Skip to main content
Search
Get published
Explore Journals
Books
About
My account
Search all SpringerOpen articles
Search
EPJ Quantum Technology
About
Articles
Submission Guidelines
Submit manuscript
Table 2 Resonator properties. Extracted parameters for the two films with varying dielectric configurations. The sheet resistance
\(R^{\mathrm{sq,dc}}\)
and critical temperature
\(T_{c}^{\mathrm{dc}}\)
are obtained from a dc measurement. The rf sheet kinetic inductance
\(L_{\mathrm{k}}^{\mathrm{sq,rf}}\)
is independently inferred from the 8 measured resonance frequencies of either film, where the error represents the root variance.
\(Q_{\mathrm{TLS}}\)
,
\(Q_{\mathrm{other}}\)
,
\(n_{c}\)
and
β
are fit parameters of Eq. (
3
). The paramagnetic impurities leading to the feature in Fig.Â
4
a) are characterized by the minimum internal Q-factor
\(Q_{i}^{s}\)
and feature width
\(\Delta _{s}\)
. The values of
D
,
\(Q_{\mathrm{TLS}}\)
,
\(Q_{\mathrm{other}}\)
,
\(n_{c}\)
,
β
,
\(Q_{i}^{s}\)
, and
\(\Delta _{s}\)
represent weighted averages over the data sets of 4 resonators of either dielectric configuration with weights proportional to the inverse of the error bar of the fit, resulting in a maximum weight, if
\(Q_{c}\sim Q_{i}\)
for which the resonance is most pronounced.
\(g_{s}\)
is the LandĂ© g-factor extracted from Fig.Â
4
b). The color code corresponds to Fig.Â
1
b)
From:
Performance of high impedance resonators in dirty dielectric environments
Back to article page