lcw

#PBS -A geo004
#PBS -N dgel
#PBS -j oe
#PBS -m a
#PBS -m b
#PBS -m e
#PBS -M lucasw@ices.utexas.edu
#PBS -o dgel_32768.o$PBS_JOBID
#PBS -l walltime=02:00:00,size=32768

lcw

#PBS -A geo004
#PBS -N dgel
#PBS -j oe
#PBS -m a
#PBS -m b
#PBS -m e
#PBS -M lucasw@ices.utexas.edu
#PBS -o dgel_32768.o$PBS_JOBID
#PBS -l walltime=02:00:00,size=32768

lcw

#PBS -A geo004
#PBS -N dgel
#PBS -j oe
#PBS -m a
#PBS -m b
#PBS -m e
#PBS -M lucasw@ices.utexas.edu
#PBS -o dgel_32768.o$PBS_JOBID
#PBS -l walltime=02:00:00,size=32768

lcw

#! /bin/bash

#$ -N s32kn
#$ -pe 16way 32768
###export MY_NSLOTS=8
#$ -V
#$ -cwd
#$ -A TG-MCA04N026
#$ -o $JOB_NAME.$JOB_ID.out
#$ -e $JOB_NAME.$JOB_ID.err

lcw

***** hpctoolkit *****
Usage: 
     See software page for usage details
     There are some informative PDF files available at
     /ccs/proj/hpctoolkit/pkgs/hpctoolkit/share/doc/hpctoolkit/guides
Note: 
     Please try this software as a friendly user,
     knowing that there will be bugs.
     Please send all questions to help@nccs.gov
     and to hpc@cs.rice.edu

lcw

#!/bin/bash

if (echo -- $* | grep -P -q -- '\s-c\s'); then
  exec "$@"
else
  exec hpclink "$@"
fi

lcw

High-order accurate solutions to acoustic-elastic interface problems
on adapted parallel meshes using a discontinuous Galerkin method

Lucas C. Wilcox [1]
Carsten Burstedde [1]
Georg Stadler [1]
Omar Ghattas [1,2,3,4]

[1] Institute for Computational Engineering and Sciences, The
University of Texas at Austin, Austin, TX 78712, USA

lcw

Accurate simulation of global mantle dynamics, and in particular of
plate motion requires the resolution of features on very different
length and time scales: While faulted plate margins can need a mesh
resolution down to ~1km, a significantly coarser mesh (up to several
100km) is sufficient away from these local features, for instance in
the lower mantle. Simulations on adaptively refined meshes (AMR) can
reduce the number of unknowns drastically: While a uniform mesh with
1km resolution would lead to $~10^12$ unknowns, adapted meshes with
the same resolution around plate boundaries can get by with only
$10^8$-$10^9$ unknowns, rendering such high-resolution simulations

lcw

#!/bin/sh

./configure --prefix=/org/centers/ccgo/local/ubuntu/hardy/apps/mpich2/1.0.8/apps/trilinos/9.0.1 \
            --with-gnumake \
            --enable-mpi --with-mpi-compilers \
            --with-blas=-lblas \
            --with-lapack=-llapack \
            --with-incdirs="-I/org/centers/ccgo/local/ubuntu/hardy/apps/superlu_dist/2.3/SRC -I/org/centers/ccgo/local/ubuntu/hardy/apps/superlu/3.1/SRC" \
            --with-cxxflags="-I/org/centers/ccgo/local/ubuntu/hardy/apps/parmetis/3.1.1/" \
            --with-cflags="-I/org/centers/ccgo/local/ubuntu/hardy/apps/parmetis/3.1.1/" \

lcw

  def file_listings(project_id)
    @results = @client.get_content("https://#{@host}/projects/#{project_id}/files")
    @doc = Hpricot(@results)
    a  = (@doc/"div.file"/"div.file_info"/"h1"/"a").map{|f| f["href"]}
    a += (@doc/"div.file"/"div.file_info"/"div.versions"/"h3"/"a").map{|f| f["href"]}.delete_if {|x| x == "#"}
    return a
  end