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Replace all references with manual strings

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Andreas Tsouchlos
2026-02-04 22:34:48 +01:00
parent a3e6d273a7
commit 979f33a825
1 changed files with 263 additions and 113 deletions
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src/midterm_presentation/main.tex
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@@ -86,6 +86,30 @@
{\typeout{Successfully patched fullwire for classical wires}} {\typeout{Successfully patched fullwire for classical wires}}
{\typeout{Failed to patch fullwire for classical wires}} {\typeout{Failed to patch fullwire for classical wires}}
\makeatletter
\newcommand{\addreferencesmanual}{%
\begin{scriptsize}
\begin{tabular}{lp{0.88\textwidth}}
\@addreferencesimanual
}
\newcommand\@addreferencesimanual{\@ifnextchar\stopreferencesmanual{\@addreferencesendmanual}{\@addreferencesiimanual}}
\newcommand\@addreferencesiimanual[2]{%
\textcolor{kit-green100}{[#1]} & \textcolor{kit-green100}{#2} \\
\@addreferencesimanual % restart the recursion
}
\newcommand\@addreferencesendmanual[1]{% The argument is \stopimages
\end{tabular}
\end{scriptsize}
}
\makeatother
\newcommand{\citereferencemanual}[1]{\textcolor{kit-green100}{\textbf{\scriptsize{[#1]}}}}
% %
% %
% Acronyms % Acronyms
@@ -169,12 +193,12 @@
\item Simulating quantum systems on classical hardware \item Simulating quantum systems on classical hardware
is exponentially complex \\ is exponentially complex \\
$\rightarrow$ Use quantum hardware to simulate quantum $\rightarrow$ Use quantum hardware to simulate quantum
systems \citereference{feynman_simulating_1982} systems \citereferencemanual{Fey82}
\item ``Hard'' to solve problems on classical computers can \item ``Hard'' to solve problems on classical computers can
be ``easy'' on quantum computers be ``easy'' on quantum computers
\citereference{preskill_quantum_2018} \citereferencemanual{Pre18}
\item Google Quantum AI's quantum computing roadmap \item Google Quantum AI's quantum computing roadmap
\citereference{google_quantum_ai_quantum_nodate} \citereferencemanual{Goo23}
\end{itemize} \end{itemize}
\vspace*{3mm} \vspace*{3mm}
@@ -186,11 +210,20 @@
\vspace*{3mm} \vspace*{3mm}
\addreferences \addreferencesmanual
{feynman_simulating_1982} {Fey82}{
{preskill_quantum_2018} R. P. Feynman, ``Simulating physics with computers,'',
{google_quantum_ai_quantum_nodate} \emph{International Journal of Theoretical Physics}, 1982.
\stopreferences }
{Pre18}{
J. Preskill, ``Quantum Computing in the NISQ era and
beyond,'' \emph{Quantum}, 2018.
}
{Goo23}{
Google Quantum AI, \emph{Quantum Computing Roadmap}, URL:
\url{https://quantumai.google/qecmilestone2023}, 2023.
}
\stopreferencesmanual
\end{frame} \end{frame}
% TODO: Where should I quote Preskill? There are multiple bullet % TODO: Where should I quote Preskill? There are multiple bullet
@@ -225,7 +258,7 @@
\item Quantum systems are inherently fragile \item Quantum systems are inherently fragile
\item Interacting with the quantum state disturbs it \item Interacting with the quantum state disturbs it
\item Idea: Represent \schlagwort{logical qubits} using more \item Idea: Represent \schlagwort{logical qubits} using more
\schlagwort{physical qubits} \citereference{roffe_quantum_2019} \schlagwort{physical qubits} \citereferencemanual{Rof19}
\vspace*{2mm} \vspace*{2mm}
@@ -258,26 +291,36 @@
\begin{itemize} \begin{itemize}
\item Recent scheme by IBM encodes $12$ logical \item Recent scheme by IBM encodes $12$ logical
qubits in $288$ physical ones qubits in $288$ physical ones
\citereference{bravyi_high-threshold_2024} \citereferencemanual{BCG$^+$24}
\item Physical error rate typically set to $10^{-3}$ \item Physical error rate typically set to $10^{-3}$
for simulations (e.g., for simulations (e.g.,
\citereference{bravyi_high-threshold_2024}) \citereferencemanual{BCG$^+$24})
\item Decode with ultra-low latency to avoid \item Decode with ultra-low latency to avoid
\schlagwort{backlog problem} (about \schlagwort{backlog problem} (about
$\SI{1}{\micro s}$ per data \\ $\SI{1}{\micro s}$ per data \\
extraction round) extraction round)
\citereference{caune_demonstrating_2024} \citereferencemanual{CSB$^+$24}
\end{itemize} \end{itemize}
} }
\end{itemize} \end{itemize}
\vspace*{10mm} \vspace*{10mm}
\addreferences \addreferencesmanual
{roffe_quantum_2019} {Rof19}{
{bravyi_high-threshold_2024} J. Roffe, ``Quantum error correction: An introductory
{caune_demonstrating_2024} guide,'' \emph{Contemporary Physics}, 2019.
\stopreferences }
{BCG$^+$24}{
S. Bravyi et al., ``High-threshold and low-overhead
fault-tolerant quantum memory,'' \emph{Nature}, 2024.
}
{CSB$^+$24}{
L. Caune et al., ``Demonstrating real-time and low-latency
quantum error correction with superconducting qubits'',
\emph{arXiv:2410.05202}, 2024.
}
\stopreferencesmanual
\end{frame} \end{frame}
%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%
@@ -311,7 +354,7 @@
\item Classical systems built with bits and gates, quantum \item Classical systems built with bits and gates, quantum
systems with qubits and quantum gates systems with qubits and quantum gates
\item We have to consider phase flip errors in addition to \item We have to consider phase flip errors in addition to
bit flip errors \citereference{roffe_quantum_2019} bit flip errors \citereferencemanual{Rof19}
\end{itemize} \end{itemize}
\vspace*{-3mm} \vspace*{-3mm}
@@ -355,22 +398,31 @@
\item Measuring the qubits directly destroys superpositions \item Measuring the qubits directly destroys superpositions
and entanglement \\ and entanglement \\
$\rightarrow$ Use syndrome for decoding $\rightarrow$ Use syndrome for decoding
\citereference{nielsen_quantum_2010} \citereferencemanual{NC10}
} }
\visible<3>{ \visible<3>{
\item Superposition $\rightarrow$ multiple solutions to the \item Superposition $\rightarrow$ multiple solutions to the
decoding problem decoding problem
(\schlagwort{quantum degeneracy}) (\schlagwort{quantum degeneracy})
\citereference{roffe_decoding_2020}} \citereferencemanual{RWB$^+$20}}
\end{itemize} \end{itemize}
\vspace*{12mm} \vspace*{12mm}
\addreferences \addreferencesmanual
{nielsen_quantum_2010} {Rof19}{
{roffe_quantum_2019} J. Roffe, ``Quantum error correction: An introductory
{roffe_decoding_2020} guide,'' \emph{Contemporary Physics}, 2019.
\stopreferences }
{NC10}{
M. A. Nielsen and I. L. Chuang, ``Quantum Computation and
Quantum Information'', \emph{Cambridge University Press}, 2010.
}
{RWB$^+$20}{
J. Roffe et al., ``Decoding across the quantum low-density
parity-check code landscape,'' \emph{Physical Review Research}, 2020.
}
\stopreferencesmanual
\end{frame} \end{frame}
\begin{frame} \begin{frame}
@@ -387,7 +439,7 @@
% of one another" % of one another"
\begin{itemize} \begin{itemize}
\item Stabilizer codes \citereference{nielsen_quantum_2010} \item Stabilizer codes \citereferencemanual{NC10}
\begin{itemize} \begin{itemize}
\item Implicitly defined using \schlagwort{stabilizer \item Implicitly defined using \schlagwort{stabilizer
generators} generators}
@@ -396,7 +448,7 @@
\end{itemize} \end{itemize}
\vspace*{10mm} \vspace*{10mm}
\visible<2->{ \visible<2->{
\item \Acf{css} codes \citereference{nielsen_quantum_2010} \item \Acf{css} codes \citereferencemanual{NC10}
\begin{itemize} \begin{itemize}
\item Subset of stabilizer codes \item Subset of stabilizer codes
\item Able to correct $\X$ and $\Z$ errors independently \item Able to correct $\X$ and $\Z$ errors independently
@@ -412,9 +464,12 @@
\vspace*{20mm} \vspace*{20mm}
\addreferences \addreferencesmanual
{nielsen_quantum_2010} {NC10}{
\stopreferences M. A. Nielsen and I. L. Chuang, ``Quantum Computation and
Quantum Information'', \emph{Cambridge University Press}, 2010.
}
\stopreferencesmanual
\end{frame} \end{frame}
% TODO: Do I need to show what the syndrome extraction circuitry for % TODO: Do I need to show what the syndrome extraction circuitry for
@@ -427,7 +482,7 @@
\begin{itemize} \begin{itemize}
\item Entangle the state $\ket{\psi}$ with \item Entangle the state $\ket{\psi}$ with
\schlagwort{ancilla qubits} to perform syndrome \schlagwort{ancilla qubits} to perform syndrome
measurements \citereference{nielsen_quantum_2010} measurements \citereferencemanual{NC10}
\item Example: The 3-qubit repetition code for $\X$ errors \item Example: The 3-qubit repetition code for $\X$ errors
\end{itemize} \end{itemize}
@@ -473,9 +528,12 @@
\vspace*{10mm} \vspace*{10mm}
\addreferences \addreferencesmanual
{nielsen_quantum_2010} {NC10}{
\stopreferences M. A. Nielsen and I. L. Chuang, ``Quantum Computation and
Quantum Information'', \emph{Cambridge University Press}, 2010.
}
\stopreferencesmanual
\end{frame} \end{frame}
%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
@@ -498,7 +556,7 @@
$\rightarrow$ Need for \schlagwort{fault-tolerant} \acf{qec} $\rightarrow$ Need for \schlagwort{fault-tolerant} \acf{qec}
\item In addition to correcting \schlagwort{input errors}, \item In addition to correcting \schlagwort{input errors},
limit spread of \schlagwort{internal errors} limit spread of \schlagwort{internal errors}
\citereference{derks_designing_2025} \citereferencemanual{DTB$^+$25}
\end{itemize} \end{itemize}
\vspace*{3mm} \vspace*{3mm}
@@ -533,17 +591,23 @@
\visible<2->{ \visible<2->{
\item Modify syndrome extraction circuitry (e.g., multi-qubit \item Modify syndrome extraction circuitry (e.g., multi-qubit
states for each ancilla states for each ancilla
\citereference{shor_fault-tolerant_1997}) \citereferencemanual{Sho97})
\item Multiple rounds of syndrome extraction \item Multiple rounds of syndrome extraction
} }
\end{itemize} \end{itemize}
\vspace*{15mm} \vspace*{15mm}
\addreferences \addreferencesmanual
{shor_fault-tolerant_1997} {DTB$^+$25}{
{derks_designing_2025} P.- J. H. S. Derks et al., ``Designing fault-tolerant
\stopreferences circuits using detector error models,'' \emph{Quantum}, 2025.
}
{Sho97}{
P. W. Shor, ``Fault-tolerant quantum computation,''
\emph{arXiv:quant-ph/9605011}, 1997.
}
\stopreferencesmanual
\end{frame} \end{frame}
%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%
@@ -557,7 +621,7 @@
\begin{itemize} \begin{itemize}
\item \schlagwort{Measurement syndrome matrix} $\bm{\Omega}$ \\ \item \schlagwort{Measurement syndrome matrix} $\bm{\Omega}$ \\
contains error patterns \citereference{derks_designing_2025} contains error patterns \citereferencemanual{DTB$^+$25}
\item Example: 3-qubit repetition code \item Example: 3-qubit repetition code
\end{itemize} \end{itemize}
@@ -810,9 +874,12 @@
\vspace*{8mm} \vspace*{8mm}
\addreferences \addreferencesmanual
{derks_designing_2025} {DTB$^+$25}{
\stopreferences P.- J. H. S. Derks et al., ``Designing fault-tolerant
circuits using detector error models,'' \emph{Quantum}, 2025.
}
\stopreferencesmanual
\end{frame} \end{frame}
\begin{frame}[fragile] \begin{frame}[fragile]
@@ -822,7 +889,7 @@
\begin{itemize} \begin{itemize}
\item \schlagwort{Measurement syndrome matrix} $\bm{\Omega}$ \\ \item \schlagwort{Measurement syndrome matrix} $\bm{\Omega}$ \\
contains error patterns \citereference{derks_designing_2025} contains error patterns \citereferencemanual{DTB$^+$25}\
\item Example: 3-qubit repetition code \item Example: 3-qubit repetition code
\end{itemize} \end{itemize}
@@ -1112,9 +1179,12 @@
\vspace*{4mm} \vspace*{4mm}
\addreferences \addreferencesmanual
{derks_designing_2025} {DTB$^+$25}{
\stopreferences P.- J. H. S. Derks et al., ``Designing fault-tolerant
circuits using detector error models,'' \emph{Quantum}, 2025.
}
\stopreferencesmanual
\end{frame} \end{frame}
% TODO: Journal not showing for derks_designing_2025 % TODO: Journal not showing for derks_designing_2025
@@ -1202,15 +1272,18 @@
\item A detector is a parity constraint on a set of \item A detector is a parity constraint on a set of
measurement outcomes measurement outcomes
\item The \schlagwort{detector error matrix} $\bm{H}$ contains \item The \schlagwort{detector error matrix} $\bm{H}$ contains
modified error patterns \citereference{derks_designing_2025} modified error patterns \citereferencemanual{DTB$^+$25}\
\end{itemize} \end{itemize}
} }
\vspace*{10mm} \vspace*{10mm}
\addreferences \addreferencesmanual
{derks_designing_2025} {DTB$^+$25}{
\stopreferences P.- J. H. S. Derks et al., ``Designing fault-tolerant
circuits using detector error models,'' \emph{Quantum}, 2025.
}
\stopreferencesmanual
\end{frame} \end{frame}
\begin{frame} \begin{frame}
@@ -1250,7 +1323,7 @@
\begin{itemize} \begin{itemize}
\item E.g., for \ac{bb} codes under circuit-level noise \item E.g., for \ac{bb} codes under circuit-level noise
\citereference{gong_toward_2024} \citereferencemanual{GCR24}
\end{itemize} \end{itemize}
\vspace*{-4mm} \vspace*{-4mm}
@@ -1268,9 +1341,12 @@
\vspace*{5mm} \vspace*{5mm}
\addreferences \addreferencesmanual
{gong_toward_2024} {GCR24}{A. Gong, S. Cammerer, and J. M. Renes, ``Toward
\stopreferences Low-latency Iterative Decoding of QLDPC Codes Under
Circuit-Level Noise,'', 2024.
}
\stopreferencesmanual
\end{frame} \end{frame}
\begin{frame}[fragile] \begin{frame}[fragile]
@@ -1299,7 +1375,7 @@
\begin{itemize} \begin{itemize}
\visible<1->{ \visible<1->{
\item The \schlagwort{depolarizing channel} considers \item The \schlagwort{depolarizing channel} considers
\citereference{nielsen_quantum_2010} \citereferencemanual{NC10}
\begin{itemize} \begin{itemize}
\item $\X$, $\Y$ or $\Z$ errors on \item $\X$, $\Y$ or $\Z$ errors on
the data qubits the data qubits
@@ -1307,7 +1383,7 @@
} }
\visible<2->{ \visible<2->{
\item \schlagwort{Phenomenological noise} considers \item \schlagwort{Phenomenological noise} considers
\citereference{derks_designing_2025} \citereferencemanual{DTB$^+$25}
\begin{itemize} \begin{itemize}
\item $\X$ errors on data qubits before each \\ \item $\X$ errors on data qubits before each \\
measurement round measurement round
@@ -1316,7 +1392,7 @@
} }
\visible<3->{ \visible<3->{
\item \schlagwort{Circuit-level noise} considers \item \schlagwort{Circuit-level noise} considers
\citereference{derks_designing_2025} \citereferencemanual{DTB$^+$25}
\begin{itemize} \begin{itemize}
\item $\X$, $\Y$ or $\Z$ errors after \item $\X$, $\Y$ or $\Z$ errors after
state preparation state preparation
@@ -1395,10 +1471,16 @@
\vspace*{8mm} \vspace*{8mm}
\addreferences \addreferencesmanual
{nielsen_quantum_2010} {NC10}{
{derks_designing_2025} M. A. Nielsen and I. L. Chuang, ``Quantum Computation and
\stopreferences Quantum Information'', \emph{Cambridge University Press}, 2010.
}
{DTB$^+$25}{
P.- J. H. S. Derks et al., ``Designing fault-tolerant
circuits using detector error models,'' \emph{Quantum}, 2025.
}
\stopreferencesmanual
\end{frame} \end{frame}
\begin{frame} \begin{frame}
@@ -1416,7 +1498,7 @@
matrix and a noise model matrix and a noise model
\visible<2->{ \visible<2->{
\item Tanner graph of detector error matrix of \ac{bb} code \item Tanner graph of detector error matrix of \ac{bb} code
\citereference{koutsioumpas_automorphism_2025} \citereferencemanual{KSW$^+$25}
} }
\end{itemize} \end{itemize}
@@ -1436,20 +1518,32 @@
\begin{itemize} \begin{itemize}
\item Repeated syndrome measurements lead to \item Repeated syndrome measurements lead to
increased decoding complexity increased decoding complexity
\citereference{gong_toward_2024} \citereferencemanual{GCR24}
\item Degeneracy and short cycles lead to degraded \item Degeneracy and short cycles lead to degraded
performance of \ac{bp} performance of \ac{bp}
\citereference{babar_fifteen_2015} \citereferencemanual{BBA$^+$15}
\end{itemize} \end{itemize}
\end{itemize} \end{itemize}
} }
\vspace*{20mm} \vspace*{20mm}
\addreferences \addreferencesmanual
{babar_fifteen_2015} {KSW$^+$25}{
{gong_toward_2024} S. Koutsioumpas et al., ``Automorphism Ensemble Decoding of
\stopreferences{} Quantum LDPC Codes,'' \emph{arXiv:2503.01738}, 2025.
}
{GCR24}{
A. Gong, S. Cammerer, and J. M. Renes, ``Toward
Low-latency Iterative Decoding of QLDPC Codes Under
Circuit-Level Noise,'' 2024.
}
{BBA$^+$15}{
Z. Babar et al., ``Fifteen Years of
Quantum LDPC Coding and Improved Decoding Strategies,''
\emph{IEEE Access}, 2015.
}
\stopreferencesmanual
\end{frame} \end{frame}
%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
@@ -1469,36 +1563,61 @@
\begin{itemize} \begin{itemize}
\item Decoding complexity addressed with window-based approaches \item Decoding complexity addressed with window-based approaches
\begin{itemize} \begin{itemize}
\item Parallel decoding \citereference{skoric_parallel_2023} \item Parallel decoding \citereferencemanual{SBB$^+$23}
\item Sliding windows \item Sliding windows
\citereference{huang_improved_2023} \citereferencemanual{HP23}
\citereference{gong_toward_2024} \citereferencemanual{GCR24}
\end{itemize} \end{itemize}
\item Degraded \ac{bp} performance addressed with \item Degraded \ac{bp} performance addressed with
modification or extension modification or extension
\begin{itemize} \begin{itemize}
\item \Ac{osd} post-processing \item \Ac{osd} post-processing
\citereference{roffe_decoding_2020} \citereferencemanual{RWB$^+$20}
\item Guided decimation \citereference{gong_toward_2024} \item Guided decimation \citereferencemanual{GCR24}
\item Neural approaches \item Neural approaches
\citereference{kuo_exploiting_2022} \citereferencemanual{KL22}
\citereference{miao_quaternary_2025} \citereferencemanual{MSL$^+$25}
\item Ensemble decoding \item Ensemble decoding
\citereference{koutsioumpas_automorphism_2025} \citereferencemanual{KSW$^+$25}
\end{itemize} \end{itemize}
\end{itemize} \end{itemize}
\vspace*{5mm} \vspace*{5mm}
\addreferences \addreferencesmanual
{roffe_decoding_2020} {SBB$^+$23}{
{kuo_exploiting_2022} L. Skoric et al., ``Parallel window decoding enables scalable
{huang_improved_2023} fault tolerant quantum computation,'' \emph{Nature
{skoric_parallel_2023} Communications}, 2023.
{gong_toward_2024} }
{miao_quaternary_2025} {HP23}{
{koutsioumpas_automorphism_2025} S. Huang and S. Puri, ``Improved Noisy Syndrome Decoding of
\stopreferences Quantum LDPC Codes with Sliding Window,'' \emph{arXiv:2311.03307}, 2023.
}
{GCR24}{
A. Gong, S. Cammerer, and J. M. Renes, ``Toward
Low-latency Iterative Decoding of QLDPC Codes Under
Circuit-Level Noise,'' 2024.
}
{RWB$^+$20}{
J. Roffe, et al., ``Decoding across the quantum low-density
parity-check code landscape,'' \emph{Physical Review}, 2020.
}
{KL22}{
K.- Y. Kuo and C.- Y. Lai, ``Exploiting degeneracy in belief
propagation decoding of quantum codes,'' \emph{npj Quantum
Information}, 2022.
}
{MSL$^+$25}{
S. Miao et al., ``Quaternary Neural Belief Propagation
Decoding of Quantum LDPC Codes with Overcomplete
Check Matrices'', \emph{IEEE Access}, 2025.
}
{KSW$^+$25}{
S. Koutsioumpas et al., ``Automorphism Ensemble Decoding of
Quantum LDPC Codes,'' \emph{arXiv:2503.01738}, 2025.
}
\stopreferencesmanual
\end{frame} \end{frame}
% TODO: Understand update equation for s_2' % TODO: Understand update equation for s_2'
@@ -1508,7 +1627,7 @@
\vspace*{-15mm} \vspace*{-15mm}
\begin{itemize} \begin{itemize}
\item Approach taken in \citereference{gong_toward_2024} \item Approach taken in \citereferencemanual{GCR24}
resembles \acf{scldpc} code resembles \acf{scldpc} code
\item They try \ac{bp} + \ac{osd} and a modification of \item They try \ac{bp} + \ac{osd} and a modification of
\ac{bp} with guided decimation \ac{bp} with guided decimation
@@ -1602,9 +1721,13 @@
\vspace*{8mm} \vspace*{8mm}
\addreferences \addreferencesmanual
{gong_toward_2024} {GCR24}{
\stopreferences A. Gong, S. Cammerer, and J. M. Renes, ``Toward
Low-latency Iterative Decoding of QLDPC Codes Under
Circuit-Level Noise,'' 2024.
}
\stopreferencesmanual
\end{frame} \end{frame}
%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%
@@ -1635,12 +1758,12 @@
\item Future directions \item Future directions
\begin{itemize} \begin{itemize}
\item Adapt modified guided decimation decoder from \item Adapt modified guided decimation decoder from
\citereference{gong_toward_2024} to pass soft \citereferencemanual{GCR24} to pass soft
information information
\item Investigate performance of different \item Investigate performance of different
modifications of \ac{bp} for "inner decoder" modifications of \ac{bp} for "inner decoder"
(e.g., quaternary neural \ac{bp} (e.g., quaternary neural \ac{bp}
\citereference{miao_quaternary_2025}) \citereferencemanual{MSL$^+$25})
\item \ldots \item \ldots
\end{itemize} \end{itemize}
} }
@@ -1648,10 +1771,18 @@
\vspace*{10mm} \vspace*{10mm}
\addreferences \addreferencesmanual
{gong_toward_2024} {GCR24}{
{miao_quaternary_2025} A. Gong, S. Cammerer, and J. M. Renes, ``Toward
\stopreferences Low-latency Iterative Decoding of QLDPC Codes Under
Circuit-Level Noise,'' 2024.
}
{MSL$^+$25}{
S. Miao et al., ``Quaternary Neural Belief Propagation
Decoding of Quantum LDPC Codes with Overcomplete
Check Matrices'', \emph{IEEE Access}, 2025.
}
\stopreferencesmanual
\end{frame} \end{frame}
% TODO: Organize sections properly % TODO: Organize sections properly
@@ -1669,9 +1800,9 @@
\begin{itemize} \begin{itemize}
\item \red{For circuit-level noise, often, all error probabilities \item \red{For circuit-level noise, often, all error probabilities
are set to the same value for simulations are set to the same value for simulations
\citereference{fowler_high-threshold_2009}} \citereferencemanual{FSG09}}
\item \red{There are other approaches (e.g., SDMB noise, SI noise) \item \red{There are other approaches (e.g., SDMB noise, SI noise)
\citereference{derks_designing_2025}} \citereferencemanual{DTB$^+$25}}
\end{itemize} \end{itemize}
\vspace*{10mm} \vspace*{10mm}
@@ -1683,10 +1814,17 @@
\vspace*{15mm} \vspace*{15mm}
\addreferences \addreferencesmanual
{derks_designing_2025} {FSG09}{
{fowler_high-threshold_2009} A. G. Fowler, A. M. Stephens, and P. Groszkowski,
\stopreferences ``High-threshold universal quantum computation on the surface
code,'' \emph{Physical Review}, 2009.
}
{DTB$^+$25}{
P.- J. H. S. Derks et al., ``Designing fault-tolerant
circuits using detector error models,'' \emph{Quantum}, 2025.
}
\stopreferencesmanual
\end{frame} \end{frame}
%%%%%%%%%%%%%%%% %%%%%%%%%%%%%%%%
@@ -1704,7 +1842,7 @@
\item \red{Memory or stability experiment} \item \red{Memory or stability experiment}
\item \red{Figure of merit: Footprint plot} \item \red{Figure of merit: Footprint plot}
\item \red{Comparison with BB code also simulated by \item \red{Comparison with BB code also simulated by
\citereference{gong_toward_2024}} \citereferencemanual{GCR24}}
\item \red{Comparison with surface code} \item \red{Comparison with surface code}
\end{itemize} \end{itemize}
\end{minipage}% \end{minipage}%
@@ -1742,7 +1880,7 @@
\vspace*{5mm} \vspace*{5mm}
\caption{Schematic workflow of surface code quantum \caption{Schematic workflow of surface code quantum
computation \citereference{zhang_classical_2023}.} computation \citereferencemanual{ZZC$^+$23}.}
\end{subfigure}% \end{subfigure}%
\begin{subfigure}[t]{0.5\textwidth} \begin{subfigure}[t]{0.5\textwidth}
\centering \centering
@@ -1791,16 +1929,24 @@
\vspace*{5mm} \vspace*{5mm}
\caption{Block diagram of QEC using stabilizer codes \caption{Block diagram of QEC using stabilizer codes
\citereference{miao_quaternary_2025}.} \citereferencemanual{MSL$^+$25}.}
\end{subfigure} \end{subfigure}
\end{figure} \end{figure}
% \vspace*{-2mm} % \vspace*{-2mm}
\addreferences \addreferencesmanual
{zhang_classical_2023} {ZZC$^+$23}{
{miao_quaternary_2025} F. Zhang et al., ``A Classical Architecture for Digital
\stopreferences Quantum Computers,'' \emph{ACM Transactions on Quantum
Computing}, 2023.
}
{MSL$^+$25}{
S. Miao et al., ``Quaternary Neural Belief Propagation
Decoding of Quantum LDPC Codes with Overcomplete
Check Matrices'', \emph{IEEE Access}, 2025.
}
\stopreferencesmanual
\end{frame} \end{frame}
\begin{frame} \begin{frame}
@@ -1812,9 +1958,13 @@
\vspace*{25mm} \vspace*{25mm}
\addreferences \addreferencesmanual
{gong_toward_2024} {GCR24}{
\stopreferences A. Gong, S. Cammerer, and J. M. Renes, ``Toward
Low-latency Iterative Decoding of QLDPC Codes Under
Circuit-Level Noise,'' 2024.
}
\stopreferencesmanual
\end{frame} \end{frame}
% TODO: Is this really necessary? % TODO: Is this really necessary?