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\begin{thebibliography}{12}
\providecommand{\natexlab}[1]{#1}
\providecommand{\url}[1]{\texttt{#1}}
\renewcommand{\UrlFont}{\rmfamily}
\providecommand{\urlprefix}{URL }
\expandafter\ifx\csname urlstyle\endcsname\relax
  \providecommand{\doi}[1]{https://doi.org/\discretionary{}{}{}#1}\else
  \providecommand{\doi}{https://doi.org/\discretionary{}{}{}\begingroup
  \urlstyle{rm}\Url}\fi
\providecommand{\eprint}[2][]{\url{#2}}

\bibitem[{WIN(2022)}]{WINDCAP}
, 2022: Vaisala,
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\bibitem[{Brooks and Correia~Jr(2018)Brooks, and Correia~Jr}]{brooks2018long}
Brooks, H.~E., and J.~Correia~Jr, 2018: Long-term performance metrics for
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\bibitem[{Brotzge et~al.(2013)Brotzge, Nelson, Thompson,, and
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Brotzge, J.~A., S.~E. Nelson, R.~L. Thompson, and B.~T. Smith, 2013: Tornado
  probability of detection and lead time as a function of convective mode and
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\bibitem[{Browning(1962)}]{browning1962sup}
Browning, K.~A., 1962: Cellular structure of convective storms. \textit{The
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\bibitem[{Browning(1964)}]{browning1964airflow}
Browning, K.~A., 1964: Airflow and precipitation trajectories within severe
  local storms which travel to the right of the winds. \textit{Journal of
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\bibitem[{Coffer et~al.(2020)Coffer, Taszarek,, and Parker}]{coffer2020near}
Coffer, B.~E., M.~Taszarek, and M.~D. Parker, 2020: Near-ground wind profiles
  of tornadic and nontornadic environments in the united states and europe from
  era5 reanalyses. \textit{Weather and Forecasting}, \textbf{35~(6)},
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\bibitem[{Coniglio and Parker(2020)Coniglio, and Parker}]{coniglio2020insights}
Coniglio, M.~C., and M.~D. Parker, 2020: Insights into supercells and their
  environments from three decades of targeted radiosonde observations.
  \textit{Monthly Weather Review}, \textbf{148~(12)}, 4893--4915.

\bibitem[{Lemon and Doswell~III(1979)Lemon, and Doswell~III}]{lemon1979severe}
Lemon, L.~R., and C.~A. Doswell~III, 1979: Severe thunderstorm evolution and
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\bibitem[{Nowotarski and Jensen(2013)Nowotarski, and
  Jensen}]{nowotarski2013classifying}
Nowotarski, C.~J., and A.~A. Jensen, 2013: Classifying proximity soundings with
  self-organizing maps toward improving supercell and tornado forecasting.
  \textit{Weather and forecasting}, \textbf{28~(3)}, 783--801.

\bibitem[{Parker(2014)}]{parker2014composite}
Parker, M.~D., 2014: Composite vortex2 supercell environments from near-storm
  soundings. \textit{Monthly Weather Review}, \textbf{142~(2)}, 508--529.

\bibitem[{Peters et~al.(2023)Peters, Coffer, Parker, Nowotarski, Mulholland,
  Nixon,, and Allen}]{peters2023disentangling}
Peters, J.~M., B.~E. Coffer, M.~D. Parker, C.~J. Nowotarski, J.~P. Mulholland,
  C.~J. Nixon, and J.~T. Allen, 2023: Disentangling the influences of
  storm-relative flow and horizontal streamwise vorticity on low-level
  mesocyclones in supercells. \textit{Journal of the Atmospheric Sciences},
  \textbf{80~(1)}, 129--149.

\bibitem[{Waugh(2021)}]{waugh2021u}
Waugh, S.~M., 2021: The “u-tube”: An improved aspirated temperature system
  for mobile meteorological observations, especially in severe weather.
  \textit{Journal of Atmospheric and Oceanic Technology}, \textbf{38~(9)},
  1477--1489.

\end{thebibliography}