update pubs and talks
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\begin{etaremune}
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\item (Invited talk) Cumulant Green’s function methods for molecules,\\
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Faraday Discussion on Correlated Electronic Structure, London, UK (July 2024).
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\item (Invited talk) New Electronic Structure Methodologies for Electronic Excited States,\\
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ESCMQC 2024, Copenhagen, Denmark (June 2024).
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\item (Departmental seminar) New Electronic Structure Methodologies for Electronic Excited States,\\
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Department of Chemistry, University of Fribourg, Fribourg, Switzerland (April 2024).
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\item (Invited talk) New Electronic Structure Methodologies for Electronic Excited States,\\
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Prospective Meeting on Excited States, Rennes, France (March 2024).
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\item (Departmental seminar) CIPSI: selected configuration interaction methods for ground and excited states,\\
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IQTC meeting 2023, Barcelona, Spain (September 2023).
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\item (Invited talk) A similarity renormalization group (SRG) approach to GW,\\
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3rd Quantum International Frontiers 2023, Lodz, Poland (June 2023).
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\item (Invited talk) CIPSI: selected configuration interaction methods for ground and excited states,\\
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TREX workshop on electronic structure methods for strong correlation, Lodz, Poland (April 2023).
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\item (Invited talk) A similarity renormalization group (SRG) approach to GW,\\
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62nd Sanibel symposium 2023, St Augustine Beach, Florida, US (February 2023).
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\item (Invited talk) Many-body perturbation theory à la coupled cluster,\\
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NHISS 2022, Jeju Island, South Korea (December 2022).
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\item (Invited talk) Hierarchy configuration interaction and state-specific approaches for excited states,\\
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MES 2022, Monastir, Tunisia (September 2022).
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\item (Invited communication) July 2022, State-specific coupled cluster for excited states,\\
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WATOC 2022, Vancouver, Canada.
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@ -38,44 +38,69 @@
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\begin{etaremune}
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\item
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\href{https://arxiv.org/pdf/2403.19597.pdf}{Reference energies for double excitations: improvement \& extension},\\
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\href{https://pfloos.github.io/WEB_LOOS/pub/147.pdf}{Reference CC3 excitation energies for organic chromophores: benchmarking TD-DFT, BSE/GW and wave function methods},\\
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I. Knysh, F. Lipparini, I. Duchemin, X. Blase, \textbf{P. F. Loos*}, and D. Jacquemin*,\\
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\textit{J. Chem. Theory Comput.}, (in press).
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\item
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\href{https://pfloos.github.io/WEB_LOOS/pub/146.pdf}{Selected configuration interaction for resonances},\\
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Y. Damour, A. Scemama, F. Kossoski, and \textbf{P. F. Loos*},\\
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\textit{J. Phys. Chem. Lett.}, \textbf{2024}, \textit{15}, 8296.
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\item
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\href{https://pfloos.github.io/WEB_LOOS/pub/145.pdf}{Improved modularity and new features in ipie: towards even larger AFQMC calculations on CPUs and GPUs at zero and finite temperatures},\\
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T. Jiang, M. K. A. Baumgarten, P. F. Loos, A. Mahajan, A. Scemama, J. Zhang, F. D. Malone, and J. Lee*,\\
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\textit{J. Chem. Phys.}, \textbf{2024}, (submitted).
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\item
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\href{https://pfloos.github.io/WEB_LOOS/pub/144.pdf}{Anomalous propagators and the particle-particle channel: Hedin’s equations},\\
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A. Marie*, P. Romaniello, and \textbf{P. F. Loos*},\\
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\textit{Phys. Rev. B}, \textbf{2024}, (submitted).
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\item
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\href{https://pfloos.github.io/WEB_LOOS/pub/143.pdf}{Compactification of determinant expansions via transcorrelation},\\
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A. Ammar*, A. Scemama, \textbf{P. F. Loos*}, and E. Giner*,\\
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\textit{J. Chem. Phys.}, \textbf{2024}, \textit{161}, 084104.
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\item
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\href{https://pfloos.github.io/WEB_LOOS/pub/142.pdf}{Reference energies for double excitations: improvement \& extension},\\
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F. Kossoski*, M. Boggio-Pasqua*, \textbf{P. F. Loos*}, and D. Jacquemin*,\\
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\textit{J. Chem. Theory Comput.} (submitted).
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\textit{J. Chem. Theory Comput.}, \textbf{2024}, \textit{20}, 5655.
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\item
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\href{https://arxiv.org/pdf/2402.16414.pdf}{Cumulant Green's function methods for molecules},\\
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\href{https://pfloos.github.io/WEB_LOOS/pub/141.pdf}{Cumulant Green's function methods for molecules},\\
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\textbf{P. F. Loos*}, A. Marie, and A. Ammar,\\
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\textit{Faraday Discuss.} (in press).
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\textit{Faraday Discuss.}, (in press).
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\item
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\href{https://arxiv.org/pdf/2402.13877.pdf}{Reference energies for valence ionizations and satellite transitions},\\
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\href{https://pfloos.github.io/WEB_LOOS/pub/140.pdf}{Reference energies for valence ionizations and satellite transitions},\\
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A. Marie* and \textbf{P. F. Loos*},\\
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\textit{J. Chem. Theory Comput.} (in press).
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\textit{J. Chem. Theory Comput.}, \textbf{2024}, \textit{20}, 4751.
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\item
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\href{https://arxiv.org/pdf/2402.13111.pdf}{Go green: selected configuration interaction as a more sustainable alternative for high accuracy},\\
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\href{https://pfloos.github.io/WEB_LOOS/pub/139.pdf}{Go green: selected configuration interaction as a more sustainable alternative for high accuracy},\\
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\textbf{P. F. Loos*}, Y. Damour, A. Ammar, M. Caffarel, F. Kossoski, and A. Scemama,\\
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\textit{J. Phys. Chem. A} (submitted).
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\textit{arXiv}, \textbf{2024}, 2402.13111 [physics.chem-p].
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\item
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\href{https://arxiv.org/pdf/2401.13809.pdf}{A mountaineering strategy to excited states: accurate vertical transition energies and benchmarks for substituted benzenes},\\
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\href{https://pfloos.github.io/WEB_LOOS/pub/138.pdf}{A mountaineering strategy to excited states: accurate vertical transition energies and benchmarks for substituted benzenes},\\
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\textbf{P. F. Loos} and D. Jacquemin*,\\
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\textit{J. Comput. Chem.} (in press).
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\textit{J. Comput. Chem.}, \textbf{2024}, \textit{45}, 1791.
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\item
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\href{https://arxiv.org/pdf/2401.05048.pdf}{State-specific coupled-cluster methods for excited states},\\
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\href{https://pfloos.github.io/WEB_LOOS/pub/137.pdf}{State-specific coupled-cluster methods for excited states},\\
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Y. Damour*, A. Scemama, D. Jacquemin, F. Kossoski*, and \textbf{P. F. Loos*},\\
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\textit{J. Chem. Theory Comput.} (in press).
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\textit{J. Chem. Theory Comput.}, \textbf{2024}, \textit{20}, 4129.
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\item
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\href{https://arxiv.org/pdf/2401.04685.pdf}{Neutral electronic excitations and derivative discontinuities: An extended N-centered ensemble density functional theory perspective},\\
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\href{https://pfloos.github.io/WEB_LOOS/pub/136.pdf}{Neutral electronic excitations and derivative discontinuities: An extended N-centered ensemble density functional theory perspective},\\
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F. Cernatic, \textbf{P. F. Loos}, B. Senjean, and E. Fromager*,\\
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\textit{Phys. Rev. B} (submitted).
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\textit{Phys. Rev. B}, \textbf{2024}, \textit{109}, 235113.
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\item
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\href{https://pfloos.github.io/WEB_LOOS/pub/135.pdf}{Can $GW$ handle multireference systems?},\\
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A. Ammar, A. Marie, M. Rodríguez-Mayorga, H. G. A. Burton, and \textbf{P. F. Loos*},\\
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\textit{J. Chem. Phys.}, 114101 (2024).
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\textit{J. Chem. Phys.}, \textbf{2024}, \textit{160}, 114101.
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\item
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\href{https://pfloos.github.io/WEB_LOOS/pub/134.pdf}{Rationale for the extrapolation procedure in selected configuration interaction},\\
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@ -83,9 +108,9 @@
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\textit{J. Chem. Phys.}, \textbf{2024}, \textit{160}, 104102.
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\item
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\href{https://arxiv.org/pdf/2311.05351.pdf}{The $GW$ approximation: a quantum chemistry perspective},\\
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\href{https://pfloos.github.io/WEB_LOOS/pub/133.pdf}{The $GW$ approximation: a quantum chemistry perspective},\\
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A. Marie, A. Ammar, and \textbf{P. F. Loos*},\\
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\textit{Adv. Quantum Chem.} (in press).
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\textit{Adv. Quantum Chem.}, \textbf{2024}, \textit{90}, 157.
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\item
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\href{https://pfloos.github.io/WEB_LOOS/pub/132.pdf}{Heptazine, cyclazine, and related compounds: chemically-accurate estimates of the inverted singlet-triplet gap},\\
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