| Participant Name |
|
Affiliation |
Abstract |
|
| 1. Ahmed |
Towfiq |
LANL |
|
| 2. Alawode |
Babatunde |
Massachusetts Institute of Technology |
|
| 3. Ananttram |
Anant M. P. |
University of Washington |
|
| 4. Andreev |
Anton |
University of Washington, Co-Organizer |
|
| 5. Atlas |
Susan |
University of New Mexico |
|
| 6. Bajdich |
Michal |
Stanford U. & SLAC National Accelerator Laboratory |
Investigation of Thin Cobalt/Nickel/Manganese Oxides Supported on Au(111) and Other Fcc Metals |
| 7. Beckman |
Scott |
Iowa State University |
Special Quasirandom Structure Approach to Studying Perovskite Solid Solutions |
| 8. Bernardi |
Marco |
UC Berkeley |
Ultrafast Dynamics of Excited Electrons in Semiconductors and Metals for Energy Applications |
| 9. Bernholc |
Jerry |
NCSU |
|
| 10. Bertsch |
George |
University of Washington, Co-organizer |
Time-dependent Density Functional Theory in the Nonlinear Domain: Successes and Failures |
| 11. Bobbitt |
N. Scott |
University of Texas, Austin |
Raman spectra calculations for nanostructures using ab initio real-space methods |
| 12. Briggs |
Emil |
North Carolina State University |
Parallel Eigensolver for Electronic Structure Calculations |
| 13. Brock |
Casey |
Vanderbilt University |
Automatically tuned PAW pseudopotentials for accuracy and efficiency |
| 14. Bylaska |
Eric |
PNNL |
Improving the performance of ab initio molecular dynamics simulations and band structure calculations for actinide and geochemical systems with new algorithms and new machines |
| 15. Calderin |
Lazaro |
University of Florida |
|
| 16. Campbell |
Luke |
PNNL |
|
| 17. Car |
Roberto |
Princeton University |
|
| 18. Ceperley |
David |
University of Illinois Urbana-Champaign |
|
| 19. Chelikowsky |
Jim |
U of Texas, Austin |
“Seeing” the covalent bond: Simulating Atomic Force Microscopy Images |
| 20. Chou |
Mei-Yin |
Academia Sinica/Georgia Institute of Technology |
Dirac Electrons in Silicene on Ag(111): Do they exist? |
| 21. Clark |
Bryan |
U of Illinois, Urbana Champaign |
From ab-initio to model systems: tales of unusual conductivity in electronic systems at high temperatures |
| 22. Clendenning |
Graham |
University of Ontario Institute of Technology |
Detection of trap states using pump-probe measurements and TD-DFT |
| 23. Coh |
Sinisa |
UC Berkeley and LBL |
Strong electron-phonon interaction in an FeSe monolayer |
| 24. Côté |
Michel |
Université de Montréal |
Electron-phonon coupling and the zero-point phonon renormalization of the electronic band gap |
| 25. Curtis |
Farren |
Tulane University |
The Role of Many-Body Dispersion Interactions in the Racemic and Enantiomeric forms of Crystal Alanine |
| 26. Dabo |
Ismaila |
Penn State |
Electronic-Structure Calculations from Koopmans-Compliant Functionals |
| 27. Dedushko |
Maksym |
University of Washington |
|
| 28. Dogan |
Mehmet |
Yale University |
Ab initio study of a monolayer ZrO2 epitaxial on Si |
| 29. Fattebert |
Jean-Luc |
LLNL |
Truly Scalable O(N) Approach for First-Principles Molecular Dynamics of Non-Metallic Systems |
| 30. Gangopadhyay |
Shruba |
|
A tale of three cubic double perovskites: Ba2XOsO6, X=Na, Ca, Y |
| 31. Ge |
Xiaochuan |
Brookhaven National Lab |
A Local Representation of the Dielectric Response Function |
| 32. Georgescu |
Alexandru Bogdan |
Yale University |
A Generalized Slave-Particle Formalism for Extended Hubbard Models |
| 33. Gilles |
Hug |
ONERA |
|
| 34. Goh |
Wen Fong |
UC Davis |
A DFT OF Magnetic Tendencies In TiAu |
| 35. Gopal |
Priya |
Central Michigan U |
Novel tools for accelerated materials discovery in the AFLOWLIB.ORG repository: breakthroughs and challenges in the mapping of the materials genome |
| 36. Giustino |
Feliciano |
U of Oxford |
Band structure of plasmonic polarons using the Sternheimer-GW method |
| 37. Gull |
Emmanuel |
U of Michigan |
Solutions of the Two Dimensional Hubbard Model: Benchmarks and Results from a Wide Range of Numerical Algorithms |
| 38. Hamann |
Donald |
Rutgers University |
|
| 39. Harmon |
Bruce |
Iowa State University |
LaCoO3 (LCO): electronic structure changes at very high magnetic fields - up to 500T |
| 40. Hayashi |
Scott |
University of Washington |
|
| 41. Holzwarth |
Natalie |
Wake Forest University |
|
| 42. Hong |
Jiawang |
Oak Ridge National Lab |
Large phonon anharmonicity in complex oxide and thermoelectrics |
| 43. Huang |
Xu |
University of Iowa |
A Linear Response DFT + U(Fe) Study of the α-Fe2O3(0001)Surface |
| 44. Hung |
Linda |
U of Illinois, Chicago |
GW-BSE: From Atoms to the Nanoscale |
| 45. Ismail-Beigi |
Sohrab |
Yale University |
|
| 46. Joannopoulos |
John |
MIT |
|
| 47. Kaess |
Karl |
UC Davis |
|
| 48. Kas |
Joshua |
U of Washington |
Cumulant expansion approaches to excited state electronic structure and spectra |
| 49. Kent |
Paul |
ORNL |
New applications of Diffusion Quantum Monte Carlo |
| 50. Kim |
Minjung |
Yale University |
Scalable GW-BSE code development |
| 51. Kim |
Sohae |
Massachusetts Institute of Technology |
Ab initio study of epitaxial anatase TiO2 on Si for efficient solar water splitting |
| 52. Kim |
Youngkuk |
University of Pennsylvania |
Dirac line nodes in centrosymmetric crystals |
| 53. Klevak |
Egor |
University of Washington |
|
| 54. Kolb |
Brian |
Massachusetts Institute of Technology |
Developing a machine-learned band gap density functional to facilitate high-throughput searches for optical materials |
| 55. Kolesov |
Grigory |
Harvard University |
Time-dependent density functional theory and non-adiabatic Ehrenfest dynamics with localized basis sets : method and applications |
| 56. Kolpak |
Alexie |
Massachusetts Institute of Technology |
First-principles prediction of oxide surface structure and properties in aqueous electrochemical environments |
| 57. Kowalczyk |
Tim |
Western Washington University |
|
| 58. Lesniak Harmon |
Mary |
Northwestern University |
|
| 59. Li |
Liang |
Argonne National Lab, SUNY at Birmingham |
Effects of surface step on Cu2O thin film growth and Cu2O surface reactivity |
60. Li |
Xiaosong |
University of Washington |
Time-Dependent Two-Component Electronic Structure Theory |
| 61. Li |
Yan |
North Carolina State University |
Quantum transport studies of CNT-Based DNA Polymerase Nano-Circuits |
| 62. Liang |
Xin |
Yale University |
Elasto-optic effect in semiconductors: a First principle approach using Maximally Localized Wannier Functions |
| 63. Liang |
Yufeng |
Lawrence Berkeley Lab |
Obtaining Excited-State Properties in Doped Two-Dimensional Materials with an Efficient Plasmon-Pole Model |
| 64. Liu |
Jianpeng |
Rutgers University |
Gauge-discontinuity contribution to Chern-Simons orbital magnetoelectric coupling |
| 65. Lohani |
Sanjaya |
Tulane University |
FHI-aims Benchmark on CYPRESS and SPHYNX |
| 66. Lopez-Bezanilla |
Alejandro |
Argonne National Lab |
Plentiful magnetic moments in oxygen deficient SrTiO3 |
| 67. Lu |
Wenchang |
North Carolina State University |
Ab initio non-equilibrium Green’s function studies of electronic devices with several thousand atoms |
| 68. Ma |
Fengjie |
College of William and Mary |
Ground and excited state calculations of auxiliary-field Quantum Monte Carlo in solids |
| 69. Maitra |
Neepa |
Hunter College |
Potentials that Exactly Capture Correlated Electron and Ion Dynamics in Strong Fields |
| 70. Malashevich |
Andrei |
Yale University |
Modeling STM contrasts of buried interfaces |
| 71. Martin |
Richard |
Stanford |
|
| 72. May |
Kevin |
Massachusetts Institute of Technology |
Density functional theory study of perovskite oxide interfaces |
| 73. Mendez Polanco |
Miguel Angel |
Massachusetts Institute of Technology |
Strain-dependent electronic and optical properties of metals for photocatalytic applications |
| 74. Modine |
Normand |
Sandia National Labs |
Density Functional Theory Calculations of Activation Energies for Carrier Capture by Defects in Semiconductors |
| 75. Neaton |
Jeff |
LBNL |
|
| 76. Patil |
Sunil |
University of Washington |
|
| 77. Pemmaraju |
Das |
LBNL |
First-principles interpretation of ultrafast time-resolved core-level spectroscopies investigating photo-induced charge transfer |
| 78. Prange |
Micah |
PNNL |
|
79. Prendergast |
David |
LBNL |
First-principles explorations of dynamics in materials - from attoseconds to nanoseconds - aided by X-ray spectroscopy |
| 80. Purwanto |
Wirawan |
College of William and Mary |
Stability, Energetics, and Magnetic States of Cobalt Adatoms on Graphene |
| 81. Qi |
Jianqing |
University of Washington |
|
| 82. Qiu |
Diana |
UC Berkeley |
Many-body effects on the electronic and optical properties of quasi-two-dimensional materials |
| 83. Quan |
Yundi |
UC Davis |
Electronic, magnetic and topological properties of semi-Dirac dispersion with strongly broken particle-hole symmetry |
| 84. Rabe |
Karin |
Rutgers University |
|
| 85. Rahman |
Noah |
Tulane University |
On The Geometric Nature of "Singlet Fission" in Certain Crystalline Conjugated Polymers |
| 86. Rappe |
Andrew |
University of Pennsylvania |
|
| 87. Rasaiah |
Jayendran |
University of Maine |
|
| 88. Reeves |
Kyle |
University of North Carolina - Chapel Hill |
First-Principles Investigation of Electronic Excitation Dynamics in Water under Proton Irradiation |
| 89. Rehr |
John |
University of Washington, Organizer |
|
90. Reining |
Lucia |
Ecole Polytechnique |
A direct approach to the calculation of many-body Green's functions |
| 91. Resta |
Raffaele |
University Trieste |
|
| 92. Reyes-Lillo |
Sebastian |
Lawrence Berkeley National Lab |
Quasiparticle and optical band gaps of Srn+1TinO3n+1 from ab initio many-body perturbation theory |
| 93. Roy |
Anindya |
Johns Hopkins University |
A First-principles-based study of thermal conductivity in PbTiO3 |
| 94. S. Botana |
Antia |
UC Davis |
Parallel electron-hole conducting gases in monoxide/mononitride multilayers |
| 95. Schick |
Joseph |
Villanova University |
|
| 96. Seidler |
Gerald |
University of Washington |
|
| 97. Selloni |
Annabella |
Princeton University |
|
| 98. Seo |
Joon Kyo |
UC San Diego |
First principles study of reaction voltage of metal-fluoride cathodes in Li-ion rechargeable battery |
| 99. Shi |
Hao |
College of William & Mary |
Recent developments in auxiliary-field quantum Monte Carlo: magnetic orders and spin-orbit coupling |
| 100. Shirley |
Eric |
NIST |
|
| 101. Souza |
Ivo |
University of the Basque Country |
|
| 102. Story |
Shauna |
University of Washington |
|
| 103. Su |
Shanshan |
|
|
| 104. Thronton |
W. Scott |
Stony Brook University |
|
| 105. Trickey |
Sam |
U of Florida |
Finite-temperature Density Functional Developments and Some Computational Consequences |
| 106. Valenza |
Ryan |
University of Washington |
Warm Dense Crystallography |
| 107. Vanderbilt |
David |
Rutgers University |
|
| 108. Vila |
Fernando |
University of Washington |
|
| 109. Vimolchalao |
Siri |
University of Washington, Assistant Coordinator |
|
| 110. Vinson |
John |
NIST |
Using RIXS to probe effects of disorder and quasiparticle lifetime broadening |
| 111. Wang |
Shuang-Xi |
China University of Petroleum |
Adsorption and dissociation of H2O monomer on ceria(111): Density functional theory calculations |
| 112. Wang |
Xiaopeng |
Tulane University |
Accurate Ionization Potentials and Electron Affinities of Acceptor Molecules: A Benchmark of GW Methods |
| 113. Wu |
Xifan |
|
|
| 114. Xiao |
Bo |
UC Davis |
|
| 115. Xu |
Xu |
University of Washington |
|
| 116. Yan |
Jiaan |
Towson University |
Strain-tunable topological quantum phase transition in buckled honeycomb lattices |
| 117. Ye |
Meng |
Rutgers University |
Ferroelectric switching path of polar corundum derivatives |
| 118. Yost |
Dillon |
University of North Carolina - Chapel Hill |
|
| 119. Young |
Steve |
US Naval Research Laboratory |
|
| 120. Zhang |
Shuai |
UC Berkeley |
Superionic water at planet interior - an ab initio molecular dynamics study |
| 121. Zheng |
Fan |
University of Pennsylvania |
Rashba Spin-Orbit Coupling Enhanced Carrier Lifetime in Organometal Halide Perovskites |