arXiv (All)
open access
A Unified Physics-Aware Quantum Machine Learning Framework across Power GaN HEMTs and Logic Nanowire FETs: Predicting Unseen Process Splits and Held-Out Geometry Combinations with Lower Error and Tighter Split-to-Split Variability
We present a unified reinforcement-learning (RL) framework that discovers compact parametrized quantum circuits (PQCs) for data-scarce device modeling. A graph neural network (GNN) policy optimized by proximal policy optimization (PPO) searches circuit architectures using leave-one-group-out cross-v
Conceptio Open Archive
Analyze & explore related research in Conceptio
Connect this record directly into your research workflow or AI agent. Explore citations across open repositories, query full text, and export structured proof bundles.
This document is indexed with metadata only: full text is not available in the archive for this record. Open the official source ↗
Related documents
- Reinforcement Learning to Harness Approximation Errors for Long-Time Quantum Simulation#662493
- Reinforcement Learning to Harness Approximation Errors for Long-Time Quantum Simulation#661443
- Learning parameter curves in feedback-based quantum optimization algorithms#1144750
- Reinforcement Learning Assisted Quantum Simulation of Many-Body Excited States and Real-Time Dynamics#1084215
- Sampled-Based Guided Quantum Walk: Non-variational quantum algorithm for combinatorial optimization#1156210
Record · ID 972189
Retrieved via Conceptio: every document is proof-bundled with source, license, and retrieval metadata.
Retrieved via Conceptio: every document is proof-bundled with source, license, and retrieval metadata.
Bring this data into your agent: Connect via MCP or API · 20 free credits to start · no card required
Read the Docs → · View CLI source on GitHub · Conceptio Open Knowledge Archive
Read the Docs → · View CLI source on GitHub · Conceptio Open Knowledge Archive