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003-Python Automation for Automotive CAE Engineering
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《Python LS-DYNA Binout and Time History Data Analysis》
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Python LS-DYNA Binout and Time History Data Analysis
30 Chapters
View Course Samples Online
01
Course overview
scope, concepts, and technical context of LS-DYNA binout and time history data analysis with Python.
technical
LS-DYNA
02
LS-DYNA output architecture
binout file structure, time history databases, and relationship to d3plot and ASCII outputs.
LS-DYNA
architecture
03
Python environment setup
installing and configuring lasso-python, numpy, pandas, matplotlib, and related libraries for LS-DYNA data workflows.
environment
installing
04
Reading binout files with lasso-python
opening files, listing available branches, and inspecting metadata.
lasso-python
available
05
Navigating binout hierarchy
understanding root, state, and time history branches for nodes, elements, and materials.
Navigating
hierarchy
06
Extracting nodal time history data
displacement, velocity, acceleration, and coordinate transformations.
Extracting
displacement
07
Extracting element time history data
stress, strain, resultant forces, and section forces for shells, solids, and beams.
Extracting
resultant
08
Extracting rigid body and joint data
center of mass motion, interface forces, and joint kinematics from binout.
Extracting
interface
09
Extracting contact and interface data
contact forces, penetration, and friction energy from binout time histories.
Extracting
interface
10
Extracting energy data
kinetic, internal, hourglass, sliding, and total energy time histories for model validation.
Extracting
internal
11
Working with multiple binout files
batch reading, parameter sweeps, and comparative analysis across simulations.
multiple
parameter
12
Data conversion to pandas DataFrames
structuring time history arrays for efficient manipulation and analysis.
conversion
DataFrames
13
Time series resampling and synchronization
aligning data from different output intervals and simulation runs.
resampling
synchronization
14
Filtering and smoothing
applying Butterworth, SAE, and moving average filters to LS-DYNA time history signals.
Filtering
smoothing
15
Signal processing for crash and impact
peak detection, pulse duration, HIC, and NIC calculations from acceleration data.
processing
detection
16
Frequency domain analysis
FFT, PSD, and spectrogram computation for vibration and NVH post-processing.
Frequency
analysis
17
Statistical analysis of time histories
mean, standard deviation, percentiles, and correlation across channels.
Statistical
analysis
18
Visualization with matplotlib
single and multi-axis plots, subplots, and annotated time history charts.
Visualization
matplotlib
19
Interactive visualization with plotly
zoomable, hover-enabled dashboards for exploring binout data.
Interactive
visualization
20
Automated report generation
exporting plots and tables to PDF, Excel, and HTML using Python.
Automated
generation
21
Handling large binout files
memory-efficient reading, chunked processing, and parallelization strategies.
Handling
memory-efficient
22
Error handling and data validation
detecting missing branches, corrupted files, and inconsistent time bases.
handling
validation
23
Case study
occupant safety analysis—extracting and processing dummy acceleration and force data from binout.
occupant
analysis
24
Case study
crashworthiness assessment—computing intrusion, velocity, and energy metrics from full vehicle simulations.
crashworthiness
assessment
25
Case study
drop test and impact analysis—processing force-displacement and energy absorption curves.
analysis
processing
26
Case study
NVH and modal analysis—extracting frequency response and mode shapes from time history data.
NVH
analysis
27
Case study
blast and explosion simulation—analyzing pressure, impulse, and structural response time histories.
explosion
simulation
28
Integrating Python scripts into LS-DYNA workflows
automation with LS-OPT, LS-PrePost, and batch queuing systems.
Integrating
LS-DYNA
29
Custom binout parsers
reading binary format directly with Python when lasso-python is unavailable or insufficient.
directly
lasso-python
30
Best practices and reproducibility
version control, unit testing, documentation, and sharing analysis pipelines for LS-DYNA binout data.
practices
reproducibility
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