Quantum sensing

Quantum sensors take advantage of how easily quantum states—the specific energy or spin of a particle—are disturbed by their surroundings. By monitoring these delicate states, our researchers and students can measure forces, fields and signals with exquisite precision.

To do this, they are exploring quantum innovations like trapped ions and superconducting circuits to capture and read these signals.

A key focus is on nitrogen-vacancy (NV) centres—atomic defects in diamond that act as highly durable, microscopic compasses, allowing our teams to detect magnetic fields at the smallest scales.

Applications

  • biomedical imaging and diagnostics
  • navigation and positioning systems
  • environmental monitoring
  • materials characterization
  • detecting gravitational or magnetic anomalies

Discover more about quantum sensing

Quantum sensing researchers

Jonathan Baugh

Faculty, Professor

Research expertise

  • Spin qubits
  • Semiconductor quantum dots
  • Quantum transport
  • Low temperature physics
  • Magnetic resonance
  • Experimental quantum information processing and quantum control
  • Quantum light sources
  • Quantum materials

Bradley Hauer

Faculty, Assistant Professor

Research expertise

  • Experimental and theoretical physics
  • Cavity optomechanics
  • Superconducting circuits
  • Quantum information
  • Nanomechanics

Michael Reimer

Faculty, Associate Professor

Research expertise

  • Semiconductor nanowire quantum light sources
  • Hybrid nanowire quantum state converter
  • Quantum memories
  • Integrated quantum photonic circuits
  • Highly efficient quantum detectors

Raffi Budakian

Faculty, Professor

Research expertise

  • Coupling spins and nanomechanical oscillators
  • Nanometer scale magnetic resonance imaging
  • Exploring nanometer scale quantum phenomena in condensed matter systems

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

Michal Bajcsy

Faculty, Associate Professor

Research expertise

  • Coupling of quantum emitters to nano-photonics structures
  • Development of on-chip platforms for enhanced light-matter and light-light interactions
  • Non-classical light sources and quantum memories based on mesoscopic ensembles of quantum emitters
  • Frozen light, dark-state polaritons, and all-optical switching at extremely low light levels

Events