01
Foundations & Theory
Defines
Establishes limits, resource tradeoffs, and information-theoretic questions that guide the program.
Quantum research stack
Theory, codes, software, and applications connected through a quantum processor.
Research vision
Building reliable quantum computation from theory to useful systems
My research asks how rigorous quantum theory can become reliable, verifiable, and useful computation, moving from fundamental limits to systems and workflows that can be tested in practice.
Research map
How the topics connect
The four research areas form a cycle: foundations define limits, hardware implements reliable systems, software computes under constraints, and applications feed new questions back.
Reliable quantum systems
The shared target of the cycle.
02
Hardware Enabling Technology
Implements
Turns those limits into architectures, error-correcting structures, and benchmarks for reliable quantum computation.
03
Software with Enhanced Advantage
Computes
Builds algorithms, learning protocols, and verification tools that operate under realistic system constraints.
04
Real-World Applications
Deploys
Uses domain workflows to test what is useful, expose bottlenecks, and send new constraints back into the program.
Research categories
Four connected research areas
These areas organize the group's work from enabling hardware-level reliability to software advantage, real-world workflows, and the mathematical foundations underneath them.
Defines
Foundations & Theory
Exploring the fundamental limits, information-theoretic principles, and physical structures that make quantum information processing possible.
Explore this areaImplements
Hardware Enabling Technology
Building the physical and architectural foundation for reliable, scalable quantum computation through error correction, benchmarking, and system-aware design.
Explore this areaDeploys
Real-World Applications
Translating quantum capabilities into practical workflows for simulation, sensing, communication, and domain problems where structure matters.
Explore this areaComputes
Software with Enhanced Advantage
Developing algorithms, quantum learning protocols, and verification tools that turn quantum resources into measurable computational advantages.
Explore this areaFeatured research
Selected directions and recent breakthroughs
A few representative threads show how the work moves between rigorous theory, algorithms, and practical quantum systems.
Quantum error correction
Linear-time encodable and decodable quantum codes
Designing quantum error-correcting codes that bring efficient encoding and decoding closer to fault-tolerant architectures.
Quantum LDPC codes
Geometrically local quantum codes in any dimension
Connecting code constructions with locality constraints that matter for scalable physical implementations.
AI for quantum systems
Representing and characterizing quantum systems with AI
Using modern AI tools to model, represent, and understand quantum states and processes at useful scales.
Recent outputs
Recent and representative publications
A compact entry point into the publication record, with emphasis on active themes across fault tolerance, learning, and quantum information.
Browse journals, conferences, talks, books, and arXiv preprints.