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P Krogstrup

Explore the profile of P Krogstrup including associated specialties, affiliations and a list of published articles. Areas
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Articles 30
Citations 382
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Recent Articles
1.
Wesdorp J, Grunhaupt L, Vaartjes A, Pita-Vidal M, Bargerbos A, Splitthoff L, et al.
Phys Rev Lett . 2023 Sep; 131(11):117001. PMID: 37774257
Josephson junctions in InAs nanowires proximitized with an Al shell can host gate-tunable Andreev bound states. Depending on the bound state occupation, the fermion parity of the junction can be...
2.
Fatemi V, Kurilovich P, Hays M, Bouman D, Connolly T, Diamond S, et al.
Phys Rev Lett . 2022 Dec; 129(22):227701. PMID: 36493424
Electrostatic charging affects the many-body spectrum of Andreev states, yet its influence on their microwave properties has not been elucidated. We developed a circuit quantum electrodynamics probe that, in addition...
3.
Matute-Canadas F, Metzger C, Park S, Tosi L, Krogstrup P, Nygard J, et al.
Phys Rev Lett . 2022 May; 128(19):197702. PMID: 35622049
We performed microwave spectroscopy of an InAs nanowire between superconducting contacts implementing a finite-length, multichannel Josephson weak link. Certain features in the spectra, such as the splitting by spin-orbit interactions...
4.
Gluschke J, Seidl J, Lyttleton R, Nguyen K, Lagier M, Meyer F, et al.
Mater Horiz . 2021 Nov; 8(1):224-233. PMID: 34821301
A central endeavour in bioelectronics is the development of logic elements to transduce and process ionic to electronic signals. Motivated by this challenge, we report fully monolithic, nanoscale logic elements...
5.
Hays M, Fatemi V, Bouman D, Cerrillo J, Diamond S, Serniak K, et al.
Science . 2021 Aug; 373(6553):430-433. PMID: 34437115
Two promising architectures for solid-state quantum information processing are based on electron spins electrostatically confined in semiconductor quantum dots and the collective electrodynamic modes of superconducting circuits. Superconducting electrodynamic qubits...
6.
Kringhoj A, Winkler G, Larsen T, Sabonis D, Erlandsson O, Krogstrup P, et al.
Phys Rev Lett . 2021 Feb; 126(4):047701. PMID: 33576664
We investigate transmon qubits made from semiconductor nanowires with a fully surrounding superconducting shell. In the regime of reentrant superconductivity associated with the destructive Little-Parks effect, numerous coherent transitions are...
7.
Razmadze D, OFarrell E, Krogstrup P, Marcus C
Phys Rev Lett . 2020 Sep; 125(11):116803. PMID: 32975997
An odd-occupied quantum dot in a Josephson junction can flip transmission phase, creating a π junction. When the junction couples topological superconductors, no phase flip is expected. We investigate this...
8.
Larsen T, Gershenson M, Casparis L, Kringhoj A, Pearson N, McNeil R, et al.
Phys Rev Lett . 2020 Aug; 125(5):056801. PMID: 32794832
Coherence of superconducting qubits can be improved by implementing designs that protect the parity of Cooper pairs on superconducting islands. Here, we introduce a parity-protected qubit based on voltage-controlled semiconductor...
9.
Kringhoj A, van Heck B, Larsen T, Erlandsson O, Sabonis D, Krogstrup P, et al.
Phys Rev Lett . 2020 Jul; 124(24):246803. PMID: 32639819
We demonstrate strong suppression of charge dispersion in a semiconductor-based transmon qubit across Josephson resonances associated with a quantum dot in the junction. On resonance, dispersion is drastically reduced compared...
10.
Vaitiekenas S, Winkler G, van Heck B, Karzig T, Deng M, Flensberg K, et al.
Science . 2020 Mar; 367(6485). PMID: 32217701
Hybrid semiconductor-superconductor nanowires have emerged as a promising platform for realizing topological superconductivity (TSC). Here, we present a route to TSC using magnetic flux applied to a full superconducting shell...