Research

1. Single-molecule MRI via diamond color centers and molecular qubits. Ongoing project. View summary

Can one obtain MRI images of single molecules by harnessing quantum control over individual spins?

Can many-body interacting spin networks be engineered using synthetic chemistry and controlled via individually adressable spins?

Single-molecule MRI concept

2. Extracellular potential imaging via color centers in a diamond electrode. Ongoing project. View summary
Can diamond be used for optical readout of local electrochemical potentials near cell membranes? Extracellular potential imaging with diamond - concept

3. In-situ imaging of frictional charging via NV centers in diamond. Ongoing project. View summary

Can stick-slip and frictional charging be imaged in-situ via the charge state of color centers to observe the multi-scale nature of these phenomena? Friction imaging with diamond - concept

4. Friction under microscope in a trapped-ion optical-lattice simulator. PhD work. View summary

Can trapped cold ions serve as a model system for studying surface and contact phenomena with atom-by-atom resolution and in the quantum regime? Friction under microscope with trapped ions in a lattice - concept

5. Atomic-scale heat machines. Theory collaboration - ongoing wok. View summary

How does quantization alone alter the fundamental operation modes of a quantum heat engine?

How can quantum thermodynamics be tested in model systems such as ion traps?

Quantized Otto cycle gains

6. Ion traps, optical cavities and lasers. Technology development. View summary

The future of quantum control relies on the continued technological development of its key tools: traps for particles, traps for light and lasers. Ion trap array in an optical cavity