Division 17 is the materials science, component manufacturing and production-technology division of the AGL Innovation Hub. It investigates how new materials, advanced manufacturing methods, sustainable materials, automated production and digital quality control can improve AGL equipment performance, reliability, environmental resistance, manufacturability and lifecycle cost. Its core philosophy: Better Materials → Better Components → Better Manufacturing → Better Quality → Better Reliability → Better Lifecycle Performance.
The question this division answers — What materials, manufacturing methods and digital quality processes should build the next generation of AGL components — so that fixtures, signs, PAPI units, transformers, connectors and enclosures are stronger, lighter, longer-lived, more sustainable and manufactured with verifiable, traceable quality?
Division 17 supplies the materials-and-manufacturing foundation that AGL Product Innovation builds on. It connects strongly with Division 08 (AGL Product Innovation), Division 16 (Advanced Safety & Reliability), Division 07 (Sustainable AGL) and Division 14 (Advanced Photometry & Optical Innovation), and feeds the AGL Component/Product Encyclopedia.
Identify and evaluate materials that can improve the performance and service life of AGL components.
AGL equipment is exposed to rain, moisture, temperature variation, chemicals, runway contaminants and potentially corrosive environments — making corrosion resistance an important recurring topic.
Investigate advanced polymers for electrical, mechanical, optical and environmental applications.
Investigate aluminium alloys, treatments and manufacturing approaches that improve AGL component performance.
Reduce environmental impact across the AGL product lifecycle.
The innovation programme should evaluate the whole lifecycle, not only the material's environmental impact at production.
Increase the proportion of AGL products that can be recovered, reused or recycled at end of life.
This topic should connect strongly with Division 14 — Advanced Photometry & Optical Innovation.
Improve: optical efficiency, light distribution, colour stability, environmental durability, and long-term photometric performance.
Improve protection of AGL components against environmental ingress.
Maintain sealing performance throughout the intended service life.
Investigate materials that can improve isolation-transformer reliability, thermal performance, insulation performance and lifecycle.
These questions should lead to laboratory validation and field evaluation before operational adoption.
Improve the reliability and environmental performance of AGL connectors and connection systems.
Improve the manufacturing methods used for AGL fixtures.
Investigate additive manufacturing as a tool for AGL prototyping, tooling, spare parts and potentially qualified production components.
Additive manufacturing should be considered according to: material suitability, mechanical performance, environmental resistance, dimensional accuracy, repeatability, certification/qualification requirements, and lifecycle requirements.
Rapidly create: fixture housings, mounting components, connector concepts, optical prototypes, tooling.
Potentially manufacture approved low-volume components where technically and procedurally justified.
Increase manufacturing consistency, productivity and quality.
This should be a major connection between manufacturing and AI.
Create a digitally connected manufacturing environment.
Continuously improve manufacturing performance.
The recommended master architecture for Division 17 — from AGL product design through material selection, advanced manufacturing, quality control and digital traceability, to field deployment and lifecycle feedback.
Division 17 creates a continuous connection between materials and product innovation — transforming material innovation from a laboratory exercise into a complete product-development lifecycle.
Every new material should ideally pass through this eight-stage structured evaluation before operational adoption.
Material, manufacturer, grade, properties, intended application.
Mechanical, electrical, thermal, optical and environmental properties.
Existing materials, sealants, fasteners, coatings, electronics, optical components.
Environmental, mechanical, electrical, thermal, and optical where applicable.
Manufacture a representative component.
Evaluate actual component performance.
Assess long-term performance under real operating conditions.
Document suitability and limitations.
A future manufacturing platform could create a digital quality profile for every AGL product, connecting manufacturing data with the Asset Lifecycle Master Database.
A particularly valuable future concept: a per-product digital passport connecting Division 17 → Division 08 → Asset Lifecycle Management → Failure Intelligence → Sustainability.
A useful way to develop additive manufacturing capability is progressively, level by level.
3D printing used mainly for concepts.
Prototype components used for fit and design verification.
Jigs, fixtures and tooling produced through additive manufacturing.
Selected components produced under controlled quality processes.
Approved digital part designs support controlled spare-part production.
Future possibility of producing qualified components closer to the point of need, subject to engineering, quality and regulatory controls.
A parallel maturity model tracking how manufacturing becomes progressively automated, connected and adaptive.
Human-operated production.
Machines assist production.
Machines perform defined production tasks.
Production and quality information are digitally connected.
AI/analytics optimize production and detect defects.
Production processes dynamically respond to controlled production and quality data.
To make Division 17 operational rather than theoretical, these registers should be maintained and kept current.
Twenty-five KPIs across five categories, used to track how AGL materials and manufacturing capability matures over time.
Division 17 turns sustainability, product, optical and reliability requirements into materials and manufacturing outcomes.
Sustainable AGL & Green Airports → provides sustainability, circular economy, lifecycle carbon and green procurement direction.
AGL Product Innovation → provides next-generation fixtures, transformers, CCRs, connectors and signs to be materialized and manufactured.
Advanced Photometry & Optical Innovation → provides optical materials, LED performance, optical optimization and photometric validation requirements.
Advanced Safety & Reliability Innovation → provides reliability, safety, environmental resistance and resilience requirements.
New Materials & Manufacturing Innovation → brings these requirements into Material → Product → Manufacturing → Quality → Lifecycle.
The evolution that Division 17 is building toward, from conventional materials to next-generation AGL manufacturing.
Division 17 should remain the materials-and-manufacturing foundation, not the product or reliability layer itself. It defines what components are made of and how they are manufactured, inspected and traced — while the product requirements sit in Division 08 — AGL Product Innovation, the reliability and safety requirements sit in Division 16 — Advanced Safety & Reliability, the optical requirements sit in Division 14 — Advanced Photometry & Optical Innovation, and the sustainability direction comes from Division 07 — Sustainable AGL & Green Airports.
Its central philosophy: design better materials → manufacture better components → inspect intelligently → validate performance → capture digital traceability → monitor lifecycle performance → continuously improve the product.
This makes Division 17 the materials-and-manufacturing foundation of the AGL Product Innovation programme, while creating a direct bridge from new material research to actual AGL component development, qualification, production and lifecycle reliability — feeding directly into the AGL Component/Product Encyclopedia and the Asset Lifecycle Master Database.
Quick answers about New Materials & Manufacturing Innovation in the AGL Innovation Hub.
Division 17 is the materials science, component manufacturing and production-technology division of the AGL Innovation Hub. It investigates how new materials, advanced manufacturing methods, sustainable materials, automated production and digital quality control can improve AGL equipment performance, reliability, environmental resistance, manufacturability and lifecycle cost. It covers 17 topics (MFG-01 to MFG-17).
What materials, manufacturing methods and digital quality processes should build the next generation of AGL components — so that fixtures, signs, PAPI units, transformers, connectors and enclosures are stronger, lighter, longer-lived, more sustainable and manufactured with verifiable, traceable quality?
The 17 topics are Advanced AGL Materials, Corrosion-Resistant Materials, High-Performance Polymers, Advanced Aluminium Systems, Sustainable Materials, Recyclable Materials, Advanced Optical Materials, Advanced Sealing Materials, Transformer Material Innovation, Connector Material Innovation, Fixture Manufacturing Innovation, Additive Manufacturing, 3D Printing for AGL Components, Manufacturing Automation, Automated Quality Inspection, Digital Manufacturing and Production Process Optimization.
Division 17 supplies the materials-and-manufacturing foundation that AGL Product Innovation builds on. It connects strongly with Division 08 (AGL Product Innovation), Division 16 (Advanced Safety & Reliability), Division 07 (Sustainable AGL) and Division 14 (Advanced Photometry & Optical Innovation), and feeds the AGL Component/Product Encyclopedia.
The recommended master architecture for Division 17 — from AGL product design through material selection, advanced manufacturing, quality control and digital traceability, to field deployment and lifecycle feedback. The steps or layers are: AGL Product Design; Material Selection — Advanced | Sustainable | Functional Materials; Digital Product Model; Advanced Manufacturing — Automation/Robotics | Additive Manufacturing | Digital Manufacturing; Automated Inspection; Testing; Quality Control; Digital Traceability; Field Deployment; Lifecycle Performance; Material / Design Feedback.
Division 17 creates a continuous connection between materials and product innovation — transforming material innovation from a laboratory exercise into a complete product-development lifecycle. The steps or layers are: Engineering Requirement; Material Selection; Digital Design; Prototype; Manufacturing; Quality Inspection; Laboratory Testing; Photometric / Electrical Validation; Field Trial; Reliability Monitoring; Lifecycle Evaluation; Design Improvement.
Every new material should ideally pass through this eight-stage structured evaluation before operational adoption. STAGE 1; Material Identification; Material, manufacturer, grade, properties, intended application; STAGE 2; Engineering Screening; Mechanical, electrical, thermal, optical and environmental properties; STAGE 3; Compatibility; Existing materials, sealants, fasteners, coatings, electronics, optical components; STAGE 4; Laboratory Testing; Environmental, mechanical, electrical, thermal, and optical where applicable; STAGE 5; Prototype; Manufacture a representative component; STAGE 6; Validation; Evaluate actual component performance; STAGE 7; Field Evaluation; Assess long-term performance under real operating conditions; STAGE 8; Engineering Approval; Document suitability and limitations.
A future manufacturing platform could create a digital quality profile for every AGL product, connecting manufacturing data with the Asset Lifecycle Master Database. The steps or layers are: Product — Serial Number; Manufacturing — Material Batch | Production Date | Machine/Process | Assembly Record; Quality — Inspection Results | Electrical Tests | Photometry | Alignment | Environmental Tests; Deployment — Airport | Location | Installation Date; Lifecycle — Maintenance | Failures | Performance | Replacement.
A particularly valuable future concept: a per-product digital passport connecting Division 17 → Division 08 → Asset Lifecycle Management → Failure Intelligence → Sustainability. It includes Product ID, Manufacturer, Model, Serial number, Material composition, Manufacturing date, Material batch, Manufacturing process, Quality results, Calibration / test information, Installation information, Maintenance history, Failure history, Replacement components, Recycling information and End-of-life information.
A useful way to develop additive manufacturing capability is progressively, level by level. LEVEL 1; Prototyping; 3D printing used mainly for concepts; LEVEL 2; Engineering Validation; Prototype components used for fit and design verification; LEVEL 3; Manufacturing Support; Jigs, fixtures and tooling produced through additive manufacturing; LEVEL 4; Qualified Low-Volume Parts; Selected components produced under controlled quality processes; LEVEL 5; Digital Spare-Part Manufacturing; Approved digital part designs support controlled spare-part production; LEVEL 6; Distributed Manufacturing; Future possibility of producing qualified components closer to the point of need, subject to engineering, quality and regulatory controls.
A parallel maturity model tracking how manufacturing becomes progressively automated, connected and adaptive. LEVEL 1; Manual Manufacturing; Human-operated production; LEVEL 2; Mechanized Manufacturing; Machines assist production; LEVEL 3; Automated Manufacturing; Machines perform defined production tasks; LEVEL 4; Digitally Connected Manufacturing; Production and quality information are digitally connected; LEVEL 5; Intelligent Manufacturing; AI/analytics optimize production and detect defects; LEVEL 6; Adaptive Manufacturing; Production processes dynamically respond to controlled production and quality data.
To make Division 17 operational rather than theoretical, these registers should be maintained and kept current. It includes Advanced Materials Master Register, Corrosion-Resistant Materials Register, High-Performance Polymer Register, Advanced Aluminium Register, Sustainable Materials Register, Recyclable Materials Register, Advanced Optical Materials Register, Advanced Sealing Materials Register, Transformer Materials Register, Connector Materials Register, Fixture Manufacturing Innovation Register, Additive Manufacturing Register, 3D-Printed Components Register, Manufacturing Automation Register, Automated Quality Inspection Register and Digital Manufacturing Register.
Twenty-five KPIs across five categories, used to track how AGL materials and manufacturing capability matures over time. It includes New materials evaluated, Materials qualified, Material performance improvement, Corrosion-resistance improvement, Material-life improvement, Recycled-material percentage, Recyclable-material percentage, Material waste reduction, Lifecycle material impact, Product recyclability, Production time, Manufacturing defects, Rework percentage, Scrap percentage, Production automation percentage and First-pass yield.
Division 17 turns sustainability, product, optical and reliability requirements into materials and manufacturing outcomes. DIV 07 Sustainable AGL & Green Airports → provides sustainability, circular economy, lifecycle carbon and green procurement direction; DIV 08 AGL Product Innovation → provides next-generation fixtures, transformers, CCRs, connectors and signs to be materialized and manufactured; DIV 14 Advanced Photometry & Optical Innovation → provides optical materials, LED performance, optical optimization and photometric validation requirements; DIV 16 Advanced Safety & Reliability Innovation → provides reliability, safety, environmental resistance and resilience requirements; DIV 17 New Materials & Manufacturing Innovation → brings these requirements into Material → Product → Manufacturing → Quality → Lifecycle.
The evolution that Division 17 is building toward, from conventional materials to next-generation AGL manufacturing. The steps or layers are: Conventional Materials; Advanced Materials; Sustainable Materials; Advanced Manufacturing; Automated Manufacturing; Digital Manufacturing; Intelligent Quality Inspection; Additive Manufacturing; Digital Product Passport; Circular Product Lifecycle.
New materials and manufacturing innovation starts with understanding advanced polymers, coatings, additive manufacturing and production processes applied to AGL components. The next step is building the technical knowledge required to evaluate, develop and apply these materials with confidence.
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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