Advanced 2D Materials for Quantum and Bio Nanotechnology
Research Group:Centre for Condensed Matter and Material Physics
Number of Students:1
Length of Study in Years: 3.5 years
Full-time Project: yes
Nanostructured advanced 2D materials offer a unique platform for studies that are at the cutting edge of physics, chemistry and material science. The ability to fabricate nanoscale devices including tunnel junctions, quantum dots, and quantum point contacts is of great interest for fundamental studies of quantum transport and the nascent field of spin-valley quantum computing, as well as technical applications including energy harvesting and DNA sequencing. In this context, nanofabrication techniques and self-assembly strategies can allow us to control the organization, on surfaces, of nanostructures of interest for optoelectronic applications, and advanced 2D materials are emerging as strong candidates as truly nanoscale electrodes.
We plan to fabricate quantum nanoelectronic devices for quantum and biosensing applications employing advanced 2D materials. Novel device functionality will be achieved by interfacing complex molecules and nanostructures to the 2D nanoelectrodes, where these junction moieties will be acting as functional building blocks in our nanoelectronic devices.
Expected research outcomes
The project will develop high-throughput and versatile platforms for quantum electronic devices, with the following expected research outcomes:
- Demonstration of covalent bonding of molecules and quantum dots to advanced 2D material nanoelectrodes;
- Study of quantum transport in advanced 2D materials based nanoelectronic devices;
- Investigation of the energy harvesting and cooling efficiency of quantum electronic devices;
- Feasibility study of the use of 2D nanoelectronic devices for biosensing applications, including DNA and protein sequencing.
A degree in Physics or Chemical Physics/Physical Chemistry
SPA Academics: Dr Jan Mol