Abstract
Several unsolvable problems, such as molecular simulations of drugs, are predicted to be computable with a quantum computer. However, current state-of-the-art quantum bits, qubits, are error-prone making large computations impossible. This thesis presents results from experimental studies of three different approaches towards error-protected qubits based on novel semiconductor nanowires proximitized by an epitaxially grown aluminium shell.
First, we develop gatemons, a semiconductor-based superconducting qubit, as a viable qubit for quantum error correction. Next, we introduce a novel circuit architecture based on the high-transmission of semiconductor Josephson junction to create a protected 0-pi qubit. Finally, we demonstrate a high field compatible superconducting qubit for detection of Majorana states which are predicted to form protected qubits
First, we develop gatemons, a semiconductor-based superconducting qubit, as a viable qubit for quantum error correction. Next, we introduce a novel circuit architecture based on the high-transmission of semiconductor Josephson junction to create a protected 0-pi qubit. Finally, we demonstrate a high field compatible superconducting qubit for detection of Majorana states which are predicted to form protected qubits
| Originalsprog | Engelsk |
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| Udgivelsessted | København, Danmark |
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| Forlag | The Niels Bohr Institute, Faculty of Science, University of Copenhagen |
| Status | Udgivet - 2018 |