Use Cases
Real-World AI.
Real deployments.
AHOY's stack is operational across four critical sectors. Each deployment maps the same underlying technologies to a different set of physical systems—proving the stack works wherever intelligence needs to run locally, sovereignly, and at scale.
Aviation Operations
AI and Advanced Algorithms for Complex Airside Systems
Moving from static schedules to dynamic orchestration. How AHOY's research and technologies power real-world airport and airspace infrastructure.
Operational Fragmentation
Ground handlers, ATC, airlines, and fueling operate on disconnected data silos, leading to cascading delays.
Legacy Constraints
Core systems often run on mainframes from the 1990s, making real-time data integration nearly impossible.
Reactive Recovery
Disruptions (weather, technical) are handled manually via phone and radio, resulting in sub-optimal recovery.
Sovereignty & Security
Data cannot leave the airport premise due to national security regulations, ruling out public cloud AI.
AHOY tools deployed:

AHOY GTS
Turnaround Optimization
Solution:
Real-time routing of ground support equipment (GSE) based on predicted landing times, not scheduled ones.

AHOY Data Intelligence
Complex Regulations (NOTAMs)
Solution:
Agents reason over thousands of pages of operational manuals and live NOTAMs to advise controllers.

AHOY AVML
Apron Blindspots
Solution:
Federated computer vision monitors turnaround events (chocks on/off) without sending video to the cloud.

OPTIMIZATION CORE
Gate Allocation
Solution:
Constraint-aware solving for gate assignment that minimizes passenger transit time and maximizes retail flow.

AHOY MLOps
Sovereign AI
Solution:
Deploys models on-premise at the airport data center with cryptographic verification of training data.

FEDERATED LEARNING
Multi-Airport Learning
Solution:
Models learn from disruption patterns across airports without ever sharing sensitive operational data.
Smart Cities
AI and Advanced Algorithms for City-Scale Operations
Moving from dashboards to dynamic orchestration. How AHOY's research and technologies power real-world urban infrastructure across traffic, transit, utilities, and emergency services.
Disconnected Urban Systems
Traffic, transit, freight, emergency services, and parking operate in silos. One blocked arterial cascades into 50,000 disrupted trips.
Outdated Infrastructure
Core systems run on 1980s-era SCADA and protocols. Real-time integration is bottlenecked by 15-minute batch updates.
Manual Crisis Response
Accidents and weather trigger manual intervention. No system can model the full network impact of rerouting alternatives in real time.
Data Sovereignty Barriers
License plates, transit patterns, emergency calls cannot go to public clouds. Intelligence must run locally while benefiting from multi-jurisdiction patterns.
AHOY tools deployed:

AHOY GTS
City-Wide Traffic Orchestration
Solution:
GTS models the entire urban network as a dynamic geo-temporal graph, continuously recomputing signals, routes, and priorities from live sensors and predictions. Major incidents trigger network-wide responses—retimed signals, transit reroutes, emergency lanes—all validated against hardware and schedule constraints.

OPTIMIZATION CORE
Multi-Modal Capacity Allocation
Solution:
Constraint-aware solver optimizes cars, transit, bikes, freight, emergencies—minimizing delay while respecting equity, emissions, infrastructure limits. Uses live GTS state to predict tradeoffs (e.g., "Bus priority adds 15% car delay—acceptable?").

AHOY MLOps
Sovereign City AI
Solution:
MLOps deploys vision, prediction, and optimization models into municipal data centers with cryptographic data verification. Models retrain continuously on city-specific data (traffic patterns, event responses) without external dependencies.
Water & Utilities
AI and Advanced Algorithms for Infrastructure Operations
Moving from reactive SCADA to predictive orchestration. How AHOY's research and technologies power real-world water, wastewater, and utility networks.
Fragmented Infrastructure Domains
Distribution, treatment, pumping, maintenance, and billing operate in silos. Leaks persist for hours as teams chase symptoms independently.
Legacy SCADA Constraints
Periodic polling, threshold alerts, static models. Brittle vendor-locked integrations. No real-time pressure optimization or leak localization.
Manual Incident Response
Pipe bursts trigger manual workflows. No system models the downstream impact of valve closures across 20 districts for 4 hours.
Sovereignty & Data Barriers
Consumption data, quality telemetry, and infrastructure locations demand on-premise processing. Edge decisions are essential; central clouds violate latency and privacy rules.
AHOY tools deployed:

AHOY GTS
Distribution Network Orchestration
Solution:
GTS models pipes, pumps, valves, reservoirs, and districts as a dynamic geo-temporal hydraulic graph. Continuously recomputes pressure profiles, flow balancing, and valve settings from live SCADA/telemetry and demand forecasts. A burst or drought triggers network-wide adjustments—valve closures, pump rescheduling, treatment prioritization—all validated against pressure limits, quality constraints, and capacity.

OPTIMIZATION CORE
Pressure, Flow, and Energy Optimization
Solution:
Constraint-aware solver optimizes across the network—balancing pressure, minimizing NRW (non-revenue water), prioritizing critical customers. Uses live GTS state to evaluate tradeoffs: "Boosting pump P7 cuts district D4 pressure by 8%—acceptable under drought rules?"
Telecom & Connectivity
AI and Advanced Algorithms for Network-Scale Operation
Moving from static NMS dashboards to dynamic, sovereign orchestration. How AHOY's research and technologies power real-world telecom infrastructure at scale.
Siloed Network Domains
Radio, transport, core, OSS/BSS, and field ops are managed as separate worlds. A backhaul outage appears in transport while RAN just sees bad KPIs.
Aging NMS and OSS Stacks
2G/3G-era monitoring: periodic polling, static topology maps, brittle point-to-point vendor integrations. No real-time cross-domain intelligence.
War-Room Incident Management
Major incidents still mean bridge calls and manual alarm correlation. No engine can simulate "reroute this traffic through ring B" in seconds.
Sovereignty and Edge Pressure
Telcos now host national IDs, payments, and government edge AI. Regulations forbid cloud export just as 5G demands ultra-low latency local decisions.
AHOY tools deployed:

AHOY GTS
Network Topology Orchestration
Solution:
GTS models RAN sites, backhaul rings, IP/optical links, and edge locations as a dynamic geo-temporal graph. Continuously recomputes routing, workload placement, and maintenance from live telemetry and predictions. Fiber cuts trigger network-wide reroutes and workload shifts, validated against capacity, SLAs, and vendor constraints.

AHOY Data Intelligence
Policy & SLA Reasoning
Solution:
G-RAG indexes topology, SLAs, policies, and vendor docs into a queryable graph over GTS. Agents ask: "Maintenance M42 impact on 5G slices?" or "Router R17 redundancy violations?" Answers ground cross-team coordination in live network state.

AHOY AVML
Site & Edge Perception
Solution:
Edge AV/ML monitors towers/shelters for intrusions, gauges, and work validation—without sending raw video off-premise. Observations update GTS ("site S23 on generator") and G-RAG context, fusing physical reality with logical network state.

OPTIMIZATION CORE
Capacity & Workload Optimization
Solution:
Constraint-aware solver balances traffic, minimizes loss, enforces redundancy/latency/energy policies. Uses live GTS to evaluate tradeoffs: "Edge workload shift cuts 12ms latency but adds 8% backbone load—acceptable?"

AHOY MLOps
Sovereign Network AI
Solution:
Deploys forecasting, anomaly detection, and optimization models into operator DCs/MEC sites with cryptographic data verification. Continuous retraining on local patterns (load cycles, roaming, slices) without cloud dependency.

FEDERATED LEARNING
Cross-Network Intelligence
Solution:
Models learn across operators/regions via federated learning—only weights exchange, raw telemetry stays local. Congestion models benefit from other networks' patterns (festivals, storms) while preserving data isolation.
