Phark, Soo-hyon and Weber, Bent and Yoshida, Yasuo and Forrester, Patrick R. and Elbertse, Robertus J. G. and Stroscio, Joseph A. and Wang, Hao and Yang, Kai and Gross, Leo and Mishra, Shantanu and Paschke, Fabian and Kaiser, Katharina and Fatayer, Shadi and Repp, Jascha and Anderson, Harry L. and Pena, Diego and Albrecht, Florian and Giessibl, Franz J. and Fasel, Roman and Fernandez-Rossier, Joaquin and Kawai, Shigeki and Limot, Laurent and Lorente, Nicolas and Jack, Berthold and Huang, Haonan and Ankerhold, Joachim and Ast, Christian R. and Trahms, Martina and Winkelmann, Clemens B. and Franke, Katharina J. and Soldini, Martina O. and Wagner, Glenn and Neupert, Titus and Kuster, Felix and Das, Souvik and Parkin, Stuart S. P. and Sessi, Paolo and Wang, Zhenyu and Madhavan, Vidya and Huber, Rupert and Singh, Gagandeep and Donati, Fabio and Rusponi, Stefano and Brune, Harald and Moreno-Pineda, Eufemio and Ruben, Mario and Wernsdorfer, Wolfgang and Huang, Wantong and Au-Yeung, Kwan Ho and Willke, Philip and Heinrich, Andreas J. and Baumann, Susanne and Loth, Sebastian and Veldman, Lukas M. and Otte, Sander and Wolf, Christoph and Sellies, Lisanne and Schofield, Steven R. and Flatte, Michael E. and Keizer, Joris G. and Simmons, Michelle Y. (2025) Roadmap on atomically-engineered quantum platforms. NANO FUTURES, 9 (3): 032001. ISSN 2399-1984
Full text not available from this repository. (Request a copy)Abstract
Matter at the atomic-scale is inherently governed by the laws of quantum mechanics. This makes charges and spins confined to individual atoms-and interactions among them-an invaluable resource for fundamental research and quantum technologies alike. However, harnessing the inherent 'quantumness' of atomic-scale objects requires that they can be precisely engineered and addressed at the individual atomic level. Since its invention in the 1980s, scanning tunnelling microscopy (STM) has repeatedly demonstrated the unrivalled ability to not only resolve but manipulate matter at atomic length scales. Over the past decades, this has enabled the design and investigation of bottom-up tailored nanostructures as reliable and reproducible platforms to study designer quantum physics and chemistry, band topology, and collective phenomena. The vast range of STM-based techniques and modes of operation, as well as their combination with electromagnetic fields from the infrared to microwave spectral range, has even allowed for the precise control of individual charge and spin degrees of freedom. This roadmap reviews the most recent developments in the field of atomically-engineered quantum platforms and explores their potential in future fundamental research and quantum technologies.
| Item Type: | Article |
|---|---|
| Uncontrolled Keywords: | ELECTRON-PARAMAGNETIC-RESONANCE; SPIN HALL INSULATOR; SINGLE-MOLECULE; MAGNETIC-RESONANCE; FORCE MICROSCOPY; INDIVIDUAL ATOMS; TUNNELING-MICROSCOPY; STATE; SURFACE; SUPERCONDUCTIVITY; quantum materials; quantum information; quantum sensors; topological quantum platforms; single spin quantum objects |
| Subjects: | 500 Science > 530 Physics |
| Divisions: | Physics > Institute of Experimental and Applied Physics > Chair Professor Giessibl > Group Franz J. Giessibl Physics > Institute of Experimental and Applied Physics > Group Jascha Repp Physics > Institute of Experimental and Applied Physics > Chair Professor Huber > Group Rupert Huber Regensburg Center for UltrafastNanoscopy (RUN) |
| Depositing User: | Dr. Gernot Deinzer |
| Date Deposited: | 24 Jun 2026 05:47 |
| Last Modified: | 24 Jun 2026 05:47 |
| URI: | https://pred.uni-regensburg.de/id/eprint/67562 |
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