Velocity Composites Strengthens Leadership as Aerospace Material Demand Rises

Updated on September 14, 2026 • 9 min read

Velocity Composites has appointed Matthew Fowler as Group Chief Financial Officer as the U.K. aerospace composites specialist prepares for further international expansion amid rising commercial aerospace and defence activity.

Fowler joined the Burnley-headquartered company and its board on September 1, 2026, succeeding Rob Smith, who previously announced plans to retire from the CFO position.

Smith will remain with Velocity as Company Secretary, providing continuity during the leadership transition.

On the surface, this is a corporate appointment.

For the composites supply chain, however, the timing points toward a larger manufacturing issue.

As aircraft production rates increase, aerospace manufacturers do not simply need more carbon fiber prepreg.

They need more material delivered to production in the correct form, quantity and sequence — with less waste, tighter traceability and greater control over expensive materials with limited storage lives.

That is the manufacturing problem around which Velocity Composites has built its business.

Velocity Sits Between Composite Material Supply and Part Production

Velocity does not manufacture carbon fiber itself.

Instead, the company manufactures carbon-fiber and ancillary-material kits used by aerospace manufacturers and manages parts of the material supply chain through its process knowledge and proprietary software.

This distinction is important.

Aerospace composite components frequently begin with rolls of prepreg or other intermediate materials that subsequently need to be stored, managed, cut into specific ply geometries, organized and delivered to manufacturing operations.

The raw material therefore represents only the beginning of the production process.

Before a laminate can be laid up, manufacturers have to transform bulk material into the individual plies and kits required for a particular component.

Velocity operates within this intermediate manufacturing layer.

Its model combines material management, cutting and kitting with digital systems intended to control material use and reduce waste.

Higher Aircraft Rates Put Pressure on Composite Material Flow

Aircraft production rate increases create a distinctive challenge for composite manufacturing.

If a factory doubles the number of structures it needs to produce, it does not automatically follow that its material-preparation operation can simply process twice as much prepreg using the same system.

Higher throughput increases pressure on several interconnected activities:

material forecasting, inventory management, cutting capacity, nesting efficiency, traceability, kit preparation and delivery to the production line.

Prepreg creates additional constraints because many aerospace systems require controlled refrigerated storage and have defined out-time and shelf-life limits.

Material that is incorrectly scheduled can therefore become waste before it ever reaches an aircraft.

This means production-rate increases are partly a materials logistics problem.

A fast automated layup system has limited value if the required material does not reach it at the correct time and in the correct condition.

Carbon Fiber Scrap Has an Expensive Origin

Waste reduction is particularly significant in aerospace composites because the material being discarded is already a high-value engineered product.

A prepreg contains more than reinforcement fiber.

It combines carbon fiber with a formulated resin system manufactured to defined material and processing specifications.

By the time that material reaches a cutting table, substantial value has already been added.

Poor nesting efficiency, excess inventory, expired material and cutting losses therefore carry both economic and material consequences.

Velocity’s model is intended to reduce the quantity of raw material customers require and decrease associated waste during aircraft-part manufacturing.

That puts digital optimization and physical material processing into the same workflow.

For aerospace manufacturers operating at higher volumes, even relatively small percentage improvements in material utilization can become significant when multiplied across thousands of kits.

Kitting Separates Material Preparation From Laminate Production

Pre-cut kitting can also change how labor is distributed inside a composites factory.

Instead of requiring operators close to the molding or layup operation to retrieve bulk material, cut individual shapes and organize them for each component, those activities can be performed upstream.

The manufacturing cell then receives material prepared for a defined production task.

Conceptually, this is similar to other industrial strategies that move variability away from the final assembly process.

The objective is not simply to cut carbon fiber faster.

It is to make the material arriving at production more predictable.

For high-rate aerospace programs, that predictability can become increasingly important because disruptions in an upstream preparation process can propagate into much more expensive downstream equipment and labor.

Digital Material Management Becomes Part of Manufacturing

Velocity’s proposition also illustrates how the boundary between composites manufacturing and supply-chain software is becoming less distinct.

Composite material has a digital history as well as a physical form.

Manufacturers may need to control batch information, storage conditions, remaining life, material allocation, cutting plans and the destination of individual kits.

At lower production volumes, some inefficiencies can be absorbed through inventory, labor or manual intervention.

As volumes rise, those workarounds become harder to sustain.

Digital material management can therefore become part of production-rate capability rather than merely an administrative function.

This is particularly relevant in aerospace, where traceability and controlled manufacturing processes are fundamental requirements.

International Expansion Changes the Supply Model

Velocity’s leadership change comes as the company continues pursuing international growth.

That matters because composite material preparation is sensitive to geography.

Moving raw materials and kits across long distances introduces lead time, inventory requirements and logistical complexity.

Prepreg can add another constraint because temperature-controlled handling may be required depending on the material system.

Locating preparation and material-management capabilities closer to aerospace manufacturing operations can therefore provide operational advantages.

But international expansion also increases capital allocation, working-capital and governance requirements.

That provides context for Fowler’s appointment.

He previously served in CFO positions at The Revel Collective plc, musicMagpie plc and genedrive plc and earlier worked as Group Financial Controller at Scapa Group plc. He is an ICAEW-qualified Chartered Accountant.

Velocity says his experience in financial reporting, governance, audit and strategic financial leadership will support the company’s next stage of development.

Commercial Aerospace and Defence Create Different Opportunities

Velocity identifies opportunities across both commercial aerospace and defence.

The two markets can create different production conditions.

Commercial aerospace programs may require sustained output across long production runs, making material utilization and repeatable kit supply particularly important.

Defence programs can involve different volumes, schedules, security requirements and program structures.

The underlying materials-management challenge nevertheless remains similar:

expensive composite material must reach manufacturing operations in the correct condition and configuration.

As carbon-fiber structures expand across aerospace applications, the industrial opportunity is therefore not limited to companies manufacturing fibers, resins or prepregs.

There is also value in managing the conversion of those materials into production-ready inputs.

Professor’s Analysis: Aerospace Composite Capacity Is More Than Autoclaves and AFP Machines

When aerospace production constraints are discussed, attention naturally goes to visible capital equipment.

Autoclaves.

Automated fiber placement machines.

Automated tape laying systems.

Large molds.

Inspection equipment.

But a composite factory is a chain.

Increasing capacity at one stage does not automatically increase the throughput of the complete system.

Material preparation can become one of those less visible constraints.

Every ply required for a prepreg laminate has to originate somewhere.

Material needs to be ordered, stored, tracked, cut, organized and delivered before layup can begin.

As production rates increase, doing those jobs consistently becomes a manufacturing-engineering problem in its own right.

That makes companies such as Velocity interesting within the broader aerospace composites ecosystem.

They are effectively industrializing the space between raw composite material and laminate production.

Material Utilization Could Become More Important as Volume Rises

Higher production rates also change the economics of scrap.

Consider a process improvement that saves only a small percentage of prepreg on each kit.

At prototype volumes, the absolute saving may be limited.

Across a high-volume aerospace program running for years, the same percentage can translate into substantial quantities of carbon-fiber material.

This makes nesting, inventory optimization and material-life management increasingly valuable as production scales.

It also explains why digitalization in composites does not have to begin with artificial intelligence or fully autonomous factories.

Some of the most economically relevant digital tools may simply provide better answers to fundamental manufacturing questions:

Which material is available?

How much usable life remains?

Which component requires it?

How should the plies be nested?

When should the kit reach production?

Those questions directly affect material consumption and factory throughput.

Supply Resilience Does Not Mean Simply Holding More Inventory

The source also emphasizes resilient aerospace supply chains.

For prepreg and other controlled-life materials, resilience cannot necessarily be achieved simply by increasing inventory.

Holding excessive material can create its own risks if shelf-life limitations, storage capacity or program changes result in unused stock.

A more sophisticated approach requires visibility into consumption and demand.

That changes the definition of supply resilience.

Instead of maximizing inventory, manufacturers may need to optimize the relationship between availability, material life, production schedules and geographic proximity.

Digital material management can contribute to that objective, although its effectiveness ultimately depends on integration with customers’ actual manufacturing operations and data.

Financial Leadership Is the News; Manufacturing Scale Is the Story

Fowler’s appointment does not change composite technology directly.

Its relevance lies in what Velocity expects to manage next.

International manufacturing expansion requires investment decisions, working capital, customer-program management and financial controls alongside engineering capability.

Velocity Chairman Andy Beaden said increasing opportunities across aerospace and defence made Fowler’s listed-company, financial leadership and corporate governance experience valuable as the company scales internationally.

The next measure of Velocity’s progress will therefore not simply be its executive structure.

It will be whether its combination of material kitting, process engineering and digital supply-chain management can scale alongside the aerospace programs it serves.

That question is becoming increasingly relevant as the aerospace industry works to increase output.

The composites sector often focuses on developing stronger fibers, faster-curing resins and more automated layup technologies.

But higher aircraft production rates expose another reality:

advanced materials only create aircraft structures when the manufacturing system can move them efficiently from a roll of material to the production line.