Dam Safety Act 2021Mission MausamGrant Proposal
Project Proposal — March 2026

ATOM-GLOF

Next-Generation Neuro-Physics Early Warning System
for Glacial Lake Outburst Floods

195 high-risk Himalayan glacial lakes lack the real-time observational infrastructure for effective Early Warning. ATOM-GLOF closes this gap with sub-surface remote sensing, causal AI breach attribution, and physics-certified GPU surrogates delivering inundation maps in under 60 seconds.

100×
Faster than classical solvers
<60s
Full 2D inundation map
195
High-risk lakes targeted
1000+
Scenario ensemble
Explore Architecture →Executive Summary
Proponent
Culturiq Research Private Limited
Technology Partner: MultiphysicsAI — ATOM SDK

Closing the Observability Gap

Published glaciological surveys identify 195 high-risk Himalayan glacial lakes lacking real-time observational infrastructure for effective Early Warning. The 2023 Sikkim GLOF — ₹4,500+ crore in damages, 40+ fatalities — demonstrated the cost of this gap at scale.

No pre-breach structural precursor
Existing systems detect water level rise — after overtopping begins. Moraine deformation anomalies detectable days before any water level change are not monitored by any operational EWS today.
High-frequency seismic triggers
Ice or rock avalanche into a glacial lake produces displacement waves within minutes — before satellite revisit cycles or water level sensors respond. The 2021 Chamoli and 2023 Sikkim events followed this pattern.
Computational latency vs. evacuation window
Classical flood solvers require 2–6 hours per scenario. The actionable window for downstream evacuation is 1–2 hours. No amount of additional computing hardware resolves this architectural mismatch.
The ATOM-GLOF Response

Three layers. One integrated early warning architecture.

Layer 1
Multi-Modal Remote Sensing
Satellite InSAR + ground-based radar — zero hardware on moraine
Layer 2
Causal Discovery Engine
Breach mechanism attribution and explainable alert generation
Layer 3
ATOM SDK WARP-LBM Surrogate
Physics-certified inundation maps in under 60 seconds
270×
Faster than existing solvers
<60s
2D inundation map
195
High-risk lakes in scope
Zero
Moraine hardware required

High-Risk Lake Distribution

Schematic map of ATOM-GLOF target lakes across the Indian Himalayan arc. 195 high-risk Himalayan glacial lakes identified in published glaciological surveys — the ATOM-GLOF Phase 3 target universe. Click any lake for detail.

HIMALAYAN ARCJammu &Kashmir / LadakhHimachalPradeshUttarakhandNepalSikkimArunachalPradeshCritical riskHigh riskMedium risk
Coverage targets
Total high-risk lakes195
Critical risk47
High risk89
Phase 1–2 coverage30
Phase 3 target195

Click a lake on the map to view detail

Map is schematic — lake locations are illustrative of known high-risk sites across the Indian Himalayan arc. Full GIS-referenced inventory available from GSI and ISRO NRSC published databases.

The ATOM Stack

Three modular layers, each addressing a distinct failure mode of existing approaches. Layer 1 redesigned around satellite and ground-based radar — zero buried hardware on glacial moraine. Click each layer to explore.

Layer 1 — Design rationale

Multi-Modal Remote Sensing Stack

The critical design decision: no buried hardware on glacial moraine. Freeze-thaw cycles at 5,000m destroy enclosures, unconsolidated moraine rubble makes burial impossible without heavy equipment, and battery chemistry fails below −20°C.

Instead: PS-InSAR on free Sentinel-1 data detects moraine surface deformation at millimetre-per-year precision — covering all 195 lakes at near-zero marginal cost. For the 20 highest-risk sites, a solar-powered GB-InSAR station (GPRI-class) deployed at accessible valley base camp 2–5km from the moraine provides sub-mm deformation maps every 2–5 minutes without any presence on the moraine itself.

Field evidence: SBAS-InSAR detected −52mm cumulative moraine deformation 120 days before the 2020 Jinwuco GLOF in Tibet. PS-InSAR at Imja Lake (Nepal) resolved buried ice dynamics and seasonal displacement from orbit. This is the sensing modality that works in these conditions.

SBAS-InSAR: Jinwuco 2020 GLOF precursor — −52mm in 120 days
PS-InSAR: Imja Lake ice dynamics (Univ. Washington 2024)
SWOT: 2,924 Himalayan glacial lakes, R²=0.99 (Han et al. 2026)
GPRI GB-InSAR: <0.2mm accuracy, validated on alpine glaciers
Key Capabilities
PS-InSAR / SBAS-InSAR (Sentinel-1, free) — moraine surface deformation at mm/yr precision
GB-InSAR station (GPRI-class) — sub-mm deformation every 2–5 min, top-20 lakes only
SWOT satellite — lake water surface elevation & area, 21-day repeat, 2,924 Himalayan glacial lakes
Sentinel-2 / PlanetScope — lake area expansion, turbidity plumes, 3–5 day repeat
C-DAC AWWS — existing water level + weather telemetry (integrated, not replaced)
Valley-floor seismometer (where accessible) — avalanche & mass-movement trigger detection
Zero moraine hardware
No sensors on glacial moraine. Five satellite and ground-based modalities — InSAR, SWOT, Sentinel-2, AWWS, GB-InSAR — compose the sensing stack.
C-DAC integration
WARP-LBM output in WMS/WFS format drops into existing C-DAC GIS dashboard. No re-engineering required.
PhysicsIQ certification
Spectral compressibility analysis answers: is the surrogate trained enough to trust with evacuation decisions?

End-to-End Data Flow

From satellite radar and valley-floor sensors to NDMA evacuation order. No hardware on glacial moraine. Hover any node for detail.

SENSINGFUSIONAI COREOPERATIONS<60sSentinel-1/2PS-InSAR · opticalGB-InSARBase camp radar stationNASA SWOTLake WSE · 21-day revisitC-DAC AWWSWater level · weatherSeismometerAvalanche trigger (optional)Data fusionMulti-source alignmentCulturiq SCMCausal attributionWARP-LBMGPU surrogate kernelPhysicsIQCertification · OODC-DAC GISExisting dashboardNDMA MCRMaster Control RoomSatellite / radar sensingIn-situ / existing infraCausal AI / outputSimulation
Multi-cadence data fusion: the open-source infrastructure layer
SWOT revisits every 21 days. Sentinel-1 every 6–12 days. Sentinel-2 every 3–5 days. GB-InSAR continuously. Managing multi-terabyte, multi-cadence satellite arrays across agencies requires cloud-native tensor storage with atomic consistency. ATOM-GLOF's data fabric layer is built on Icechunk — the open-source versioned tensor store validated across weather forecasting and climate science — ensuring India's sovereign flood intelligence stack has no proprietary data lock-in at any layer.
−days
InSAR deformation anomaly
pre-breach precursor
0:00
Trigger event detected
seismic / InSAR anomaly
+0:45
Causal pathway attributed
A / B / C classification
+1:30
1000 scenarios complete
WARP-LBM ensemble
+2:00
C-DAC GIS updated
WMS/WFS layer pushed
+2:30
NDMA MCR alert issued
TTI per village
Why InSAR deformation is a days-ahead precursor
SBAS-InSAR detected −52mm cumulative moraine deformation 120 days before the 2020 Jinwuco GLOF in Tibet. At Imja Lake, PS-InSAR resolved buried ice dynamics and seasonal displacement cycles. This precursor signal — absent from every existing GLOF EWS — is what closes the warning time gap from hours to days.

How does ATOM-GLOF earn trust?

Every surrogate deployed in a life-safety context must answer: how many training simulations before this model is reliable enough to trigger evacuations? PhysicsIQ provides the rigorous answer through spectral compressibility analysis.

Certification Workflow — Click to explore

HEC-RAS 2D sweeps breach parameter space: volume, width, formation time, sediment concentration. Each run is a high-fidelity training point.

Singular Value Spectrum — GLOF ensemble
σ1
σ2
σ3
σ4
σ5
σ6
σ7
σ8
σ9
σ10
Dominant dimensions (3)
Secondary variation

Fast spectral decay → low intrinsic dimensionality → 40–80 training simulations sufficient for certified GLOF surrogate deployment.

Physics Barriers — Conservation Law Checks
Mass conservation
∇·u = 0 enforced
PASS
Momentum balance
Navier-Stokes residual < ε
PASS
Wave speed bounds
c ≤ √(gh) — shallow water limit
PASS
OOD detection
Within trained manifold boundary
PASS

ATOM-GLOF vs Existing Approaches

No existing system closes all three gaps simultaneously — sub-surface sensing, causal attribution, and real-time probabilistic simulation. ATOM-GLOF is the first integrated architecture to do so.

CapabilityWeight
ICIMOD GLOF-IS
Existing
HEC-RAS 2D
Existing
Satellite-only EWS
Existing
ATOM-GLOF
Proposed
Inundation map latencyCritical
4.5 hrs (HPC)
2–6 hrs
None (no model)
<60 seconds
Pre-breach precursor sensingCritical
Water level only
None
Lake area only
InSAR + SWOT + GB-InSAR
Causal breach attributionHigh
None
None
None
Culturiq SCM
Probabilistic ensembleHigh
Single scenario
Manual multi-run
None
1000+ variants
OOD / uncertainty detectionHigh
None
None
None
PhysicsIQ monitor
C-DAC / INSAT integrationHigh
Native (is C-DAC)
Reference solver
Area maps to GIS
Native WMS/WFS
Lakes covered (of 195 target)High
45 of 195
0 (offline tool)
195 (area only)
195 target + SWOT 2,924
Dam Safety Act 2021 readyMedium
Partial
Reference tool
Partial
Clause 35 ready
Ground hardware on moraineMedium
AWWS sensors
None
None
None on moraine
ATOM-GLOF
9/9 capabilities
Only system to close all gaps
ICIMOD GLOF-IS
3/9 capabilities
No sensing, no causal layer
HEC-RAS 2D
2/9 capabilities
Accurate but too slow for EWS
Satellite-only
1/9 capabilities
No model, no sub-surface

Regulatory & Policy Alignment

ATOM-GLOF is designed from the ground up to satisfy existing national mandates — not as an add-on compliance exercise, but as the technical architecture those mandates were written to incentivise.

Dam Safety Act 2021
Clause 35
Mandate
Mandates EWS for all dams with upstream GLOF risk
ATOM-GLOF Contribution
PhysicsIQ-certified surrogate provides regulatory defensibility; NDMA-compatible output format
Mission Mausam
Data Infrastructure
Mandate
Dense observational networks + AI-enhanced hazard nowcasting
ATOM-GLOF Contribution
Multi-modal sensing fills observational gap for 195 high-risk lakes; WARP-LBM delivers nowcasting at Mission Mausam timescales
NDMA GLOF Guidelines
2020 Standard
Mandate
Sub-watershed inundation mapping + TTI estimates required
ATOM-GLOF Contribution
Probabilistic inundation envelopes and per-village Time-to-Impact in GIS-native WMS/WFS format
NAPCC
Climate Adaptation
Mandate
Himalayan ecosystem and disaster risk as priority domains
ATOM-GLOF Contribution
Directly addresses accelerating GLOF risk from cryosphere degradation under climate change
ICIMOD HKH Framework
Regional Cooperation
Mandate
Trans-boundary hazard monitoring across Hindu Kush Himalaya
ATOM-GLOF Contribution
Architecture designed for India, Nepal, Bhutan deployment; data-sharing protocols built-in

36-Month Roadmap

Three phases from computational foundation to 30-lake operational coverage. Click each phase for milestone detail.

Phase
M1
M6
M12
M18
M24
M30
M36
Foundation
Pilot Deployment
Scale-Up
Phase 1 — Milestones
SWOT L2_HR_PIXC processing pipeline for Himalayan glacial lakes
HEC-RAS 2D training corpus — breach parameter ensemble
PhysicsIQ certification — intrinsic dimensionality analysis
ATOM SDK WARP-LBM GLOF surrogate v1.0
DAS soft-sensor lab experiment — geotechnical institution collaboration
Causal SCM graph for GLOF breach pathways A, B, C
Phase 1 — Deliverables
WARP-LBM surrogate v1.0
PhysicsIQ certification report
SWOT WSE pipeline operational

Financial Framework

Phase 1–2 covering 30 high-risk lakes. Phase 3 scale-up structured as a separate tranche contingent on Phase 2 operational validation. All figures in INR crore (₹ Cr).

₹14.73 Cr
Phase 1–2 total (30 lakes)
₹4,500 Cr
2023 Sikkim GLOF damages
0.33%
Of one major GLOF event cost
80%
Fatality reduction / hr lead time gained
Phase 1
Phase 2
GB-InSAR Station + Deployment2.80 Cr
ATOM SDK WARP-LBM Development1.80 Cr
Culturiq Causal AI Integration1.00 Cr
High-Fidelity Training Simulations1.20 Cr
MCR Integration & GIS Infrastructure1.20 Cr
Field Operations & Site Logistics1.50 Cr
Personnel (PI + engineers + field)2.80 Cr
Overheads & Contingency (15%)2.03 Cr
Total
P1: ₹6.02 CrP2: ₹8.31 CrTotal: ₹14.33 Cr

Proponent Consortium

A deliberate combination of deep-tech capability, institutional credibility, and government-system integration experience.

Culturiq Research Pvt Ltd
Lead Proponent
PI

Causal AI for complex physical systems. Validated causal attribution methodology on large-scale flood events. Active engagement with national disaster management frameworks.

MultiphysicsAI
Technology Partner
Tech

30+ years industrial physics simulation. ATOM SDK open-source neuro-physics platform. NVIDIA WARP backend, PhysicsIQ certification framework.

NDMA
Institutional Partner
Govt

National Disaster Management Authority. MCR integration target. Co-developer of GLOF EWS technical standards under Dam Safety Act 2021.

ICIMOD
Regional Partner
Intl

International Centre for Integrated Mountain Development. HKH glacial lake inventory access. Trans-boundary data sharing for Nepal and Bhutan lakes.

GSI / ISRO / NRSC
Data Partners
Data

Geological Survey of India for site characterisation. ISRO/NRSC for Sentinel-1/2 SAR integration and glacial lake inventory data.

Academic Institution (TBD)
Research Partner
Acad

Target: geotechnical and hydrology faculty for PhysicsIQ surrogate validation, sensing experiments, and peer-reviewed co-publication. Engagement initiated through professional networks.

Risk & Mitigation Matrix

ATOM-GLOF is a deployment in one of the world's most demanding physical environments. Each identified risk has a concrete mitigation built into the architecture or programme design.

RiskLikelihoodMitigation
GB-InSAR signal loss in heavy snowfallMediumOperational gap accepted — satellite InSAR primary; GB-InSAR advisory layer only during poor-weather periods
Sentinel-1 repeat cycle gap (6–12 days)Low-MedGB-InSAR provides 2–5 min deformation updates at highest-risk sites; InSAR gap accepted for medium-risk coverage
Surrogate OOD failureMediumPhysicsIQ runtime OOD monitor; Physics Barriers; human-in-loop escalation
NDMA integration delaysMed-HighStandard WMS/WFS output; parallel deployment track; GIS-native format
Site access / clearance denialLowGSI partnership for priority site ID; phased deployment rerouting
Training data gap for novel lake typesLowEnsemble designed to span parameter space; PhysicsIQ detects gaps pre-deploy
Research Disclaimer

Exploratory, research-oriented, and intended for interdisciplinary validation

ATOM-GLOF is presented as an adaptive operational intelligence framework for cascading Himalayan hazard systems. The current platform is exploratory, research-oriented, and intended for interdisciplinary discussion, peer review, and iterative validation across hydrology, cryosphere science, seismology, emergency operations, and environmental AI.

Collaborate on ATOM-GLOF

We are actively seeking institutional partners, co-PIs, and funding bodies. Whether you represent NDMA, a research institution, or a bilateral donor — reach out and we will respond within 48 hours.

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Direct Contact
PI[Principal Investigator Name]
Emailcontact@culturiq.ai
Webwww.culturiq.ai
Tech PartnerMultiphysicsAI — ATOM SDK
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CONFIDENTIAL — This proposal is shared for review and collaboration purposes only. © 2026 Culturiq Research Private Limited. Technology: MultiphysicsAI — ATOM SDK. Dam Safety Act 2021 | Mission Mausam compliant.