GAiAPSE brings SOPHiA GENETICS’ worldwide network to life, showing the interconnected institutions fueling data-driven medicine
Preparing presentations often meant struggling with spreadsheets and stock imagery, underscoring the need for a platform like GAiAPSE to unify data and design.
Global 3D view: institutions scaled by cumulative product usage, tracking adoption and network connections over time.
Examples of GAiAPSE-generated visuals repurposed across multiple communication formats, including formal presentations and corporate brochure covers. These assets ensure visual consistency, authenticity.
GAiAPSE in expert mode, displaying application distribution across institutions in the Detroit–Toronto area. Dynamic pie charts illustrate local adoption, while the data widget highlights the evolution of genomic profiles analyzed per application over time for a selected institution.
By selecting three application families, the interface dynamically adjusts both the pie charts and the institution-level widget, showing line and bar graphs focused on the chosen applications—demonstrating typical use of the platform for in-depth analysis.
Sunburst chart illustrating the structure of SOPHiA GENETICS’ product portfolio—from broad disease areas to application families (color-coded consistently across views), and finally to individual applications.
User view of the force-based simulation. After selecting a specific institution within the pool of circles the right-hand panel displays both aggregated community data (top) and institution-level detail (bottom), combining global context with local insight.
Behind the scenes: Emmanuel Pignat fine-tuning GAiAPSE’s code for its touchscreen deployment at SOPHiA GENETICS’ Innovation Summit, hosted at the company’s headquarters in June 2025.
Core system architecture of GAiAPSE, illustrating the end-to-end pipeline from raw genomic analyses to interactive, real-time visualization in the browser.
Workflow of GAiAPSE’s Assistant feature, showing how natural-language queries are interpreted by a Large Language Model, converted into executable expressions, and rendered in real time through the WebAssembly engine.