Quantum materials and devices

Quantum materials and devices form the foundation of all quantum innovations.

At the core of this technology is the qubit—the basic unit of quantum information. Unlike a standard computer bit, qubits  can represent complex states to help solve difficult problems. The challenge is that standard materials cannot support these delicate states; they create too much 'noise,' causing the quantum information to vanish.

To overcome this, IQC researchers and students design, fabricate and test specialized materials and hardware, from nanodevices to superconducting and photonic systems, that enable quantum computing, communication and sensing.

Applications

  • qubit fabrication and characterization
  • integrated photonic devices
  • superconducting circuits
  • materials for quantum coherence
  • prototype quantum hardware

Discover more about quantum materials and devices

Quantum materials and devices

Guo-Xing Miao

Faculty, Professor

Research expertise

  • Spiontronics (integrating iontronics with spintronics)
  • Neural networks and compute in memory (novel memristors and CMOS integration)
  • Topologically protected low-dimensional spin system (doped Bi/Se/Te system)
  • Spin memory and logic devices (magnetoresistance and multiferroics based)

Alan Jamison

Faculty, Assistant Professor
  • Research expertise

  • Ultracold atoms and molecules
  • Quantum chemistry
  • Quantum information
  • Precision measurements and quantum-enhanced metrology

Adam Wei Tsen

Assistant Professor

Research expertise

  • Structural, optical, and electronic properties of low-dimensional, quantum materials
  • Novel microscopy techniques and characterization
  • Manipulation and fabrication of nanoscale electronic devices

Adrian Lupascu

Faculty, Associate Professor

Research expertise

  • Superconducting flux qubits for quantum information
  • Quantum sensing with superconducting devices
  • Quantum annealing
  • Strong light matter interaction in superconducting circuits
  • Relativistic quantum information with superconducting circuits

Na Young Kim

Faculty, Associate Professor

Research expertise

  • Large-scale solid-state quantum simulators and computers for quantum information processing and communications
  • Multi-functional solid-state molecular devices and systems for the post-Si era
  • Development of multi-disciplinary enabling technologies and materials for integrated quantum and molecular circuits and systems
  • Quantum artificial intelligence and quantum security

Dmitry Pushin

Faculty, Associate Professor

Research expertise

  • Neutron interferometry

  • Quantum information processing

  • Experimental neutron physics

  • Condensed matter and magnetic materials

  • Phase transitions and quantum phenomena

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