Interactive tutorials for the hermes-rheo
package. Each tutorial is a runnable Jupyter notebook that
demonstrates one reader or transform in isolation.
What’s covered¶
| # | Tutorial | Topic |
|---|---|---|
| 1 | Reading and visualising common rheological datasets | TA Instruments TRIOS + Anton Paar RheoCompass readers |
| 2 | Designing an OWChirp waveform | OWChirpGeneration — waveform export for TRIOS Arbitrary Wave |
| 3 | Reading and visualising OWChirp experiments | OWChirpAnalysis — FFT-based moduli extraction |
| 4 | Time–Temperature Superposition (TTS) | AutomatedMasterCurve |
| 5 | Time–Cure Superposition (TCS) | CompositeMasterCurve — cure-time shifting |
| 6 | Mutation Number | MutationNumber — time-resolved mutation index |
| 7 | Van Gurp–Palmen and Cole–Cole plots | plot_vgp, plot_cole_cole — thermorheological simplicity checks |
| 8 | Temperature Ramp Analysis | TemperatureRampAnalysis — Tg (tan δ peak / G′ onset), frequency, interpolated properties |
| 9 | Kymographs from TORCh experiments | Kymograph — 2-D T × ω → modulus |
| 10 | Recovery rheology | RecoveryRheology — recoverable and unrecoverable strain |
| 11 | Rheological model fitting | FitModel — classical and fractional viscoelastic models |
| 12 | Frequency to time relaxation modulus | FrequencyToTime — G(t) from G*(ω) |
| 13 | Relaxation spectrum | RelaxationSpectrum — H(τ) via pyReSpect |
Data¶
Example files are in tutorial_data/, named <instrument>_<software>_<method>.
The OWChirp time-domain files were downsampled by a factor of 4 (500 Hz to
125 Hz) to reduce size; the full-resolution files are available on request
from Alessandro Perego (aperego@mmm.com).