Spandan Mahapatra
OPS-01 | AI for flight operations

Crew Scheduling & IRROPS Modernization

Replacing legacy z/TPF crew scheduling modules with a cloud-native AI platform that transforms irregular operations recovery from hours of manual effort to minutes of intelligent automation.

Crew managementIrregular operationsRecovery optimizationFAR 117 compliance
-40%
IRROPS cost reduction
-60%
Recovery time
+12%
Crew utilization

The stakes

Business scale and impact that makes this transformation critical.

7,000+
Flights cancelled
CrowdStrike incident July 2024
$550M
Total loss
Single disruption event
4-8 hrs
Manual recovery time
Current IRROPS process
$2.5M
Avg cost per IRROPS event

Current-state friction

Legacy

Legacy z/TPF Dependency

The CrowdStrike incident (July 2024) exposed a 60% Windows dependency that cascaded into 7,000 cancelled flights and a $550M loss. Core crew scheduling still runs on 1970s-era z/TPF mainframe architecture — brittle, opaque, and increasingly difficult to maintain as institutional knowledge retires.

60% Windows dependency
Manual

Manual IRROPS Recovery

The current crew recovery process is largely manual, requiring 4-8 hours during major disruptions. There is no automated crew swapping or deadheading optimization. Coordinators juggle spreadsheets and phone calls while thousands of passengers wait for rebooking.

4-8 hrs recovery time
Regulatory

FAR 117 Compliance Complexity

Federal Aviation Regulation Part 117 mandates strict duty-time and rest requirements that vary by time zone, report time, and flight type. Layering union contractual rules on top creates a constraint matrix that is nearly impossible for humans to optimize at scale during disruptions.

200+ constraint variables

Intelligent choices architecture

Four-step agentic decision loop powering autonomous operations.

STEP 01
Sense
What the agents observe
  • Real-time crew position and duty-status tracking across all hubs
  • Weather feeds from DTN and NWS with impact-zone overlays
  • FAR 117 duty-time counters and rest-requirement calculations
  • Aircraft routing changes and gate availability signals
z/TPF crew systems · DTN Weather API · Jeppesen CrewAlert · Delta OCC feeds
STEP 02
Decide
How the agents reason
  • Constraint-satisfaction optimization across FAR 117, union rules, and crew qualifications
  • Multi-scenario simulation ranking recovery plans by cost, pax impact, and crew welfare
  • Deadhead routing optimization to reposition displaced crew
  • Reserve crew activation sequencing based on contractual seniority
TCS Optumera optimizer · AWS SageMaker · Constraint solver engine · Monte Carlo simulator
STEP 03
Act
What the agents do
  • Automated crew reassignment with human-in-the-loop approval for large-scale swaps
  • Push notifications to affected crew with updated schedules and hotel arrangements
  • Trigger downstream passenger reaccommodation via integration with COM systems
  • Generate compliance documentation for FAA audit trail
  • Coordinate with gate and aircraft agents for synchronized recovery
Crew notification system · Hotel booking API · Passenger reaccommodation engine · FAA compliance logger
STEP 04
Learn
How the agents improve
  • Post-disruption analysis comparing AI recommendations to human overrides
  • Pattern recognition across seasonal weather disruptions and hub-specific vulnerabilities
  • Model retraining on crew preference data to reduce voluntary swap rejections
  • Continuous calibration of recovery-time predictions against actual outcomes
MLflow experiment tracking · Databricks analytics · TCS Pace Port feedback loop · Delta OCC debrief data
A winter storm hits ATL at 2AM. The IRROPS agent detects 47 downstream cancellations, simulates 12 recovery scenarios in 90 seconds, auto-reassigns 340 crew members within FAR 117 limits, and triggers passenger reaccommodation — all before the first affected crew member wakes up.

Human + AI autonomy levels

L1Tool
CURRENT
L2Assistant
TARGET
L3Supervised agent
L4Autonomous agent
L5Agentic workforce
Human role
Human as doer
Human as decision-maker
Human as supervisor
Human as exception handler
Human as strategist
AI role
AI as dashboard
AI suggests swaps
AI executes single-leg swaps
AI runs full recovery
Multi-agent coordination
Description
Crew position visibility dashboards and duty-time tracking displays for OCC coordinators.
AI recommends crew swaps and deadhead routings; human coordinator reviews and approves each swap individually.
Agent autonomously executes single-leg crew swaps within pre-approved boundaries; escalates multi-leg or complex scenarios.
Bounded autonomy for full IRROPS recovery execution including multi-leg swaps, deadheading, and reserve activation.
Multi-agent coordination across crew, aircraft routing, gate assignment, and passenger reaccommodation — fully orchestrated recovery.
Team type
Traditional squads
Human-led with AI copilot
AI-led with human oversight
Autonomous with guardrails
Agent ecosystem
Guardrails
Read-only dashboards; no AI recommendations
Every swap requires human approval; FAR 117 hard-stop validation
Bounded to single-leg swaps; auto-escalation on union seniority conflicts
Cost ceiling per event; mandatory human review above threshold; FAR 117 hard constraints immutable
Cross-agent consensus protocols; regulatory compliance verification layer; human strategic override

TCS agentic AI agents

Click an agent to see detailed capabilities, autonomy levels, and TCS proof points.

KPI architecture

LevelKPIBaselineTargetBusiness link
L0 BoardIRROPS cost per event$2.5M$1.5MDirect P&L impact on operational disruption costs
L1 ExecRecovery time4-8 hrs<1 hrCustomer NPS and operational continuity
L2 OpsCrew utilization78%88%Labor cost efficiency and schedule reliability
L3 AI OpsAutomated crew swaps0%75%Operational scalability during disruptions
L4 AI DecisionSwap accuracyN/A>95%Trust in autonomous operations

TCS proof points

TCS IP
TCS Agentic Operations Platform

Deployed at 3 top-10 airlines for crew recovery optimization, demonstrating significant IRROPS cost reduction and faster recovery times across complex hub-and-spoke networks.

7
Top-10 airlines served
<90s
Recovery plan generation
$2.1B
IRROPS savings delivered
Quick-win opportunity

TCS Incept.AI Innovation Camp: 4-6 week discovery workshop ($500K-$1M) to assess current state, identify automation opportunities, and deliver a prioritized transformation roadmap with measurable business outcomes.

Expansion path

From discovery to full-scale deployment: Spark.AI for prototyping (8-12 weeks), Realize.AI for production scaling (6-12 months), and ongoing managed services with SLA-based outcomes.

Enterprise Control Plane
How this connects
  • Model orchestration for multi-agent IRROPS recovery
  • Governance controls for FAR 117 compliance verification
  • Observability tracking crew swap accuracy and recovery times

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