immune3D: Decoding AS at the Molecular Level

The root cause of Ankylosing Spondylitis isn't mechanical; it's chemical. To truly halt the progression of the disease and prevent the biological chassis from fusing in the first place, we must understand the exact mechanisms driving inflammation and unwanted osteogenesis.

We are proud to present immune3D, our digital chemistry lab currently in development. By wrapping powerful, high-performance molecular dynamics engines in an accessible interface, we are building the capability for researchers to study protein folding, ligand docking, and cellular perturbations in real-time.

Simulating the HLA-B27 Receptor

Ankylosing Spondylitis is strongly genetically linked to the HLA-B27 allele. immune3D is being designed to integrate with structural inference models like AlphaFold to accurately map the 3D architecture of the HLA-B27 receptor directly from raw amino acid sequences.

Once the receptor is mapped, we are developing pipelines to deploy high-performance molecular dynamics (MD) engines like GROMACS and OpenMM to simulate the physical movement and atomic forces of these proteins over time.

In Silico Perturbation Testing

Finding the exact biomaterial coating that encourages biological integration, while halting inflammatory attacks, requires heavy AI inference. immune3D is being built to simulate high-throughput chemical screening to calculate the binding affinities of proposed molecular compounds, verifying if a drug successfully attaches to the target receptor.

Furthermore, we are planning to use specialized simulators to test single-cell perturbations, modeling the exact reactions of AS-MSCs (Mesenchymal Stem Cells) when specific genetic pathways are artificially suppressed.

What takes traditional wet labs years to screen, our computational pipelines are designed to compute in days.

immune3D is being developed as the computational sandbox where the cure for AS will be compiled.