tcv.tex - cv - curriculum vitae (HTM) git clone git://src.adamsgaard.dk/cv (DIR) Log (DIR) Files (DIR) Refs (DIR) LICENSE --- tcv.tex (39266B) --- 1 %% compile with lualatex 2 %! TEX program = lualatex 3 \documentclass[10pt,a4paper]{article} 4 5 \usepackage[utf8]{inputenc} 6 7 %% Language 8 \usepackage[english]{babel} % break words 9 10 %% Font settings (recommended in Butterick's practical typography) 11 % http://practicaltypography.com/ 12 \usepackage[T1]{fontenc} % Font encoding 13 %\usepackage{charter} % Serif body font 14 \usepackage[charter]{mathdesign} % Math font 15 %\usepackage[scale=0.85]{sourcecodepro} % Monospaced fontenc 16 \usepackage[lf]{FiraSans} % Sans-serif font 17 18 %\usepackage[Ligatures=TeX]{fontspec} 19 \defaultfontfeatures{Ligatures=TeX} 20 \setmonofont[Mapping=tex-text,Scale=0.90,Ligatures=TeX]{PragmataPro}%{Fira Mono} 21 \setmainfont[ItalicFont = Charter Italic, 22 BoldFont = Charter Bold, 23 BoldItalicFont = Charter Bold Italic, 24 Ligatures = TeX]{Charter} 25 26 \usepackage[usenames,svgnames]{xcolor} 27 \usepackage{xurl} 28 \usepackage[colorlinks = true, 29 linkcolor = MidnightBlue, 30 urlcolor = MidnightBlue, 31 citecolor = MidnightBlue, 32 anchorcolor = MidnightBlue]{hyperref} 33 \usepackage{siunitx} 34 35 \usepackage{longtable} 36 \setlength{\LTpre}{0pt} % disable spacing above table 37 38 % format enumerated lists 39 \usepackage{enumitem} % allow adjustment of lists 40 \setlist[itemize]{leftmargin=*} 41 \usepackage{etaremune} % reverse-counting enumerate environment 42 \renewcommand{\labelenumi}{[\theenumi]} 43 \renewcommand\labelitemi{\textendash} 44 45 \usepackage[nodayofweek]{datetime} 46 \newdateformat{mydate}{\twodigit{\THEDAY}{~}\shortmonthname[\THEMONTH], \THEYEAR} 47 48 %% Layout 49 \usepackage{multicol} % n columns with \begin{multicols}{<n>} ... \end{multicols} 50 %\setlength{\multicolsep}{6.0pt plus 2.0pt minus 1.5pt}% 50% of original values 51 %\setlength{\multicolsep}{0.0pt plus 2.0pt minus 1.5pt} 52 53 %\setlength{\columnsep}{5pc} 54 \usepackage[lmargin=1.0in,rmargin=1.0in,tmargin=1.0in,bmargin=1.5in]{geometry} 55 56 % Headers and footers 57 \usepackage{lastpage} % for "Page N of M" footer 58 \usepackage{fancyhdr} 59 \pagestyle{fancy} 60 \rhead{\small A.\ Damsgaard, CV} 61 \lfoot{\small \emph{Updated: \today}} 62 \cfoot{} 63 \rfoot{\small\thepage{} of~\pageref{LastPage}} 64 \renewcommand{\headrulewidth}{0pt} 65 \fancypagestyle{firststyle} 66 {\fancyhf{} 67 \fancyfoot[L]{\small \emph{Updated: \today}} 68 \fancyfoot[R]{\small \thepage{} of~\pageref{LastPage}} 69 } 70 71 \usepackage{booktabs}% http://ctan.org/pkg/booktabs 72 \newcommand{\tabitem}{\hspace{1.5em}\llap{\textbullet}~} 73 74 \usepackage{titlesec} % Used to customize the \section command 75 %\titleformat{\section}{\Large\scshape\raggedright}{}{0em}{}[{\titlerule[1pt]}] 76 %\titleformat{\section}{\Large\scshape\raggedright}{{\titlerule[1pt]}}{0em}{}[{\titlerule[1pt]}] 77 78 \titleformat{\section}% 79 {\titlerule[1pt]{} 80 \vspace{.8ex}% 81 \filcenter% 82 %\small% 83 \bfseries\sffamily\uppercase} 84 {\thesection.}{}{} 85 86 \titleformat{\subsection}% 87 {\vspace{.8ex}% 88 %\large% 89 \bfseries\sffamily} 90 {\thesection.}{}{} 91 92 93 % Text formatting of sections 94 \titlespacing*{\section}{0pt}{2em}{1em} 95 96 \begin{document} 97 \thispagestyle{firststyle} 98 \begin{center} 99 \noindent{\LARGE \bfseries \sffamily Anders Damsgaard} 100 \end{center} 101 102 \begin{center} 103 \begin{tabular}{rl} 104 \\ 105 %{Phone:} & +45 42 74 31 42\\ % chktex 8 106 {Email:} & \url{anders@adamsgaard.dk}\\ 107 {Web:} & \url{https://adamsgaard.dk}\\ 108 %{Gopherspace:} & \url{gopher://adamsgaard.dk}\\ 109 {ORCID:} & \url{https://orcid.org/0000-0002-9284-1709}\\ 110 {Scopus:} & \url{https://www.scopus.com/authid/detail.uri?authorId=6602269102}\\ 111 %{Web of Science:} & \href{https://www.webofscience.com/wos/author/record/2594660}{https://www.webofscience.com/wos/author/record/2594660}\\ 112 \end{tabular} 113 \end{center} 114 115 \section*{Short bio} 116 I am a geoscientist with competences in geotechnics and computer science. 117 I use field observations, numerical modeling, geophysics, programming, 118 and data processing in order to understand Quaternary geology, sediment 119 mechanics, and groundwater flow. 120 \\ 121 122 123 124 \section*{Professional experience} 125 \begin{itemize}[leftmargin=1in,topsep=0in,parsep=0.5em,labelwidth=0.9in,align=left] 126 %\begin{itemize}[leftmargin=1in,topsep=0in,parsep=0.5em] 127 128 \item[2023\textendash{}Present] \textbf{\large Geo}\\ 129 \emph{Project Manager in Geodata, Aarhus} 130 \begin{itemize}[leftmargin=0.2in,topsep=0in,parsep=0in] 131 \item Integration and processing of geological, geotechnical, and geophysical databases 132 \item Machine learning on the distribution of geological units and properties 133 \item Coupling surface displacement to shallow geology, hydrology, and climate 134 \end{itemize} 135 136 \item[2023\textendash{}Present] \textbf{\large Aarhus University}\\ 137 \emph{External lecturer}\\ 138 Department of Geoscience\\ 139 B.Sc.\ course: Quaternary Geology (10 ECTS) 140 141 \item[2022\textendash{}2023] \textbf{\large Aarhus University}\\ 142 \emph{Assistant Professor (tenure track) in Quaternary Geology}\\ 143 Department of Geoscience (research, teaching, student supervision) 144 \begin{itemize}[leftmargin=0.2in,topsep=0in,parsep=0in] 145 \item Focus on danish shallow geology 146 \item Using Jupiter and tTEM for high-resolution interpretations of geology 147 \item Computational modeling of tunnel valley formation from sediment mechanics and groundwater flow 148 \item Modeling of surface water flow using Python and Landlab 149 \end{itemize} 150 Courses: Quaternary Geology (10 ECTS), Geotechnical Field Course (5 ECTS), Greenland Field Course (5 ECTS) 151 152 \item[2020\textendash{}2022] \textbf{\large Aarhus University}\\ 153 \emph{European Union Horizon 2020: Marie Sk\l{}odowska-Curie Postdoctoral Fellow}\\ 154 Department of Geoscience 155 \begin{itemize}[leftmargin=0.2in,topsep=0in,parsep=0in] 156 \item Coupled modeling of ice-water-till mechanics 157 \item Soft-bed geomorphology studies 158 \item Laboratory ring-shear and uniaxial experiments 159 \end{itemize} 160 B.Sc.\ courses: The Geology of Denmark (5 ECTS), Quaternary Geology (10 ECTS) 161 162 \item[2020] \textbf{\large Aarhus University}\\ 163 \emph{External lecturer}\\ 164 Department of Geoscience\\ 165 B.Sc.\ courses: The Geology of Denmark (5 ECTS), Quaternary Geology (10 ECTS) 166 167 \item[2019\textendash{}2020] \textbf{\large Stanford University}\\ 168 \emph{Independent Consultant}\\ 169 Department of Geophysics 170 %Visiting researcher at Aarhus University, Department of Geoscience 171 \begin{itemize}[leftmargin=0.2in,topsep=0in,parsep=0in] 172 \item Development of continuum methods for multi-phase granular 173 flows 174 \item Continuum and discrete modeling of ice-water-sediment systems 175 \end{itemize} 176 \emph{Supervisor:} Jenny Suckale 177 178 \item[2018\textendash{}2019] \textbf{\large Danish Environmental Protection Agency}\\ 179 \emph{Academic Technician}\\ 180 Ministry of Environment of Denmark 181 \begin{itemize}[leftmargin=0.2in,topsep=0in,parsep=0in] 182 \item Automated quality control of geological, hydrological, and 183 geochemical data from Jupiter 184 \item Management and development of geospatial databases using PostGIS and PostgreSQL 185 \item Development of Python plugins for QGIS 186 \end{itemize} 187 188 \item[2017\textendash{}2018] \textbf{\large Princeton University}\\ 189 \emph{Postdoctoral Research Associate}\\ 190 Program in Atmospheric and Oceanic Sciences\\ 191 Andlinger Center for Energy and the Environment\\ 192 Geophysical Fluid Dynamics Laboratory (GFDL)\\ 193 National Oceanographic and Atmosphere Administration (NOAA) 194 \begin{itemize}[leftmargin=0.2in,topsep=0in,parsep=0in] 195 \item Design of granular-mechanics methods for simulating sea-ice mechanics 196 \item Coupling to global climate models 197 \end{itemize} 198 \emph{Supervisors:} Alistair Adcroft and Olga Sergienko 199 200 \item[2016\textendash{}17] \textbf{\large Scripps Institution of Oceanography}\\ 201 \emph{Green's Foundation Postdoctoral Scholar}\\ 202 Institute of Geophysics and Planetary Physics\\ 203 University of California, San Diego 204 \begin{itemize}[leftmargin=0.2in,topsep=0in,parsep=0in] 205 \item Subglacial hydrology modeling 206 \item Sediment mechanics under the West Antarctic Ice Sheet 207 \item Rate and state friction in discrete-element models 208 \end{itemize} 209 \emph{Supervisor:} Helen A.\ Fricker 210 211 \item[2015] \textbf{\large Aarhus University}\\ 212 \emph{Research assistant}\\ 213 Department of Geoscience 214 \begin{itemize}[leftmargin=0.2in,topsep=0in,parsep=0in] 215 \item Markov-Chain Monte Carlo inversion of cosmogenic nuclide ages 216 \item Constructed web frontend (PHP/Javascript/AngularJS) and backend (Linux/MATLAB) for inversion tools 217 \end{itemize} 218 \emph{Supervisor:} Mads F.\ Knudsen 219 \end{itemize} 220 221 \section*{Education} 222 \begin{itemize}[leftmargin=1in,topsep=0in,parsep=0.5em,labelwidth=0.9in,align=left] 223 224 \item[2010\textendash{}15] \textbf{\large Aarhus University: Ph.D.\ and M.Sc.}\\ 225 Department of Geoscience. 226 Courses in computer graphics and high-performance computing at Department of Computer Science.\\ 227 Ph.D.\ thesis title: \emph{“Numerical modeling of subglacial sediment 228 deformation”}\\ 229 \emph{Supervisors:} David L.\ Egholm and Jan A.\ Piotrowski.\\ 230 Thesis download: \url{https://adamsgaard.dk/ad-thesis.pdf} 231 232 \item[2006\textendash{}10] \textbf{\large Aarhus University: B.Sc.}\\ 233 Department of Geoscience\\ 234 Thesis: Quaternary geology and geomorphology in Salling, Denmark\\ 235 \emph{Supervisors:} Christian Kronborg and Niels T.\ Knudsen 236 237 \end{itemize} 238 239 240 \section*{Awards, grants, and scholarships} 241 %\begin{itemize}[leftmargin=0.5in,topsep=0in,parsep=0.5em] 242 \begin{itemize}[leftmargin=0.75in,topsep=0in,parsep=0.5em,labelwidth=0.65in,align=left] 243 244 \item[2022\textendash{}2025] Bundesgesellschaft f\"ur Endlagerung, Germany:\\ 245 \emph{“Dynamical modelling of subglacial meltwater erosion during past and future glaciations”}.\\ 246 A.\ Damsgaard, J.\ A.\ Piotrowski (AU), J.\ Winsemann (Leibniz University Hannover, LUH).\\ 247 Funding for one two-year postdoc at AU, and one two-year postdoc at LUH. 248 EUR 547.835. 249 250 \item[2020] European Union/European Commission, Horizon 2020:\\ 251 Marie Sk\l{}odowska-Curie Actions Individual Fellowship\\ 252 H2020-MSCA-IF-2019, 24 months, EUR 207,000.\\ 253 Project: \emph{NEMOSID: NExt-generation MOdeling of Sedimentary Ice-sheet Dynamics} 254 255 \item[2016] Aarhus University Research Foundation:\\ 256 Award for outstanding Ph.D.\ research in Science and Technology. 257 258 \item[2016] XSEDE Startup Allocation, Principal Investigator: “Grain and 259 fluid dynamics: Governors of glacier flow and earthquake initiation”, 260 48,000 CPU hours on GPU clusters Stampede, Comet and Bridges. 261 262 \item[2016] NVIDIA Corporation, hardware grant (Tesla K40). 263 264 \item[2016] Community Surface Dynamics Modeling System (CSDMS) Student 265 Modeler Award 2016, University of Colorado Boulder, USA, for innovative 266 model development in the field of earth-surface dynamics. 267 268 \item[2015] Cecil H. and Ida M. Green Foundation for Earth Sciences 269 scholarship,\\ 270 50\% of salary for two years. 271 272 \end{itemize} 273 274 \section*{Publications} 275 \begin{etaremune}[leftmargin=0in,topsep=0in,parsep=0in] 276 277 \item Kasmalkar, I., \textbf{A.\ Damsgaard}, L.\ Goren, and J.\ Suckale 2022 278 “Shear variation at the ice-till interface changes the 279 spatial distribution of till porosity and meltwater drainage”. 280 \emph{Journal of Geophysical Research: Earth Surface}. 281 \url{https://doi.org/10.1029/2021JF006460} 282 283 \item \textbf{Damsgaard, A.}, O.\ Sergienko, and A.\ Adcroft 2021 284 “The effects of ice floe-floe interactions on pressure ridging in sea ice”. 285 \emph{Journal of Advances in Modeling Earth Systems}, vol.\ 13. 286 \url{https://doi.org/10.1029/2020MS002336} 287 288 \item \textbf{Damsgaard, A.}, L.\ Goren, and J.\ Suckale 2020 289 “Water pressure fluctuations control variability in sediment 290 flux and slip dynamics beneath glaciers and ice streams”. 291 \emph{Communications Earth \& Environment}, vol.\ 1(66). 292 \url{https://doi.org/10.1038/s43247-020-00074-7} 293 294 \item \textbf{Damsgaard, A.}, A.\ Adcroft, and O.\ Sergienko 2018 295 “Application of discrete-element methods to approximate sea-ice 296 dynamics”. 297 \emph{Journal of Advances in Modeling Earth Systems}, vol.\ 10, 298 2228\textendash{}2244. 299 \url{https://doi.org/10.1029/2018MS001299} 300 301 \item Bateman, M.\ D., D.\ A.\ Swift, J.\ A.\ Piotrowski, E.\ J.\ Rhodes, 302 \textbf{Damsgaard, A.} 2018 303 “Can glacial shearing of sediment reset the signal used for 304 luminescence dating?”. 305 \emph{Geomorphology}, vol.\ 306, 90\textendash{}101. 306 \url{https://doi.org/10.1016/j.geomorph.2018.01.017} 307 308 \item \textbf{Damsgaard, A.}, J.\ Suckale, J.\ A.\ Piotrowski, M.\ 309 Houssais, M.\ R.\ Siegfried, and H.\ A.\ Fricker 2017 310 “Sediment behavior controls equilibrium width of subglacial 311 channels”. 312 \emph{Journal of Glaciology}, vol.\ 63, 1034\textendash{}1048. 313 \url{https://doi.org/10.1017/jog.2017.71} 314 315 \item \textbf{Damsgaard, A.}, A.\ Cabrales-Vargas, J.\ Suckale, and L.\ Goren 316 2017 317 “The coupled dynamics of meltwater percolation and granular 318 deformation in the sediment layer underlying parts of the big ice 319 sheets”. 320 \emph{Poromechanics VI}. 321 \url{https://doi.org/10.1061/9780784480779.024} 322 323 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, L.\ H.\ Beem, N.\ K.\ Larsen, 324 S.\ Tulaczyk, J.\ A.\ Piotrowski, and M.\ R.\ Siegfried 2016 325 “Ice flow dynamics forced by water pressure variations in subglacial 326 granular beds”. 327 \emph{Geophysical Research Letters}, vol.\ 43, \num{12165}–\num{12173}. 328 \url{https://doi.org/10.1002/2016GL071579} 329 330 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, J.\ A.\ Piotrowski, S.\ 331 Tulaczyk, N.\ K.\ Larsen, and C.\ F.\ Br\ae{}dstrup 332 2015 333 “A new methodology to simulate subglacial deformation of 334 water-saturated granular material”. 335 \emph{The Cryosphere}, 336 vol.\ 9, 2183\textendash{}2200.\\ 337 \url{https://doi.org/10.5194/tc-9-2183-2015} % chktex 8 338 339 \item Br\ae{}dstrup, C.\ F., \textbf{A.\ Damsgaard}, and D.\ L.\ Egholm 340 2014 341 “Ice-sheet modelling accelerated by graphics cards”. 342 \emph{Computers \& Geosciences}, 343 vol.\ 72, 210\textendash{}220.\\ 344 \url{https://doi.org/10.1016/j.cageo.2014.07.019} 345 346 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, J.\ A.\ Piotrowski, S.\ 347 Tulaczyk, N.\ K.\ Larsen, and K.\ Tylmann 348 2013 349 “Discrete element modeling of subglacial sediment deformation”. 350 \emph{Journal of Geophysical Research:\ Earth Surface}, 351 vol.\ 118, 2230\textendash{}2242. 352 \url{https://doi.org/10.1002/2013JF002830} 353 354 \end{etaremune} 355 356 357 \section*{Presentations} 358 359 \subsection*{Invited talks} 360 \begin{etaremune}[leftmargin=0in,topsep=0in,parsep=0in] 361 362 \item \textbf{Damsgaard, A.}, D.\ Hansen, and L.\ Zoet 363 “Subglacial landforms from variations in modeled sediment flux” 364 Geological Society of America Annual Meeting 2022, Session EP015 - Landscape evolution beneath and beyond the ice, Chicago, IL, USA. 365 366 \item \textbf{Damsgaard, A.} 367 “Coupled modeling of ice, subglacial sediment, and glacier hydrology” 368 8th European Seminar on Computing (ESCO) June 2022, Pilsen, Czech Republic. 369 370 \item \textbf{Damsgaard, A.} 371 “Sediment transport in an ice flow model: Implications for marine-terminating ice sheets” 372 European Congress on Computational Methods in Applied Sciences and Engineering (ECCOMAS), June 2022, Oslo, Norway. 373 374 \item \textbf{Damsgaard, A.} 375 “Glacial reshaping of the Earth Surface: From geological observations to modeling” 376 University of Oxford Mathematical Geosciences seminar, 2022-03-11 377 378 \item \textbf{Damsgaard, A.} 379 “Interactions between ice and till: From geological observations to modeling” 380 ETH Z\"urich, VAW Glaciology seminar, 2022-03-03 381 382 \item \textbf{Damsgaard, A.}, J.\ A.\ Piotrowski, I.\ Madden, 383 J.\ Suckale, and K.\ K.\ S\o{}rensen 384 “Approaches to modeling subglacial till deformation” 385 Maths on Ice seminar, 2022-01-10 386 387 \item \textbf{Damsgaard, A.}, O.\ Sergienko, and A.\ Adcroft 388 “Sea-ice ridging in discrete element models”. 389 European Congress on Computational Methods in Applied Sciences and Engineering (ECCOMAS), June 2021, Valencia, Spain. 390 391 \item \textbf{Damsgaard, A.}, J.\ Suckale, and L.\ Goren 392 “The role of granular mechanics and porous flow for ice 393 sheet behavior in a changing climate”. 394 7th European Seminar on Computing (ESCO) 2020, Pilsen, Czech Republic. 395 396 \item \textbf{Damsgaard, A.}, J.\ Suckale, J.\ A.\ Piotrowski, M.\ 397 Houssais, M.\ R.\ Siegfried, and H.\ A.\ Fricker 398 “Subglacial channelized drainage on soft beds and implications for 399 grounding-line dynamics”. 400 Geological Society of America Annual Meeting 2017, Seattle, WA, USA.\@ 401 402 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, J.\ Suckale, J.\ A.\ 403 Piotrowski, M.\ Houssais, M.\ R.\ Siegfried, and H.\ A.\ Fricker 404 “Grain-scale numerical modeling of granular mechanics and fluid 405 dynamics”. 406 Week's lecturer at University of Wisconsin Madison, Department of 407 Geoscience, November 2017. 408 409 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, S.\ Tulaczyk, J.\ A.\ 410 Piotrowski, N.\ K.\ Larsen, M.\ R.\ Siegfried, L.\ H.\ Beem, and J.\ 411 Suckale 412 “Subglacial sediment mechanics investigated by computer simulation of 413 granular material”. 414 American Geophysical Union Fall Meeting 2016, San Francisco, CA, USA.\@ 415 416 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, S.\ Tulaczyk, N.\ K.\ Larsen, 417 J.\ A.\ Piotrowski, M.\ R.\ Siegfried, L.\ H.\ Beem, J.\ Suckale, and 418 L.\ Goren 419 “Grain-scale numerical modeling of granular mechanics and fluid 420 dynamics”. 421 Stanford University, Department of Geoscience, July 2016. 422 423 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, L.\ H.\ Beem, S.\ Tulaczyk, N.\ 424 K.\ Larsen, J.\ A.\ Piotrowski, and M.\ R.\ Siegfried 425 “Grain-scale numerical modeling of granular mechanics and fluid 426 dynamics and application in a glacial context”. Keynote speaker at 427 Community Surface Dynamics Modeling System (CSDMS) Annual Meeting, 428 March 2016, Boulder, CO, USA.\@ 429 430 \end{etaremune} 431 432 \subsection*{Oral presentations} 433 \begin{etaremune}[leftmargin=0in,topsep=0in,parsep=0in] 434 435 \item \textbf{Damsgaard, A.}, J.\ A.\ Piotrowski, I.\ Madden, J.\ Suckale, K.\ K.\ S\o{}rensen 436 “Process-based modeling of glacial till advection”. 437 American Geophysical Union Fall Meeting 2021, New Orleans, LA, USA.\@ 438 439 440 \item \textbf{Damsgaard, A.}, O.\ Sergienko, and A.\ Adcroft 441 “Floe-scale ridging in discrete element models for sea ice”. 442 Workshop: Modeling the Granular Nature of Sea Ice, 2021, Online, WA, USA.\@ 443 444 \item Suckale, J., I.\ Kasmalkar, \textbf{A.\ Damsgaard}, E.\ Mantelli, A.\ 445 Cabrales-Vargas, D.\ Li, L.\ Goren, and C.\ Elsworth 446 “Progress on understanding the subglacial hydrology over till beds with 447 ramifications for ice dynamics and sediment transport”. 448 International Glaciological Society Meeting on Glacial Erosion and 449 Sedimentation 2019, Madison, WI, USA.\@ 450 451 \item Piotrowski, J.\ A., M.\ B.\ Holdensen, \textbf{A.\ Damsgaard}, 452 W.\ Narloch, S.\ Carr, and N.\ K.\ Larsen 453 “The ice/bed interface in past ice sheets constrained by field, 454 experimental and numerical studies”. 455 International Glaciological Society Meeting on Glacial Erosion and 456 Sedimentation 2019, Madison, WI, USA.\@ 457 458 \item \textbf{Damsgaard, A.}, J.\ Suckale (presenting author), and L.\ Goren 459 “A new continuum model for till consistent with granular 460 mechanics”. 461 American Geophysical Union Fall Meeting 2019, San Francisco, CA, 462 USA.\@ 463 464 \item I.\ Kasmalkar, \textbf{Damsgaard, A.}, L.\ Goren, J.\ Suckale, 465 and A.\ Cabrales-Vargas 466 “Subglacial sediment beds resist fast ice flow by facilitating 467 meltwater drainage”. 468 American Geophysical Union Fall Meeting 2019, San Francisco, CA, USA.\@ 469 470 \item \textbf{Damsgaard, A.}, J.\ Suckale, D.\ Li, I.\ Kasmalkar, J.\ 471 Amundson, L.\ Goren, A.\ Cabrales-Vargas 472 “A new continuum model for subglacial till based on granular 473 rheology”. 474 International Glaciological Society Meeting on Glacial Erosion and 475 Sedimentation 2019, Madison, WI, USA.\@ 476 477 \item \textbf{Damsgaard, A.}, O.\ Sergienko, and A.\ Adcroft 478 “Lagrangian methods for modeling compressive failure in sea ice across 479 scales”. 480 American Geophysical Union Fall Meeting 2018, Washington, D.C., USA.\@ 481 482 \item Suckale, J., C.\ Wheeler Elsworth, I.\ Kasmalkar, E.\ Mantelli, 483 \textbf{A.\ Damsgaard}, J.\ D.\ Platt, T.\ Perol, J.\ R.\ Rice, and L.\ 484 Goren 485 “The surface as a window into the subsurface: Lessons from 486 Antarctica”. 487 American Geophysical Union Fall Meeting 2018, Washington, D.C., USA.\@ 488 489 \item Suckale, J., C.\ Wheeler Elsworth, E.\ Mantelli, I.\ Kasmalkar, 490 \textbf{A.\ Damsgaard}, J.\ D.\ Platt, T.\ Perol, J.\ R.\ Rice, and L.\ 491 Goren 492 “Process-based models for ice-stream shear margins”. 493 American Geophysical Union Fall Meeting 2018, Washington, D.C., USA.\@ 494 495 \item Piotrowski, J.\ A., M.\ B.\ Holdensen, W.\ Narloch, S.\ Carr, and 496 \textbf{A.\ Damsgaard} 497 “Laboratory experiments on till deformation: constraining the 498 subglacial processes”. 499 CANQUA/AMQUA, Ottawa, Canada. 500 501 \item Piotrowski, J.\ A.\, M.\ B.\ Holdensen, W.\ Narloch, S.\ Carr, 502 \textbf{A.\ Damsgaard}, N.\ K.\ Larsen 503 “Subglacial till deformation constrained by laboratory experiments”. 504 European Geosciences Union, General Assembly 2018, Vienna, Austria, 505 EGU2018\textendash{}8662. 506 507 \item Piotrowski, J.\ A.\, M.\ Bering Holdensen, W.\ Narloch, \textbf{A.\ 508 Damsgaard}, N.\ K.\ Larsen 509 “Subglacial till deformation: Lessons from laboratory experiments”. 510 Nordic Geological Winter Meeting 2018, Copenhagen, Denmark. 511 512 \item \textbf{Damsgaard, A.}, A.\ Adcroft, O.\ Sergienko, and A.\ Stern 513 “Discrete-element simulation of sea-ice mechanics: Contact mechanics 514 and granular jamming”. 515 American Geophysical Union Fall Meeting 2017, New Orleans, LA, USA.\@ 516 517 \item Kasmalkar, I., \textbf{A.\ Damsgaard}, A.\ Cabrales-Vargas, J.\ 518 Suckale, and L.\ Goren 519 “Grain-scale investigation of grain and melt-water interaction and 520 implications for the dynamics of ice flow over soft sediments”. 521 6th Biot Conference on Poromechanics 2017, Paris, France. 522 523 \item Suckale, J., C.\ W.\ Elsworth, \textbf{A.\ Damsgaard}, L.\ Goren, A.\ 524 Cabrales, D.\ Li, I.\ Kasmalkar, and S.\ Maldonado 525 “Taking advantage of the predictive potential of process-based models 526 for ice exploration”. 527 American Geophysical Union Fall Meeting 2016, San Francisco, CA, USA.\@ 528 529 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, L.\ H.\ Beem, S.\ Tulaczyk, N.\ 530 K.\ Larsen, J.\ A.\ Piotrowski, and M.\ R.\ Siegfried 531 “Creep and stick-slip in subglacial granular beds forced by variations 532 in water pressure”. 533 West Antarctic Ice Sheet Workshop 2016, VA, USA.\@ 534 535 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, L.\ H.\ Beem, S.\ Tulaczyk, N.\ 536 K.\ Larsen, J.\ A.\ Piotrowski, and M.\ R.\ Siegfried 537 “Creep and stick-slip in subglacial granular beds forced by ocean 538 tides”. 539 International Glaciological Society, International Symposium on 540 Interactions of Ice Sheets and Glaciers with the Ocean, 2016, 541 La Jolla, CA, USA.\@ 542 543 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, J.\ A.\ Piotrowski, S.\ 544 Tulaczyk, and N.\ K.\ Larsen 545 “Oscillations in till strength due to particle-fluid feedbacks”. 546 International Union for Quaternary Research Congress, 2015, 547 Nagoya, Japan. 548 549 \item Piotrowski, J.\ A., K.\ Tylmann, W.\ Narloch, W.\ Wysota, 550 \textbf{A.\ Damsgaard}, D.\ L.\ Egholm, N.\ K.\ Larsen, and J.\ 551 Lesemann. 552 “A soft-bed system under the Scandinavian Ice Sheet: Mosaic of stable 553 and deforming spots”. 554 Abstract from 31st Nordic Geological Winter Meeting 2014, Lund, Sweden. 555 556 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, J.\ A.\ Piotrowski, S.\ 557 Tulaczyk, and N.\ K.\ Larsen 558 “Discrete element modeling of subglacial sediment deformation”. 559 American Geophysical Union Fall Meeting 2013, San Francisco, CA, 560 USA.\@ 561 562 \item Br\ae{}dstrup, C.\ F., D.\ L.\ Egholm, S.\ V.\ Ugelvig, \textbf{A.\ 563 Damsgaard}, and J.\ L.\ Andersen 564 “Feedbacks between subglacial dynamics and long-term glacial landscape 565 evolution”. 566 American Geophysical Union Fall Meeting 2013, San Francisco, CA, USA.\@ 567 568 \item Piotrowski, J.\ A., K.\ Tylmann, W.\ Narloch, W.\ Wysota, \textbf{A.\ 569 Damsgaard}, D.\ L.\ Egholm, N.\ K.\ Larsen, and J.\ Lesemann 570 “Subglacial mosaic of stable and deforming spots under the Scandinavian 571 Ice Sheet: field, laboratory and numerical data”. 572 Canadian Quaternary Association biannual meeting, August 2013, 573 Edmonton, Canada. 574 575 \end{etaremune} 576 577 \subsection*{Poster presentations} 578 \begin{etaremune}[leftmargin=0in,topsep=0in,parsep=0in] 579 580 \item Kasmalkar, I., \textbf{A.\ Damsgaard}, L.\ Goren, J.\ Suckale, and 581 A.\ Cabrales-Vargas 582 “Subglacial Channelization Through Till Deformation and Failure at the 583 Shear Margin”. 584 American Geophysical Union Fall Meeting 2018, Washington, D.C., USA.\@ 585 586 \item Li, D., J.\ Suckale, A.\ Cabrales, and \textbf{A.\ Damsgaard} 587 “Till dynamics underneath ice streams with a nonlocal dense granular 588 flow model”. 589 American Geophysical Union Fall Meeting 2016, San Francisco, CA, USA.\@ 590 591 \item Cabrales-Vargas, A., J.\ Suckale, \textbf{A.\ Damsgaard}, and L.\ 592 Goren 593 “Spatially variable till deformation and water transport in ice-stream 594 shear margins from numerical simulations”. 595 American Geophysical Union Fall Meeting 2016, San Francisco, CA, USA.\@ 596 597 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, J.\ A.\ Piotrowski, S.\ 598 Tulaczyk, N.\ K.\ Larsen, and C.\ F.\ Br\ae{}dstrup 599 “Numerical modeling of particle-fluid mixtures in a subglacial 600 setting”. 601 American Geophysical Union Fall Meeting 2014, San Francisco, 602 CA, USA.\@ 603 604 \item \textbf{Damsgaard, A.}, D.\ L.\ Egholm, J.\ A.\ Piotrowski, S.\ 605 Tulaczyk, and N.\ K.\ Larsen 606 “Numerical modelling of granular subglacial deformation using the 607 discrete element method”. 608 European Geosciences Union, General Assembly 2013, Vienna, Austria, 609 EGU2013\textendash{}4026. 610 611 \item \textbf{Christensen, A.\ D.}, D.\ L.\ Egholm, J.\ A.\ Piotrowski, and 612 S.\ Tulaczyk 613 “Discrete element modelling of subglacial sediment deformation”. 614 European Geosciences Union, General Assembly 2012, Vienna, Austria, 615 EGU2012\textendash{}2931. 616 617 \item Clausen, O.\ R., D.\ L.\ Egholm, R.\ Wesenberg, and \textbf{A.\ D.\ 618 Christensen} (presenting author) 619 “Salt movements and faulting of the overburden \textemdash{} can numerical 620 modeling predict the fault patterns above salt structures?” 621 European Geosciences Union, General Assembly 2012, Vienna, Austria, 622 EGU2012\textendash{}1615. 623 624 \item \textbf{Christensen, A.\ D.}, D.\ L.\ Egholm, and J.\ A.\ Piotrowski 625 “Numerical modelling of sediment deformation by glacial stress”. 626 International Union for Quaternary Research Congress 2011, 627 Bern, Switzerland. 628 629 \item \textbf{Christensen, A.\ D.}, D.\ L.\ Egholm, and J.\ A.\ Piotrowski 630 “Numerical modelling of subglacial sediment deformation”. 631 European Geosciences Union, General Assembly 2011, Vienna, Austria, 632 EGU2011\textendash{}7829. 633 634 \end{etaremune} 635 636 \section*{Professional affiliations} 637 \begin{itemize}[leftmargin=0in,topsep=0in,parsep=0in] 638 \item Member, Danish Geotechnical Society (2022\textendash{}present) 639 \item Board Member, Geological Society of Denmark (2021\textendash{}2023) 640 \item Member, Geological Society of Denmark (2023\textendash{}present) 641 \item Member, American Geophysical Union (2013\textendash{}present) 642 \item Member, Geological Society of America (2017\textendash{}present) 643 \item Member, International Glaciological Society (2015\textendash{}present) 644 \item Member, European Geosciences Union (2011\textendash{}present) 645 \item Member, CICE Consortium (2017\textendash{}2019) 646 \end{itemize} 647 648 \section*{Select activities in programming and high-performance computing} 649 For a full list of public projects, please see my Git repository at \url{https://src.adamsgaard.dk}.\\ 650 651 \begin{itemize}[leftmargin=0in,topsep=0in,parsep=0in] 652 653 \item Proficient programmer in C, C\texttt{++}, OpenMP, MPI, Python, CUDA 654 C, MAT\-LAB, Julia, HTML, CSS, Javascript, PHP, 655 PostgreSQL, MySQL, sh/sed/awk, \LaTeX{}, and Linux/Unix operating 656 system environments. 657 658 \item Creator of \textbf{sphere}, a three-dimensional discrete element 659 method algorithm with optional fluid coupling. Written in CUDA C, C++, 660 and Python for GPU-based simulation of grain and fluid dynamics. 661 Uses Doxygen software reference documentation and unit testing. 662 Free and open-source licensed. 663 \url{https://src.adamsgaard.dk/sphere} 664 665 \item Creator of \textbf{Granular.jl}, a two-dimensional discrete element 666 method algorithm for sea-ice simulation with coupling to NOAA ocean and 667 atmosphere models. Written in Julia. 668 Uses Travis-CI automated testing and is fully documented at 669 \url{https://anders-dc.github.io/Granular.jl/latest/}. 670 Free and open-source licensed. 671 \url{https://src.adamsgaard.dk/Granular.jl} 672 673 \item Creator of \textbf{cosmo.au.dk}, a webpage for inversion of 674 cosmogenic nuclide concentrations. Consists of a responsive front end 675 using HTML and Angular and JQuery Javascript libraries, backed by PHP 676 for queuing and MATLAB for numerical inversion. The service is running 677 on a Ubuntu GNU/Linux virtual machine. 678 \url{https://cosmo.au.dk} 679 680 \item Creator of \textbf{lbm-d3q19}, a three-dimensional lattice-Boltzmann 681 solver for incompressible Navier-Stokes fluid flow. Written in C with 682 OpenMP parallelization. 683 Free and open-source licensed. 684 \url{https://src.adamsgaard.dk/lbm-d3q19} 685 686 \item Designed, constructed, and maintained a Dell/NVIDIA 192 CPU-core GPU 687 cluster, Aarhus University. Debian GNU/Linux and Torque/MAUI 688 resource management and sche\-du\-ling. 689 690 \item Technical reviewer for “Getting Started with Tmux”, Packt 691 Publishing 2014. Tmux is a software application for terminal 692 multiplexing, useful for dealing with multiple programs from a 693 command-line interface. 694 695 \item Contributor to \textbf{Icepack} and \textbf{CICE}, numerical codes 696 for sea-ice column physics and dynamics. 697 Written in Fortran. 698 \url{https://github.com/CICE-Consortium} 699 700 Craig, T., E.\ Hunke, A.\ DuVivier, A.\ Dabail, \textbf{A.\ Damsgaard}, 701 J.\ F.\ Lemieux, P.\ Blain, M.\ Turner, Mhrib, T.\ Rasmussen, N.\ 702 Jeffery 703 “CICE-Consortium: CICE version 6.0.0, Icepack version 1.1.0”. 704 \url{https://doi.org/10.5281/zenodo.1900639} 705 706 \item Creator or the \textbf{scholarref} toolset for automated 707 \LaTeX{} reference management. Written in POSIX shell. 708 Free and open-source licensed. 709 \url{https://adamsgaard.dk/scholarref.html} 710 711 \item Developer of QGIS plugins and experienced GeoScene3D user. 712 713 \end{itemize} 714 715 \section*{Service to the field} 716 \noindent Reviewer for the following agencies and academic journals: 717 \begin{itemize}[leftmargin=1em,topsep=0.5em,parsep=0in] 718 \item National Science Foundation 719 \item Nature Geoscience 720 \item Communications Earth \& Environment 721 \item Journal of Glaciology 722 \item Quaternary Science Reviews 723 \item The Cryosphere 724 \item Journal of Geophysical Research 725 \item Ocean Modelling 726 \item Boreas 727 \item Earth Surface Processes and Landforms 728 \item Journal of Advances Modeling Earth Systems 729 \item E\&G Quaternary Science Journal 730 \end{itemize} 731 732 \section*{Teaching} 733 734 \begin{itemize}[leftmargin=0in,topsep=0in,parsep=0in] 735 736 \item Lecturer, The Geology of Denmark. 5 ECTS, mandatory B.Sc.\ course. 737 Lectures, hands-on exercises, field excursions. 738 Aarhus University, spring semester 2020 and 2021. 739 740 \item Lecturer, Quaternary Geology, 10 ECTS, mandatory B.Sc.\ course. 741 Lectures, laboratory exercises, field excursion. 742 Aarhus University, spring semester 2020\textendash{}2022. 743 744 \item Advanced Water Cycle Management Ph.D. Course, Aarhus University. Lecture on 745 “The geological settings in Denmark and their impact on the groundwater system”, 746 August 2021 and 2022. 747 748 749 \item Completed the Aarhus University Teacher Training Program on pedagogy 750 and learning design, providing a theoretical and practical basis for 751 delivering excellence in university teaching. Spring 2021. 752 753 \item Lecturer, workshop on granular modeling using the discrete element 754 method. University of Wisconsin-Madison, Department of Geoscience, 755 November 2017. 756 757 \item Guest teacher in SIO 209 “Palaeoclimate seminar”, Scripps 758 Institution of Oceanography. Gave class on subglacial friction and ice 759 sheet stability. April 2016. 760 761 \item Guest teacher in SIO 115 “Ice in the Climate System”, Scripps 762 Institution of Oceanography. Gave class on glacier dynamics and 763 subglacial mechanics and hydrology. March 2016. 764 765 \end{itemize} 766 767 \section*{Supervision} 768 769 \begin{itemize}[leftmargin=0in,topsep=0in,parsep=0in] 770 771 \item 2023: 7 B.Sc.\ students, Department of Geoscience, Aarhus University: 772 Adam Petterson, 773 Ahadi Ruganiza, 774 Anders Sørensen, 775 Frederick Hornung, 776 Gitte Bertelsen, 777 Lærke Ditlevsen, 778 Lisbeth Pedersen. 779 780 \item 2022: 781 Morten Jessen: M.Sc.\ student, Department of Geoscience, 782 Aarhus University. 783 784 \item 2022: 785 Franch Elbeck: B.Sc.\ student, Department of Geoscience, 786 Aarhus University. 787 788 \item 2021: 789 Asger A.\ Larsen: M.Sc.\ student, Department of Geoscience, 790 Aarhus University. 791 792 \item 2021: 793 Prayati Sharma: Erasmus Intern, Department of Geoscience, 794 Aarhus University. 795 796 \item 2021: 797 Louise Lassen: B.Sc.\ student, Department of Geoscience, 798 Aarhus University. 799 800 \item 2021: 801 Marie Winther: B.Sc.\ student, Department of Geoscience, 802 Aarhus University. 803 804 \item 2020\textendash{}2021: 805 Ian Madden: Graduate student, Institute for Computational 806 \& Mathematical Engineering, Stanford University. 807 808 \item 2017\textendash{}2021: 809 Indraneel Kasmalkar: Graduate student, Department of 810 Geophysics, Stanford University. 811 812 \item 2018: 813 MonTre D.\ Hudson: Summer intern, Program in Atmospheric 814 and Oceanic Sciences, Princeton University. 815 816 \end{itemize} 817 818 \section*{Outreach} 819 \begin{itemize}[leftmargin=0in,topsep=0in,parsep=0in] 820 821 822 \item First grade in Lystrup Skole elementary school, Lystrup, Denmark. 823 Presentation on Greenland, fieldwork, and climate. 824 May 2022. 825 826 \item Forskningens døgn (The Festival of Research about Time), Aarhus University. 827 “Tidens tand på Jordens overflade” (The toll of time on the Earth surface). 828 Designed and staffed booth on Earth-surface processes and glaciations. 829 April 2022. 830 831 \item Aarhus University U-Days 2021 and 2022, one hour lecture 832 “Fremtiden for jordens iskapper: Findes svaret i geologien eller supercomputeren?” 833 on glaciology and climate change. 834 February 2022. 835 836 \item Geoscience internship days 2021, presentation and field 837 trip with highschool students. 838 November 2021. 839 840 \item DR1 Viden (Danish Broadcasting Corporation, science section 841 of public service radio and television broadcasting company) 842 article on quicksand in Denmark. 843 “Det bugner med kviksand i Danmark: Sådan kommer du op af de skjulte fælder”. 844 October 2021. \url{https://www.dr.dk/nyheder/viden/natur/det-bugner-med-kviksand-i-danmark-saadan-kommer-du-op-af-de-skjulte-faelder} 845 846 \item Branbjerg H\o{}jskole, two hour lecture 847 “Fra Is til Os” on glaciology and geomorphology in Denmark. 848 Salary donated to charity 849 \emph{Branbjerg H\o{}jskole elevst\o{}tteforening}. 850 October 2020. 851 852 \item Podcast interview (1 hour) “The Changelog” about climate 853 science and my research in glaciology. January 2020. 854 \url{https://changelog.com/podcast/378} 855 856 \item Article (two full pages) in danish newspaper “Nordjyske 857 Stifttidende” about my research on climate change and sediment 858 mechanics. September 2015. 859 860 \item Presentations about climate change and glaciology to high-school 861 teachers. Department of Geoscience, Aarhus University. October 2013. 862 863 \item Arranged introductory talks about the research activities of faculty 864 members. Aarhus University, 2012\textendash{}2013. 865 866 \item “The Rolling University” (Danish: “Det Rullende Universitet”): 867 Held a series of lectures at local high schools about climate change. 868 Fall 2011. 869 870 \item “Nature in the tent” (Danish: “Natur i teltet”): Public outreach 871 in the city center in Aarhus, Denmark. Summer 2009. 872 873 \end{itemize} 874 875 \subsection*{Teaching assistance at Aarhus University during Ph.D.\ studies} 876 \begin{itemize}[leftmargin=0in,topsep=0in,parsep=0in] 877 878 \item Theoretical Geophysics (exercises) 879 \item Geophysical Methods (exercises and field excursions) 880 \item Sedimentology (exercises) 881 \item Numerical Modeling (exercises) 882 \item Sedimentary Processes and Environments (classes, exercises, and field 883 excursions) 884 \item Introductory Petrology (classes and exercises) 885 \item Basin analysis and modeling (classes and exercises) 886 \item Geographical Information Systems (exercises) 887 \item Quaternary Sediments (classes and field excursion) 888 \item Geomodeling (exercises) 889 \item Palaeontology and stratigraphy (exercises) 890 \item Hydrology, soil processes, and dynamic geomorphology\\ 891 (classes, exercises, and field excursion) 892 893 \end{itemize} 894 895 \end{document}