Division 05 establishes the digital engineering foundation of the AGL Innovation Hub. Its principal areas are digital engineering, digital twins, BIM, GIS, cloud engineering platforms, digital documentation and simulation models. The core objective is to create a continuously usable digital representation of AGL assets, systems, engineering information and lifecycle activities — from design and construction through commissioning, operation, maintenance and eventual replacement.
The question this division answers — How does AGL move from drawings, spreadsheets and paper records to a connected digital engineering representation — one continuously usable digital model of every asset, system and lifecycle activity, from design through decommissioning?
Division 05 acts as the digital information backbone connecting the technology divisions. It does not generate the field data or the intelligence itself — it creates the digital representation and engineering information structure that the other divisions plug into.
Apply digital engineering methods throughout the AGL lifecycle, so design, asset, testing, commissioning and maintenance information remain connected rather than isolated.
Move from:
to:
Develop digital representations of physical AGL systems that can be used for engineering analysis, visualization, monitoring and lifecycle management.
The digital twin can progressively receive live information from the IoT & Connected AGL division:
This should become one of the flagship programmes of Division 05. Purpose: create an integrated digital representation of the airport's AGL infrastructure.
Each asset could contain: asset ID, asset type, manufacturer, model, serial number, location, installation date, commissioning information, technical characteristics, warranty, maintenance history, failure history, test results, photometric results, current condition and lifecycle status.
The long-term objective is:
Integrate AGL information into Building Information Modelling (BIM) workflows where applicable.
AGL should not simply appear as graphical objects — the BIM object should ideally contain meaningful engineering information.
Asset ID → Type → Manufacturer → Model → Installation location → Technical characteristics → Installation date → Maintenance history → Replacement information.
Connect AGL asset information with geographic location.
Each asset should be spatially connected to:
Provide a centralized environment for storing, accessing and managing digital engineering information.
Transform AGL technical documentation into structured digital engineering information.
Documents should not remain isolated files. They should be connected to:
Develop standardized digital models of AGL equipment.
Equipment models can support digital twin, design, procurement, commissioning, maintenance and lifecycle management.
Develop digital representations of AGL electrical circuits.
The model should maintain relationships between individual components.
The digital circuit model could support circuit analysis, fault analysis, design review, voltage-drop calculations, maintenance, troubleshooting and digital commissioning.
Create standardized digital representations of individual physical assets.
Asset ↔ Project ↔ System ↔ Location ↔ Circuit ↔ Test ↔ Maintenance ↔ Failure ↔ Product ↔ Documentation.
This is particularly important for the wider Asset Lifecycle Master Database architecture.
Use digital models to simulate AGL systems before or during physical implementation.
Use digital models and simulations to verify aspects of AGL systems before physical commissioning.
Conduct engineering reviews using digital models and connected engineering information.
Standardize engineering processes using connected digital tools.
Information should ideally be transferred from one lifecycle stage to the next without repeatedly recreating the same data.
Create a structured digital handover from project delivery to airport operations and maintenance.
Rather than:
the objective is:
Provide maintenance personnel with the correct asset information at the time of maintenance.
A technician could select an asset digitally and access:
This should be the highest-level application of Division 05. Purpose: maintain digital engineering information throughout the complete AGL asset lifecycle.
Each asset should retain its historical digital identity throughout the lifecycle.
The digital system can connect Asset Condition, Failure History, Maintenance Cost, Performance, Age and Expected Service Life into a single Lifecycle Decision — creating a direct connection with the AGL Asset Lifecycle Guide.
The recommended core architecture for Division 05 — from the physical AGL asset through to lifecycle decision-making.
A useful way to develop this capability is progressively, level by level, rather than attempting to reach the full digital twin in one step.
Drawings and documents become digitally organized.
Every AGL asset has a structured digital record.
Assets are connected to BIM/GIS.
IoT and operational information begin feeding the digital representation.
The digital representation reflects current asset condition and performance.
AI predicts:
To make Division 05 operational rather than theoretical, these registers should be maintained and kept current.
Twenty KPIs across four categories, used to track how far AGL has progressed from documents-about-assets to a connected digital engineering representation.
Division 05 should act as the digital information backbone connecting the technology divisions.
Smart Airfield Lighting → provides smart/connected lighting information.
AI for AGL → uses digital engineering and asset data for AI models.
IoT & Connected AGL → supplies real-time field data.
Digital Engineering → creates the digital representation and engineering information structure.
AGL Automation → uses digital models and workflows for automation.
Digital AGL Control & Monitoring → connects operational monitoring to digital infrastructure.
Advanced Photometry → contributes digital optical/performance information.
Intelligent Maintenance → uses digital asset and condition information.
Innovation Database & Project Intelligence → preserves innovation-project intelligence and relationships.
The end state that Division 05 is building toward, asset by asset.
Division 05 should remain the digital backbone, not the intelligence layer. It creates the digital representation and engineering information structure — the digital twin, BIM/GIS models, circuit and equipment models, documentation and simulation — while the analytics, prediction and diagnosis sit in Division 03 — AI for AGL, and the real-time field data feeding the models comes from Division 04 — IoT & Connected AGL.
Its strongest downstream connections are to Division 12 (AGL Automation) and Division 13 (Digital AGL Control & Monitoring), which consume the digital models and workflows, to Division 14 (Advanced Photometry) and Division 15 (Intelligent Maintenance), which contribute and consume asset condition information, and to the AGL Asset Lifecycle Guide and Asset Lifecycle Master Database, which the digital asset model and digital lifecycle management topics feed directly.
This transforms the AGL documentation philosophy from "documents about assets" into "a connected digital engineering representation of the assets themselves."
Quick answers about Digital Engineering in the AGL Innovation Hub.
Division 05 establishes the digital engineering foundation of the AGL Innovation Hub. Its principal areas are digital engineering, digital twins, BIM, GIS, cloud engineering platforms, digital documentation and simulation models. It covers 17 topics (DE-01 to DE-17).
How does AGL move from drawings, spreadsheets and paper records to a connected digital engineering representation — one continuously usable digital model of every asset, system and lifecycle activity, from design through decommissioning?
The 17 topics are Digital Engineering for AGL, Digital Twins, AGL Digital Twin, BIM Integration, GIS-Based Asset Management, Cloud Engineering Platforms, Digital Documentation, Digital Equipment Models, Digital Circuit Models, Digital Asset Models, Simulation Models, Virtual Commissioning, Digital Design Review, Digital Engineering Workflows, Digital Project Handover, Digital Maintenance Information and Digital Lifecycle Management.
Division 05 acts as the digital information backbone connecting the technology divisions. It does not generate the field data or the intelligence itself — it creates the digital representation and engineering information structure that the other divisions plug into.
The recommended core architecture for Division 05 — from the physical AGL asset through to lifecycle decision-making. The steps or layers are: Physical AGL — Runway | Taxiway | Approach | PAPI | Signs | CCR | Transformer | Cable; Digital Asset Model — Asset ID | Location | Specifications | Configuration; Digital Engineering Model — BIM | GIS | Circuit Model | Equipment Model | Simulation; Connected Data — IoT | Monitoring | Testing | Inspection | Photometry; Digital Twin — Current Asset Representation + Historical Data + Performance; AI / Analytics — Prediction | Diagnosis | Optimization; Lifecycle Management — Maintenance | Renewal | Replacement | Investment.
A useful way to develop this capability is progressively, level by level, rather than attempting to reach the full digital twin in one step. LEVEL 1; Digital Documentation; Drawings and documents become digitally organized; LEVEL 2; Digital Asset Register; Every AGL asset has a structured digital record; LEVEL 3; Spatial Digital Model; Assets are connected to BIM/GIS; LEVEL 4; Connected Digital Model; IoT and operational information begin feeding the digital representation; LEVEL 5; Digital Twin; The digital representation reflects current asset condition and performance; LEVEL 6; Intelligent Digital Twin; AI predicts:; Failure; Asset health; Maintenance requirements; Lifecycle risks; Performance trends.
To make Division 05 operational rather than theoretical, these registers should be maintained and kept current. It includes Digital Engineering Master Register, AGL Digital Twin Register, BIM Asset Register, GIS Asset Register, Digital Equipment Model Register, Digital Circuit Model Register, Digital Asset Model Register, Simulation Model Register, Virtual Commissioning Register, Digital Design Review Register, Digital Engineering Workflow Register, Digital Handover Register, Digital Maintenance Information Register, Digital Lifecycle Register and Digital Data Quality Register.
Twenty KPIs across four categories, used to track how far AGL has progressed from documents-about-assets to a connected digital engineering representation. It includes Percentage of AGL assets digitally registered, Percentage of assets with complete digital information, Percentage of assets mapped in GIS, Percentage of applicable assets represented in BIM, Percentage of projects using digital handover, Digital design-review coverage, Digital-model utilization, Simulation usage, Virtual-commissioning usage, Engineering workflow automation, Digital handover completeness, Maintenance-information availability, Asset-data accuracy, Asset-data update compliance, Lifecycle-data continuity and Percentage of assets represented in digital twin.
Division 05 should act as the digital information backbone connecting the technology divisions. DIV 02 Smart Airfield Lighting → provides smart/connected lighting information; DIV 03 AI for AGL → uses digital engineering and asset data for AI models; DIV 04 IoT & Connected AGL → supplies real-time field data; DIV 05 Digital Engineering → creates the digital representation and engineering information structure; DIV 12 AGL Automation → uses digital models and workflows for automation; DIV 13 Digital AGL Control & Monitoring → connects operational monitoring to digital infrastructure; DIV 14 Advanced Photometry → contributes digital optical/performance information; DIV 15 Intelligent Maintenance → uses digital asset and condition information; DIV 25 Innovation Database & Project Intelligence → preserves innovation-project intelligence and relationships.
The end state that Division 05 is building toward, asset by asset. The steps or layers are: Every AGL Asset; Has a Digital Identity; Has a Digital Engineering Model; Has a Digital Location; Has Digital Test & Commissioning Records; Has Digital Maintenance & Failure History; Receives Connected Data Where Applicable; Has Current Condition Information; Can Be Analyzed by AI; Supports Lifecycle Decisions.
Apply digital engineering methods throughout the AGL lifecycle, so design, asset, testing, commissioning and maintenance information remain connected rather than isolated. Scope: Digital AGL design, Digital asset information, Digital circuit engineering, Digital equipment models, Digital documentation, Digital testing information, Digital commissioning, Digital handover, Digital maintenance and Digital lifecycle management.
Develop digital representations of AGL electrical circuits. Circuit Information: CCR, Primary circuit, Isolation transformers, Secondary circuits, Fixtures, Connectors, Circuit topology, Cable information, Circuit identification and Electrical parameters.
Develop digital representations of physical AGL systems that can be used for engineering analysis, visualization, monitoring and lifecycle management. The Digital Representation Can Contain: Asset identity, Location, Technical characteristics, Configuration, Performance information, Maintenance information, Test history, Failure history and Operational information.
Digital engineering for AGL starts with understanding BIM, digital twins, simulation and model-based design. The next step is building the technical knowledge required to evaluate, develop and apply these digital tools across the airfield lighting lifecycle.
Develop structured knowledge across:
Understand how engineering problems become opportunities, technologies, concepts, validation activities and measurable improvements.
Understand today's AGL. Build tomorrow's capability.
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