Research

How we think about computing.

XSYDA's thesis: computing should adapt to the workload, center on memory, optimize at runtime, and explain itself — deterministically, and verifiably.

Adaptive computing

Fixed silicon that reshapes routing, precision and sparsity per workload while staying fully deterministic — no online learning, no nondeterminism.

Runtime optimization

Closed-loop self-tuning as a first-class hardware behavior, grounded in systems and control theory rather than static heuristics.

Memory-centric execution

Treating memory movement — not just compute — as the thing to predict, prefetch and minimize, because most real workloads are bandwidth-bound.

Explainable execution

Every decision carries its reason and confidence, so adaptive behavior is auditable instead of opaque.

Intelligent workload routing

Classifying a workload's regime and routing it dynamically by congestion and locality, rather than running one fixed path for everything.

Hybrid validation

Pairing fast architectural simulation with gate-level RTL validation so iteration speed and functional confidence stop being a trade-off.

Digital-twin execution systems

Predicting timing, power and thermal behavior on a target architecture before commitment — validated against simulation.

Next-generation computing

Extending adaptive routing beyond the electrical domain — toward an optical memory-compute interconnect.