Resolves the barren plateau
Residual optimization in the tensor-structured circuit keeps gradient variance stable as depth grows — making deep VQC training tractable.
Product · TensorDual-VQC
TensorDual-VQC is the quantum-native variant of TensorHyper. It bridges GPU and QPU workloads through a unified tensor representation, resolves barren plateaus, and runs on real quantum hardware — today, on NISQ devices.
Residual optimization in the tensor-structured circuit keeps gradient variance stable as depth grows — making deep VQC training tractable.
Tensor decomposition replaces dense parameterization, so circuit width and depth scale linearly with model capacity.
TensorDual-VQC runs on real superconducting hardware today, not just simulators. NISQ-era ready.
Workloads dispatch between GPU and QPU through a single tensor representation — no rewrite, no migration cost.
The same tensor model walks through four execution modes — starting classical, ending quantum-native — without a rewrite.
Step 1
Classical execution with tensor representation
Step 2
Multi-device tensor coordination across GPUs
Step 3
QPU emulation layer for circuit validation
Step 4
Run directly on 156-qubit IBM Heron and beyond
Quantum hardware is expected to remain in the NISQ era for the foreseeable future. The physical-to-logical qubit ratio is still high, and naive variational circuits hit barren plateaus long before they reach useful depth. TensorDual-VQC sidesteps both problems by embedding tensor structure into the circuit itself — making real quantum advantage available today, not in a decade.