Roadmap on Atomically-Engineered Quantum Platforms

Soo-hyon Phark; Michael E Flatte; Bent Weber; Yasuo Yoshida; Patrick Robert Forrester; Robertus Johannes Gerardus Elbertse; Joseph A Stroscio; Hao Wang; Kai Yang; Leo Gross; Shantanu Mishra; Fabian Paschke; Katharina Kaiser; Shadi Fatayer; Jascha Repp; Harry Anderson; Diego Peña; Florian Albrecht; Franz Josef Giessibl; Roman Fasel; Joaquín Fernández-Rossier; Shigeki Kawai; Laurence Limot; Nicolas Lorente; Berthold Jaeck; Haonan Huang; Joachim Ankerhold; Christian R. Ast; Martina Trahms; Clemens Winkelmann; Katharina Jennifer Franke; Martina Soldini; Glenn Wagner; Titus Neupert; Felix Küster; Souvik Das; Stuart Parkin; Paolo Sessi; Zhenyu Wang; Vidya Madhavan; Rupert Huber; Gagandeep Singh; Fabio Donati; Stefano Rusponi; Harald Brune; Eufemio Moreno-Pineda; Mario Ruben; Wolfgang Wernsdorfer; Wantong Huang; Kwan Ho Au-Yeung; Philip Willke; Andreas J. Heinrich; Susanne Baumann; Sebastian Loth; Lukas Maarten Veldman; Sander Otte; Christoph Wolf; Lisanne Sellies; Steven R Schofield; Joris G Keizer; Michelle Y Simmons

doi:10.1088/2399-1984/ade6b7

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Roadmap on Atomically-Engineered Quantum Platforms

Journal article

Peer reviewed

Roadmap on Atomically-Engineered Quantum Platforms

Soo-hyon Phark, Michael E Flatte, Bent Weber, Yasuo Yoshida, Patrick Robert Forrester, Robertus Johannes Gerardus Elbertse, Joseph A Stroscio, Hao Wang, Kai Yang, Leo Gross, …

Nano futures, Vol.9(3), 032001

09/30/2025

DOI: 10.1088/2399-1984/ade6b7

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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 tunneling 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.

quantum materials

quantum information

quantum sensors

topological quantum platforms

single spin quantum objects

Details

Title: Subtitle: Roadmap on Atomically-Engineered Quantum Platforms
Creators: Soo-hyon Phark
Michael E Flatte
Bent Weber
Yasuo Yoshida
Patrick Robert Forrester
Robertus Johannes Gerardus Elbertse
Joseph A Stroscio
Hao Wang
Kai Yang
Leo Gross
Shantanu Mishra
Fabian Paschke
Katharina Kaiser
Shadi Fatayer
Jascha Repp
Harry Anderson
Diego Peña
Florian Albrecht
Franz Josef Giessibl
Roman Fasel
Joaquín Fernández-Rossier
Shigeki Kawai
Laurence Limot
Nicolas Lorente
Berthold Jaeck
Haonan Huang
Joachim Ankerhold
Christian R. Ast
Martina Trahms
Clemens Winkelmann
Katharina Jennifer Franke
Martina Soldini
Glenn Wagner
Titus Neupert
Felix Küster
Souvik Das
Stuart Parkin
Paolo Sessi
Zhenyu Wang
Vidya Madhavan
Rupert Huber
Gagandeep Singh
Fabio Donati
Stefano Rusponi
Harald Brune
Eufemio Moreno-Pineda
Mario Ruben
Wolfgang Wernsdorfer
Wantong Huang
Kwan Ho Au-Yeung
Philip Willke
Andreas J. Heinrich
Susanne Baumann
Sebastian Loth
Lukas Maarten Veldman
Sander Otte
Christoph Wolf
Lisanne Sellies
Steven R Schofield
Joris G Keizer
Michelle Y Simmons
Resource Type: Journal article
Publication Details: Nano futures, Vol.9(3), 032001
DOI: 10.1088/2399-1984/ade6b7
ISSN: 2399-1984
eISSN: 2399-1984
Publisher: IOP Publishing Ltd
Language: English
Electronic publication date: 06/20/2025
Date published: 09/30/2025
Academic Unit: Electrical and Computer Engineering; Physics and Astronomy
Record Identifier: 9984843583202771

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