glacial-seismicity-utac
GenesisAeon Package 101 — Glacial Isostatic Adjustment (GIA) and glacially-induced/modulated seismicity. Deliberately has no UTAC/CREP/AFET bridge — see DISCLAIMER.md.
For a plain-language explanation of the same topic (German, no jargon, written for general audiences), see WHITEPAPER.md.
Two explicit confidence tiers
- Core (
mechanics,historic,modern): real, peer-reviewed findings independently re-verified 2026-08-11 via direct paper/DOI lookup. Two numbers from the source research dialogue (Glacialschmelze_Tektonik.txt) were found to be wrong during this verification and are corrected here — seeALASKA_CORRECTION_NOTE. - Documented (
regions.py's four extra entries): real regions carried over from the source dialogue without the same independent re-verification. Every entry'sconfidencefield says which tier it's in.
What's real here (core)
- Historic deglaciation (~20-8 ka) — GIA as primary driver: the Pärvie Fault, Fennoscandia (155 km long, the world's longest known postglacial fault, M8.0±0.4) and the Charlevoix Seismic Zone, eastern Canada (1663 earthquake, M7.5±0.45; present GIA rebound stress ~10 MPa, "a non-negligible source of stress perturbation" per Verdecchia et al. 2022).
- Modern glacier retreat — GIA as modulator: the Fairweather Fault/Glacier Bay Icefield, Alaska (Rollins et al. 2021 — >3,000 km³ ice lost since ~1770, ~0.2-0.6 MPa Coulomb stress increase at the site of the 1958 Mw7.8 rupture); the Mont Blanc massif (Simon et al. 2025 — seismic hazard up ~2 orders of magnitude since 2015 from meltwater pore pressure); and present-day eastern North America (Hightower & Gurnis 2025 — <2 MPa background, 3-4 MPa near pre-existing weak zones).
- Coulomb Failure Stress mechanics (
mechanics.py): standard rock-mechanics physics (King, Stein & Lin 1994) for lithostatic unloading and meltwater pore-pressure effects on fault stability.
What was corrected
The source dialogue's Alaska case originally claimed ">1200 km³" ice
loss and "2-3 MPa" stress change. Independent verification against
Rollins et al. (2021) found the real figures are >3,000 km³ ice
loss (understated by ~2.5x) and ~0.2-0.6 MPa stress change
(overstated by ~5-10x). See ALASKA_CORRECTION_NOTE.
What's documented but not independently re-verified
Greenland (historic), Iceland, High Mountain Asia and Patagonia
(modern) — real regions from the source literature synthesis, kept for
completeness but flagged (confidence="documented") since they didn't
get the same direct paper-by-paper check as the five core cases.
Quickstart
pip install glacial-seismicity-utac
from glacial_seismicity_utac import (
PARVIE_FAULT,
ALASKA_FAIRWEATHER,
MONT_BLANC_MASSIF,
ALL_REGIONS,
core_regions,
is_gia_primary_driver,
coulomb_failure_stress_change_pa,
)
print(PARVIE_FAULT.magnitude, PARVIE_FAULT.magnitude_uncertainty) # 8.0 0.4
print(ALASKA_FAIRWEATHER.stress_change_mpa_range) # (0.2, 0.6)
print(len(core_regions())) # 5
# Meltwater pore-pressure increase promoting fault failure:
delta_cfs = coulomb_failure_stress_change_pa(
delta_shear_stress_pa=0.0,
friction_coefficient=0.6,
delta_normal_stress_pa=0.0,
delta_pore_pressure_pa=-1e6,
)
print(delta_cfs > 0) # True -- promotes failure
Development
pip install -e ".[dev]"
pre-commit install
ruff check src tests
mypy src
pytest
Citation
See CITATION.cff and .zenodo.json.
Metadata
Release files for glacial-seismicity-utac 1.0.1
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