Dominika Viglaska, Xiao-Gang WANG, AND Tucker Carrington,
âUsing a basis of products of contracted intra-molecular and contracted
inter-molecular functions to compute the ro-vibrational spectrum of H2O-HFâ,
Journal of Chemical Physics 162, 144311-1 â 144311-16 (2025)
MARCIN STACHOWIAK, EWELINA GRABOWSKA, XIAO-GANG WANG, TUCKER CARRINGTON, KRZYSZTOF SZALEWICZ, AND PIOTR JANKOWSKI,
âHow important are monomer-flexibility effects for spectra H2âCO?â, Journal of Physical Chemistry Letters, xxx, yyy-1 â zzz-w (2025)
Xiao-Gang Wang and Tucker Carrington,
âUsing an uncontracted inter-molecular basis to assess the convergence of contracted inter-molecular bases when computing the spectrum of H2O-C°żâ,
Molecular Physics xxx, yy-1 â yy-13 (2024) DOI: 10.1080/00268976.2025.2466666
Xiao-Gang Wang, Shuo Yang, Dong H. Zhang, and Tucker Carrington,
âA numerically exact calculation of vibration-rotation-tunnelling levels of water dimer on a new accurate potential energy surface: achieving sub-cm-1 accuracy from the terahertz to the infraredâ,
Journal of Chemical Physics 163, 144308-1 â 144308-20 (2025)
Aling Jing, Xiao-Gang Wang, Krzysztof Szalewicz, and Tucker Carrington,
âBreaking the 1 cm-1 error limit in first-principles calculations of water dimer vibration-rotation-tunnellingâ,
Journal of Physical Chemistry Letters 16, 10923 â 10931 (2025)
Luca Corneo and Tucker Carrington,
âCircumventing problems introduced by matrix asymmetry in collocation calculations of vibrational spectra by exploiting near symmetryâ,
Journal of Chemical Physics 163, 054107-1 â 054107-9 (2025)
Xiao-Gang Wang and Tucker Carrington,
âA two-step quadrature-based variational calculation of ro-vibrational levels and wavefunctions of CO2 using a bisector-x body-fixed frameâ,
Physical Chemistry Chemical Physics, 26, 15181 â 15191 (2024)
Selected by Editors as 2024 HOT PCCP article.
Robert Wodraszka and Tucker Carrington Jr.,
âUsing a pruned basis and a pruned collocation grid with more points than basis functions to do efficient and accurate MCTDH calculations on general potential energy surfacesâ,
Journal of Chemical Physics, 160, 214121-1 â 214121-19 (2024)
SERGEI MANZHOS, TUCKER CARRINGTON, AND MANABU IHARA,
âOrders of coupling representations as a versatile framework for machine learning from sparse data in high-dimensional spacesâ,
Artificial Intelligence Chemistry, 1, 100008-1 â 100008-10 (2023)
Michael Rey and Tucker Carrington,
âUsing nested tensor train contracted basis functions with group theoretical techniques to compute (ro)-vibrational spectra of molecules with non-Abelian groupsâ,
Journal of Chemical Physics, 161, 044102-1 â 044102-15 (2024)
Marcin Stachowiak, Ewelina Grabowska, Xiao-Gang Wang, Tucker Carrington Jr., Krzysztof Szalewicz, and Piotr Jankowski,
âTheory cracks old data: rovibrational energy levels of orthoH2-CO derived from experimentâ,
Science Advances, 10, eadj8632-1 â eadj8632-7 (2024)
JESSE SIMMONS AND TUCKER CARRINGTON JR.,
âComputing vibrational spectra using a new collocation method with a pruned basis and more points than basis functions: avoiding quadratureâ,
Selected as Editors Pick
Journal of Chemical Physics, 158 144115-1 â 144115-12 (2023)
SERGEI MANZHOS, MANABU IHARA, AND TUCKER CARRINGTON,
âUsing Collocation to Solve the Schrödinger equationâ,
Journal of Chemical Theory and Computation 19 1641-1656 (2023)
SANGEETH DAS KALLULLATHIL AND TUCKER CARRINGTON,
âComputing vibrational energy levels using a canonical polyadic tensor method with a fixed rank and a contraction treeâ,
Journal of Chemical Physics 158, 214102-1 â 214102-8 (2023)
NUOYAN YANG, SPENCER HILL, SERGEI MANZHOS, AND TUCKER CARRINGTON JR.,
âA local Gaussian Process method for fitting potential energy surfaces that obviates the need to invert large matricesâ,
Journal of Molecular Spectroscopy 393, 111774-1 â 111774-5 (2023)
XIAO-GANG WANG AND TUCKER CARRINGTON,
âComputing excited OH stretch states of water dimer in 12-D using contracted intermolecular and intramolecular basis functionsâ,
Journal of Chemical Physics 158, 084107-1 â 084107-22 (2023)
DOMINIKA VIGLASKA, XIAO-GANG WANG, TUCKER CARRINGTON, AND DAVID TEW,
âTheoretical study of the rovibrational levels of H2°ż-±áčóâ,
Journal of Molecular Spectroscopy 138, 111586-1 â 11587-15 (2022)
SANGEETH DAS KALLULLATHIL AND TUCKER CARRINGTON,
âComputing vibrational energy levels by solving linear equations using a tensor method with an imposed rankâ,
Journal of Chemical Physics 155, 234105-1 â 234105-11 (2021)
SERGEI MANZHOS, MANABU IHARA AND TUCKER CARRINGTON,
âVibrational spectra with machine learningâ,
in the book Quantum Chemistry in the Age of Machine Learning, Elsevier, edited by P. Dral (2022)
TUCKER CARRINGTON,
âCollocation methods for computing vibrational spectraâ,
in the book A Computational Approach to Vibrational Dynamics of Molecules, World Scientific Press, edited by J. Bowman (2021)
JESSE SIMMONS AND TUCKER CARRINGTON,
âUsing collocation and solutions for a sum-of-product potential to compute vibrational energy levels for general potentialsâ,
Chemical Physics Letters 781, 138967-1 â 138967-5 (2021)
ROBERT WODRASZKA AND TUCKER CARRINGTON JR.,
âA rectangular collocation multi-configuration time-dependent Hartree method using more points than basis functionsâ,
Journal of Chemical Physics 154, 114107-1 â 114107-10 (2021)
XIAO-GANG WANG AND TUCKER CARRINGTON,
âUsing nondirect product Wigner D basis functions and the Symmetry Adapted Lanczos algorithm to compute the ro-vibrational spectrum of CH4-H2°żâ,
J. Chem. Phys. 154, 124112-1 â 124112-19 (2021)
SERGEI MANZHOS AND TUCKER CARRINGTON,
Roadmap on Machine Learning in Electronic Structure in Electronic Structure,
J. Phys. D: Appl. Phys. YY zz-1 â zz-w (2021)
TUCKER CARRINGTON,
âUsing collocation to study molecular vibrationsâ,
Spectrochimica Acta Part A: Molecular and Biomolecular Spectroscopy [special issue on molecular dynamics] 248, 119158-1 -- 119158-7 (2021)
ERNESTO Q. SANCHEZ, RICHARD DAWES, XIAO-GANG WANG AND
TUCKER CARRINGTON,
âComputational study of the ro-vibrational spectrum of N2-CO2â,
Physical Chemistry Chemical Physics 22, 22674-22683 (2020)
SERGEI MANZHOS AND TUCKER CARRINGTON,
âAdvances in rectangular collocation for solution of the Schroedinger equation: from obviating integrals to machine learningâ, Lecture Notes Series, The National University of Singapore, Institute for Mathematical Sciences, Vol 39, Editor: Berthold-Georg Englert,
xxx , yyy-1 -- yyy-nm (2021)
SERGEI MANZHOS AND TUCKER CARRINGTON,
âNeural Network Potential Energy Surfaces for Small Molecules and Reactionsâ,
Chemical Reviews 21, 10187-10217 (2020)
XIAO-GANG WANG AND TUCKER CARRINGTON JR.,
âA variational calculation of vibrational levels of vinyl radicalâ,
Journal of Chemical Physics 152, 204311-1 -- 204311-19 (2020)
ROBERT WODRASZKA AND TUCKER CARRINGTON JR.,
âA collocation-based multi-configuration time-dependent Hartree method using mode combination and improved relaxationâ,
Selected as Editors Pick,
Journal of Chemical Physics 152, 164117-1 â 164117-9 (2020)
JESSE SIMMONS, XIAO-GANG WANG, TUCKER CARRINGTON JR.,
âA computational study of the ro-vibrational spectra of CH2D+ and CD2±á+â,
Journal of Physical Chemistry A, 123, 10281 â 10289 (2019) [Special issue celebrating the 75th anniversary of the International Symposium on Molecular Spectroscopy]
N. MOHANKUMAR AND TUCKER CARRINGTON JR.,
âA comparison of methods for determining the time step when propagating with the Lanczos algorithmâ
Mathematics, 7, 1109-1 â 1109-9 (2019) [203]
EDUARDO CASTRO-JUAREZ, XIAO-GANG WANG, TUCKER CARRINGTON, ERNESTO QUINTAS SANCHEZ, AND RICHARD DAWES
âComputational study of the ro-vibrational spectrum of CO-CO2â,
Journal of Chemical Physics 151, 084307-1 â 084307-11 (2019)
XIAO-GANG WANG AND TUCKER CARRINGTON JR.,
âUsing quadrature and an iterative eigensolver to compute the-fine-structure ro-vibrational levels of Van der Waals complexes: NH(3â- )-He, O2 (3âg - )-Ar, and O2(3âg - ) -Heâ,
J. Chemical Physics 151, 054101-1 -- 054101-12 (2019)
JONAS KU, ADITYA KAMATH, TUCKER CARRINGTON, SERGEI MANZHOS.
âMachine learning optimization of the collocation point set for solving the electronic Schrödinger equationâ,
J. Phys. Chem A .123, 10631 â10642 (2019)
EMIL ZAK AND TUCKER CARRINGTON JR.,
âUsing collocation and a hierarchical basis to solve the vibrational Schroedinger equationâ,
J. Chem. Phys. 150, 204108 -1 â- 204108 -11 (2019)
ROBERT WODRASZKA AND TUCKER CARRINGTON JR.,
âEfficiently transforming from values of a function on a sparse grid to basis coefficientsâ,
Proceedings of the Sparse Grids and Applications Conference Munich 2018, x-yy (2019) [198]
ROBERT WODRASZKA AND TUCKER CARRINGTON JR,
âA pruned collocation-based multi-configuration time-dependent Hartree approach using a Smolyak grid for solving the Schroedinger equation with a general potential energy surfaceâ,
Selected as Editors Pick,
J. Chem. Phys. 150,154108-1 â154108-12 (2019)
SERGEI MANZHOS AND TUCKER CARRINGTON JR.,
âUsing rectangular collocation with finite difference derivatives to solve electronic Schrödinger equationâ,
J. Chem. Phys. 149, 204105-1 â 204105- 9 (2018)
XIAO-GANG WANG AND TUCKER CARRINGTON JR.,
âComputing tunnelling splittings of HOD dimerâ,
Physical Chemistry Chemical Physics 21, 3527-3536 (2019)