Changeset 5338

Timestamp:

May 16, 2008, 1:48:20 PM (17 years ago)

Author:

ole

Message:

Fiddling

Location:

anuga_work/publications/anuga_2007

Files:

• anuga-bibliography.bib (modified) (2 diffs)
• anuga_validation.tex (modified) (5 diffs)

anuga_work/publications/anuga_2007/anuga-bibliography.bib

@@ -319 +319 @@
 }
 
-%@ARTICLE{Hubbard02,
-%AUTHOR = {M.E. Hubbard and N. Dodd},
-%TITLE = {A 2D numerical model of wave run-up and overtopping},
-%YEAR = {2002},
-%volume = {47},
-%pages = {1--26},
-%JOURNAL = {Coastal Engineering},
-%}
-
 
 @ARTICLE{Carrier58,
@@ -340 +331 @@
 }
 
-%@ARTICLE{Carrier58,
-%AUTHOR = {C. Carrier and Greenspand},
-%TITLE = {Water waves of finite amplitude on a sloping beach},
-%YEAR = {1958},
-%volume = {4},
-%pages = {97--109},
-%JOURNAL = {Journal of Fluid Mechanics},
-%}
-
 
 @ARTICLE{Thacker81,

anuga_work/publications/anuga_2007/anuga_validation.tex

@@ -16 +16 @@
 
 % Local LaTeX commands
-\newcommand{\ANUGA}{\textsc{ANUGA}}
-\newcommand{\Python}{\textsc{Python}}
-\newcommand{\VPython}{\textsc{VPython}}
+\newcommand{\ANUGA}{ANUGA} %{\textsc{ANUGA}}
+%\newcommand{\Python}{\textsc{Python}}
+%\newcommand{\VPython}{\textsc{VPython}}
 \newcommand{\pypar}{\textsc{mpi}}
 \newcommand{\Metis}{\textsc{Metis}}
@@ -57 +57 @@
 \ead{Matthew.Barnes@uq.edu.au}
 
-\address[GA]{Natural Hazard Impacts Project, Geospatial and Earh Monitoring Division, Geoscience Australia, Canberra, Australia} 
-\address[ANU]{Department of Mathematics, Australian National University, Canberra, Australia} 
+\address[GA]{Natural Hazard Impacts Project,
+ Geospatial and Earh Monitoring Division, 
+ Geoscience Australia, Canberra, Australia} 
+ 
+\address[ANU]{Department of Mathematics, 
+Australian National University, Canberra, Australia} 
+
 \address[UQ]{University of Queensland, Brisbane, Australia}
 
@@ -70 +75 @@
 University have developed a hydrodynamic inundation modelling tool
 called \ANUGA{} to help simulate the impact of these hazards.
-The core of \ANUGA{} is a \Python{} implementation of a finite-volume method
+The core of \ANUGA{} is a Python implementation of a finite-volume method
 for solving the conservative form of the Shallow Water Wave equation.
 
@@ -232 +237 @@
 is the ability for the user to refine the mesh in areas of interest.
 \ANUGA{} is mostly written in the object-oriented programming
-language \Python{} with computationally intensive parts implemented
+language Python with computationally intensive parts implemented
 as highly optimised shared objects written in C. The API is a 
-\Python{} script where the user sets up the scenario. This script
+Python script where the user sets up the scenario. This script
 defines the study area, mesh refinement as well as initial and boundary conditions. 
 The user is free to update quantity values or boundary conditions through
@@ -353 +358 @@
  
 \ANUGA{} is mostly written in the object-oriented programming
-language \Python{} with computationally intensive parts implemented
+language Python with computationally intensive parts implemented
 as highly optimised shared objects written in C.
 
-\Python{} is known for its clarity, elegance, efficiency and
-reliability. Complex software can be built in \Python{} without undue
+Python is known for its clarity, elegance, efficiency and
+reliability. Complex software can be built in Python without undue
 distractions arising from idiosyncrasies of the underlying software
-language syntax. In addition, \Python{}'s automatic memory management,
+language syntax. In addition, Python's automatic memory management,
 dynamic typing, object model and vast number of libraries means that
 software can be produced quickly and can be readily adapted to