A topological field-effect memristor
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arXiv
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| Main Authors: | , , , , , , , , , , , , , , , |
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| Format: | Preprint |
| Published: |
2025
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| _version_ | 1866912723034439680 |
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| author | Meyer, Manuel Barragan, Selena Krishtopenko, Sergey Wolf, Adriana Emmerling, Monika Schmid, Sebastian Rodriguez, Jean-Baptiste Tournie, Eric Jouault, Benoit Bastard, Gerald Teppe, Frederic Lopez-Richard, Victor Lipan, Ovidiu Worschech, Lukas Höfling, Sven Hartmann, Fabian |
| author_facet | Meyer, Manuel Barragan, Selena Krishtopenko, Sergey Wolf, Adriana Emmerling, Monika Schmid, Sebastian Rodriguez, Jean-Baptiste Tournie, Eric Jouault, Benoit Bastard, Gerald Teppe, Frederic Lopez-Richard, Victor Lipan, Ovidiu Worschech, Lukas Höfling, Sven Hartmann, Fabian |
| contents | Overcoming the limitations of the von Neumann architecture requires new computational paradigms capable of solving complex problems efficiently. Quantum and neuromorphic computing rely on unconventional materials and device functionalities, yet achieving resilience to imperfections and reliable operation remains a major challenge. This has motivated growing interest in topological materials that provide robust and low-power operation while preserving coherence. However, integrating coherent topological transport with non-volatile memory functionality in a single reconfigurable device has remained challenging. In this work, we demonstrate a topological field-effect memristor based on inverted InAs/GaInSb/InAs trilayer quantum wells operating in the quantum spin Hall regime. The intrinsic floating-gate behavior allows one to reconfigure the transistor functionality into memristive functionality with broad electric-field tunability. Unlike other memristor implementations, one resistance state is governed entirely by dissipationless, coherent transport through helical edge channels, while the other arises from incoherent bulk conduction. By combining electrically tunable coherent and incoherent transport with memory functionality, our device realizes a prototypical topological electronic element that integrates coherent transport and adaptive memristive behavior, paving the way for hybrid quantum-neuromorphic architectures. |
| format | Preprint |
| id |
arxiv_https___arxiv_org_abs_2511_17090 |
| institution | arXiv |
| publishDate | 2025 |
| record_format | arxiv |
| spellingShingle | A topological field-effect memristor Meyer, Manuel Barragan, Selena Krishtopenko, Sergey Wolf, Adriana Emmerling, Monika Schmid, Sebastian Rodriguez, Jean-Baptiste Tournie, Eric Jouault, Benoit Bastard, Gerald Teppe, Frederic Lopez-Richard, Victor Lipan, Ovidiu Worschech, Lukas Höfling, Sven Hartmann, Fabian Mesoscale and Nanoscale Physics Overcoming the limitations of the von Neumann architecture requires new computational paradigms capable of solving complex problems efficiently. Quantum and neuromorphic computing rely on unconventional materials and device functionalities, yet achieving resilience to imperfections and reliable operation remains a major challenge. This has motivated growing interest in topological materials that provide robust and low-power operation while preserving coherence. However, integrating coherent topological transport with non-volatile memory functionality in a single reconfigurable device has remained challenging. In this work, we demonstrate a topological field-effect memristor based on inverted InAs/GaInSb/InAs trilayer quantum wells operating in the quantum spin Hall regime. The intrinsic floating-gate behavior allows one to reconfigure the transistor functionality into memristive functionality with broad electric-field tunability. Unlike other memristor implementations, one resistance state is governed entirely by dissipationless, coherent transport through helical edge channels, while the other arises from incoherent bulk conduction. By combining electrically tunable coherent and incoherent transport with memory functionality, our device realizes a prototypical topological electronic element that integrates coherent transport and adaptive memristive behavior, paving the way for hybrid quantum-neuromorphic architectures. |
| title | A topological field-effect memristor |
| topic | Mesoscale and Nanoscale Physics |
| url | https://arxiv.org/abs/2511.17090 |