dsd-int 2016 interactive pathline simulation ips and plugin tools - vermeulen
TRANSCRIPT
PLUGIN Functionality in iMOD WORK PROCESS
Usage of Mock-UPS-sessions:
Sketch and design the look-and-
feel, interactively
The functionalities and
limitations
Plugin need to:
Easy to implement;
Exchange some basic
information from and to iMOD;
Support some basis interaction
with users via dialogs
1 november 2016
PLUGIN Functionality of iMOD CONCEPT
2)
Organize your
Plugins in the
folder(s)
mentioned by
the keyword
PLUGIN1 or
PLUGIN2.
Config-file: plug-in.ini
Explain txt
Executable
Exchange with iMOD
Results to iMOD
Documentation
run in back- foreground
messages for iMOD
1 november 2016
PLUGIN Functionality of iMOD CONCEPT
3)
Activate existing Plugins so that
they become available in iMOD
and can be executed
Plugin that operates in the
background can generate
output or messages to be
picked up by iMOD
1 november 2016
PLUGIN Functionality of iMOD EXAMPLE
4)
Interaction to select files from the
iMOD Manager to be transferred to
the Plugin
Python script based
program as alternative to
perform more complicated
math than with IDF-Edit
1 november 2016
PLUGIN Functionality of iMOD EXAMPLE
Python script based programs to
transfer IDF, IPF, ISG and GEN
files to different coordinate
systems
rasters vectors
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IPS – Interactive Particle Simulation CONCEPT
Performance of the model – easy to observe “strange” behavior or
undesired connection between aquifers;
Increase stakeholder participation and -involvement by making the
movement of groundwater flow visible;
Ability to illustrate flow behavior,
velocity and direction of
groundwater in an interactive
manner to gain insight of:
1 november 2016
IPS – Interactive Particle Simulation CONCEPT
IMODPATH
IMODPATH RUNFILE
INTERACTIVE PARTICLE SIM.
STARTPOINT
PREDEFINED
OUTPUT OF
IFF / IPF FILES OUTPUT DIRECT
TO OPENGL
STARTPOINTS
INTERACTIVELY
RESTART
OF
PARTICLES
static interactive
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IPS – Interactive Particle Simulation FUNCTIONALITIES
1) Start Points Definition
2) Define Particle Tracking
Appearance;
Maximum Traveltimes;
Intermediate Travelsteps (IT);
Tail length (TL, faded out);
Repeat when trapped;
Repeat Frequency (factor x IT);
Filter particles whenever captured;
Start/Stop (forward/backward)
IT=1 year TL1
TL2
TL3
TL4
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IPS – Interactive Particle Simulation STARTPOINTS
Spatial distributed
Around extractions
Around the model domain
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IPS – Interactive Particle Simulation STARTPOINTS
Different groups, colors, temporarily
deactivate particles, save and load
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IPS – Interactive Particle Simulation EXAMPLE 1
Click
to play
Capture zone
of extraction
well
Flow from
the West
Groundwater
flow from the
south
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IPS – Interactive Particle Simulation EXAMPLE 2
Showing
capture zones
with traveltimes
of 25 years.
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IPS – Interactive Particle Simulation CONCLUDING REMARK
IPS can be applied to a part of the model by zooming in before
starting the IPS to increase performance;
IPS can be started with a “user-defined-display” creates the
possibility to include boreholes or alternative sources of 3D
display during the particle tracking;
Particles can be save for future analyses;
Further improve IPS to further increase the experience of how the
3-D flow groundwater patterns behave and develop – thinking of:
Traveling along a streamline; and
Interactively interact with the velocity field to observe changes
in flow-pattern due to measures: what-if scenarios.
1 november 2016