FIELD PROVEN · TATA STEEL · 38 LADLE BAYS · 7 PLANTS

LIQUID STEEL INTELLIGENCE PLATFORM

From hook engagement safety to end-to-end ladle intelligence. Vision. Physics. AI. Outcomes.

No Field Devices Near Heat Camera + WiFi + Crane Radar Physics-Informed AI Agentic Operations
ZeroGround crew in hazard zone
±2°CSuperheat prediction accuracy
<2sWrong ladle alert latency

🏆 Proven at Tata Steel

Hook Vision system deployed across 38 ladle bays in 7 plants. Over 18 months of stable live operation.

Ready to scale to Jindal.

VISION. PHYSICS. AI. OUTCOMES.

Tata solved visibility. Nobody has solved intelligence yet. That's the opportunity.

The Problem That Hasn't Changed

150 tonnes of liquid steel at 1600°C. One wrong move. Catastrophic consequence.

⚠️

Improper Engagement

Hook-trunnion misalignment during ladle pickup is the root cause of most liquid steel spillovers. Ground crew dependency creates exposure in the most hazardous zone.

👁️

Zero Operator Visibility

Crane cabin view of hook engagement is structurally obstructed. Ground signaling staff are essential today — but every second they spend near 1600°C is unacceptable risk.

🌡️

No Thermal Awareness

The crane operator and ground crew have no live superheat data, no ladle lining status, no heat sequencing intelligence. Decisions are made blind — every heat, every shift.

Jindal Steel today is exactly where Tata Steel was in 2020 — the visibility problem is solved at Tata. The intelligence layer is not built anywhere yet.

Tata Solved Visibility.
Intelligence is Still Open.

✓ What Tata Steel Deployed
Industrial WiFi mesh across ladle bays
Fixed-position IP cameras at hook pickup points
Video feed to crane cabin + ground station
Dual-view stitched display — both hook sides
Manual crane-ground confirmation process
→ What Nobody Has Yet
Ladle identity & heat number auto-assignment
Live superheat via Vision + Physics model
Ladle lining life tracking & reline prediction
AI-based wrong-ladle alert before pickup
Auto-logged barrier events for safety audit
Crane routing & turnaround optimisation

Five Layers. One Platform.

Physics-informed. Operationally sovereign. No cloud dependency required.

5
AGENTIC OPERATIONS Decision & Orchestration
Auto-authorise pickup · Alert on wrong ladle · Route cranes · Log every barrier event — zero paperwork
4
INTELLIGENCE ENGINE Predict & Optimise
Superheat model · Lining wear prediction · Heat sequence optimiser · Anomaly detection
3
DIGITAL TWIN CORE Model & Track
Ladle identity · Heat tracking · Barrier state machine · MES/LIMS integration
2
VISION AI LAYER See & Understand
Hook engagement confirmation · Ladle position tracking · Anomaly detection from camera feeds
1
VISION & NETWORK Capture & Connect
IP cameras at safe locations · Crane position radar · Industrial WiFi · MES/LIMS data feed
🔥 No field devices near heat. No RFID tags. No sensors on ladles or transfer cars. No pyrometers in the hot zone. Only cameras at safe locations + crane radar + WiFi network. Physics does the rest.

✗ NOT REQUIRED

RFID tags on ladles
Temperature sensors near heat
Sensors on transfer cars
Devices in the hot zone
Pyrometers near liquid steel
Any hardware touching ladle lifecycle

✓ WHAT WE DEPLOY

IP cameras at strategic safe locations
Crane position radar (non-contact)
Industrial WiFi mesh (video transport)
MES/LIMS data integration
Edge compute server in control room
Physics model — replaces sensors

Every Ladle. Every Heat.
Complete Awareness.

Six intelligence modules — all derived from cameras, radar, and physics. No field sensors.

📍

Identity & Position

Ladle ID via crane radar + vision. Heat number from MES. Transfer car location, bay assignment — no RFID, no hot-zone tags.

🌡️

Thermal State

Tap temperature from BOF + transit time → predicted superheat at caster mouth. Physics model. No sensor near heat.

📊

Lining Life

Campaign count, wear model, reline schedule prediction. Reduces reactive reline failures. Cuts refractory cost per campaign.

👁️

Hook Vision AI

Vision-confirmed trunnion engagement. No ground crew in hazard zone. Double confirmation: AI detects, crane operator approves.

🛡️

Barrier Status

Live BowTie barrier health — wrong ladle alerts, low superheat warnings, lining life thresholds. GoatSafety AI framework.

🤖

Agentic Decisions

Automated pickup authorisation, crane routing, audit log. AI recommends. Crane driver decides. Zero paperwork.

Heat to Caster — Six Steps.

The system acts, logs, and alerts. The operator confirms, not choreographs.

01
Heat Ready Signal
BOF tap complete. Ladle ID auto-assigned from MES. Thermal clock starts.
02
Ladle Validation
System checks: correct ladle? Lining life OK? Superheat adequate for transit time?
03
Hook Engagement AI
Vision model confirms trunnion engagement. Ground crew not required in hazard zone.
04
Transit Monitoring
Crane radar tracks position. Physics model predicts superheat decay in real time. Alert if dropping.
05
Caster Authorisation
Go/No-Go at caster mouth based on predicted superheat. Before pouring — not after.
06
Auto Audit Log
Full event chain logged automatically — engagement time, temps, operator IDs, deviations.

Superheat Decay Simulator

Adjust tap temperature and transit time. See predicted superheat at caster — no field sensor required. Physics tells us what the sensor would say.

Input Parameters

From BOF tap data + crane radar transit time

Tap Temperature 1650°C
1580°C1700°C
Transit Time to Caster 12 min
4 min40 min
Ladle Lining Condition New (100%)
Worn (30%)New (100%)
42°C
Predicted Superheat at Caster Mouth
✓ SAFE TO CAST
Model: Stefan-Boltzmann radiation loss + convective cooling + lining thermal resistance. No sensor required — physics predicts what the pyrometer would read.

Superheat Decay Curve

Temperature from tap to caster — predicted every 30 seconds

Safe zone (25–55°C superheat)
Below minimum threshold (25°C)
Predicted decay curve
What this means operationally: If the predicted superheat at caster mouth drops below 25°C, the system raises a Go/No-Go alert before the crane picks up the ladle — giving the operator time to act, not react.

Where the Value Is.

Indicative outcomes based on Tata Steel deployment data and physics-model validation.

Zero

Ground crew in hazard zone

Hook Vision AI eliminates personnel exposure. 100% of ladle bay declared no-man zone.

100%

Barrier events auto-logged

No manual paperwork. Full audit trail from BOF tap to caster pour. Every heat, every shift.

±2°C

Superheat prediction accuracy

Vision + Physics model. No sensors near heat. Physics tells us what the sensor would say.

15–25%

Reduction in ladle turnaround

Agentic routing + pre-validated pickups eliminate confirmation delays and mis-sequences.

Earlier lining reline warning

Wear model vs reactive scheduling. ₹0.8–1.5 Cr refractory saving per campaign (typical).

<2s

Wrong ladle alert latency

Before hook engages — not after. AI cross-checks heat sequence before every pickup.

Domain Depth.
Physics Grounding.
Proven Posture.

2020: Identified this problem. Proposed Hook Vision at Tata Steel. Awarded Design Honour at global round. 5 years later — we're back with the intelligence layer nobody built yet.
🏭

33 Years in Steel

Blast furnace, BOF, continuous casting — domain credibility that pure-tech vendors cannot match. We understand ladle bay operations from shift floor to metallurgical limits.

🧠

Physics-Informed AI

Thermal models grounded in steel thermodynamics — Stefan-Boltzmann, lining conductivity, superheat decay. Not statistical curve-fitting. Results hold at edge cases and new conditions.

🛡️

Safety Architecture First

GoatSafety AI barrier framework is the foundation — not bolted on. Every module has a BowTie barrier model. AI recommends. Crane driver decides. Safety stays human-controlled.

📈

Built for Indian Steel

Designed for brownfield Indian plants — mixed PLC/DCS environments, variable connectivity, tight CapEx cycles, and the operational realities of Indian steel shift operations.

Proposed Next Steps.

From first conversation to plant-wide deployment — a phased, low-risk path.

1

Plant Walk & Problem Mapping

2-day visit to Jindal ladle bay — map current pain points, identify quick wins vs full deployment scope.

Week 1–2
2

Proof of Concept Scope

Define 1 ladle bay as pilot. Hook Vision AI + Ladle Digital Twin + Superheat Physics Model. Agree baseline KPIs.

Week 3–4
3

PoC Deployment & Validation

8–10 week live deployment. Measure against baseline. Full safety barrier coverage report. No disruption to production.

Week 5–14
4

Commercial Rollout Decision

Plant-wide deployment proposal with phased commercial terms, SLA structure, and training programme.

Week 15+

Let's Start
A Conversation.

"When you can see everything, predict what's next, and act before it happens — you don't just run operations. You lead them."

LSIP · POWERED BY GOATAI / MULTIPHYSICSAI · JAMSHEDPUR, INDIA