragment screening & hit discovery

Ligand- and protein-observed methods identify initial binding events and provide starting points for drug discovery.

Hit validation & characterization

NMR confirms binding, distinguishes specific from non-specific interactions, and maps interaction sites to guide medicinal chemistry.

Structure-informed drug design

NMR provides structural information in solution, including binding poses, especially when crystallography is not feasible.

Challenging systems

NMR enables analysis of systems like intrinsically disordered proteins, where other structural techniques are less effective.