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Mechanical enhancement of quantum oscillations

Maximilian Daschner1,2,*, Ivan Kokanović1,3,†, and F. Malte Grosche1,‡

  • *Contact author: maximilian.daschner@lmu.de
  • †Contact author: kivan@phy.hr
  • ‡Contact author: fmg12@cam.ac.uk

Phys. Rev. B 113, 024103 – Published 7 January, 2026

DOI: https://doi.org/10.1103/mf4r-5tl7

Abstract

We investigate quantum oscillation measurements in the Dirac nodal-line semimetal TaNiTe5 which exhibit a strongly enhanced amplitude in the magnetoresistance. We show that mechanical properties of the measurement setup in combination with de Haas–van Alphen oscillations in the magnetic torque can cause this enhancement in the measured resistance, without involvement of any topological properties in this material. To support the empirical data, a numerical model is provided, showing good agreement.

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  38. To obtain this plot we use the following parameters: the applied current is I=1mA, the length and mass of the sample are L=3mm and m=7mg, respectively. The damping parameters k1, κ1, and κ2 are difficult to estimate for the 25µm thick gold wires we use. Their value is temperature-dependent and furthermore depends on the shape of the wire, which can change in every measurement. To match the numerical simulation with our experimental data, we varied the respective damping terms. Agreement between data and simulation was achieved for the following values: k1=0.4kgm2/s2; κ1=30kg/s2; κ2=0.5kg/s.

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