Structural analysis of on premises to cloud migrations across compute, network, and control plane layers.
Organizations migrating AI workloads from on-premises infrastructure to cloud platforms — or between cloud providers — encounter stability problems that functional testing cannot predict. The workload runs correctly on both platforms, yet performance characteristics, latency distributions, and failure modes change in unexpected ways.
The structural problem is that migration changes the coupling topology between workload components and infrastructure. On-premises systems have specific coupling patterns between compute, network, and storage that the workload has implicitly adapted to. Cloud platforms provide different coupling patterns — shared network fabrics, virtualized storage, multi-tenant compute — that alter the structural stability landscape even when the functional interface remains equivalent.
This application operates across the migration planning and execution space, spanning source infrastructure analysis, target platform structural assessment, and migration risk prediction. The relevant system boundary includes compute infrastructure (bare metal vs. virtual, GPU passthrough vs. vGPU), network infrastructure (dedicated vs. shared fabric, RDMA availability), storage (local NVMe vs. networked storage), and the control planes that manage each environment.
Cloud migration decisions involve significant investment and operational risk. Structural risk assessment prevents the costly scenario where a migration that appears sound on paper creates operational instability that requires expensive remediation or rollback.
The SORT framework addresses this application through four structural dimensions, each providing a distinct analytical layer.
Cloud migration creates unexpected stability problems.
Change of couplings across compute, network, and control plane.
Structural risk assessment for migration scenarios.
Migration strategy, phasing decisions, risk minimization.