Finished sintered friction rings, manufactured and inspected in-house

One accountable manufacturing route from friction material to finished component

FTL brings friction-material formulation, component engineering, precision machining, bonding, finishing, testing, inspection and repeat supply into one connected manufacturing route.

Instead of managing a separate material supplier, machinist, bonder, finisher and inspector, your engineering team works through one technical and commercial relationship for the agreed scope.

What single-source friction manufacturing means at FTL

FTL uses single-source friction manufacturing to describe one accountable route for the agreed material, component, manufacturing, inspection and supply scope. Your team does not need to coordinate each connected production stage through a separate organisation.

One technical route

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The project can connect application review, friction-material selection or formulation, component engineering, prototype planning, machining, bonding, finishing, testing and inspection, production transfer and repeat supply.

One commercial route

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The customer has one primary FTL relationship for the agreed connected scope rather than separately purchasing and coordinating each production stage.

One controlled manufacturing route

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The agreed material reference, component definition, production stages, inspection requirements and traceability records can remain connected as the programme progresses.

One escalation route

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When a technical, quality or supply question arises, the customer does not need to determine which unrelated supplier owns the issue before the investigation can begin.

One accountable supplier.
Fewer handovers.
Clearer technical control.

A fragmented supply route can separate the friction material producer, machinist, bonder, finisher and inspector across several organisations. Friction Technology brings these stages into one integrated manufacturing flow, giving your team a single technical and commercial point of accountability from the initial brief to the finished component.

The traditional route
Materials
Machining
Friction
Bonding
Finishing
Inspection
Delivery
Multiple suppliersLong lead timesDiffused accountability High procurement adminMultiple purchase ordersComplex logistics

A fragmented supply chain introduces inefficiencies, delays and complexity.

The traditional route The FTL route one integrated chain
01
Materials
02
Machining
03
Friction
04
Bonding
05
Finishing
06
Inspection
07
Delivery
What an integrated chain gives your team Consistent product quality Shorter lead times Clear accountability Full traceability Reduced admin workload Fewer POs, simpler logistics
Multiple suppliers Long lead times Diffused accountability High procurement admin Multiple purchase orders Complex logistics

A fragmented supply chain introduces inefficiencies, delays and complexity.

When a single accountable manufacturing route matters

The model is most valuable when the material, component and production decisions must remain aligned throughout the programme.

A new programme needs to move from concept into production

The application requires a friction solution, but the material, complete component, prototype, testing and repeat-production route have not yet been fully defined.

A legacy component must be redeveloped and supplied again

The original material, drawing, supplier or component is obsolete, and the replacement must progress through engineering, prototype manufacture, testing and revalidation before ongoing supply begins.

An existing friction system is not performing as required

The problem may involve the material, component geometry, bonding, operating conditions or production controls. A connected route makes it easier to investigate those contributing factors together.

The current supply chain creates finger-pointing

Several suppliers are involved in the finished component, but responsibility becomes unclear when friction performance is inconsistent, dimensions vary, a bond or finish is questioned, traceability is incomplete, delivery is delayed or the approved configuration changes.

A prototype must transfer into repeat manufacture

The material and component decisions made during development need to carry into controlled production, inspection, documentation, traceability, inventory and scheduled supply.

The customer needs fewer supplier handovers

Engineering and procurement teams want a clearer route from the initial brief to the finished component without coordinating multiple specialist suppliers and logistics movements.

The connected route from engineering brief to global component supply

Not every programme requires every stage. The project scope should connect only the capabilities needed to produce and control the required component.

01
Pressed friction-material blocks at the start of the route

Application and requirements review

What the application is, what the component must do, whether it is new, existing or obsolete, the operating environment, available drawings or specifications, known performance or supply concerns, required evidence and approval context.

02
Gear-cut Kevlar and organic friction discs

Friction-material selection or formulation

An established FTL formulation, optimisation of an existing material, a newly developed material route, or further application evidence before material selection.

Friction Material Formulation
03
Dimensioned engineering drawing of a wheel brake

Engineering and component definition

New component development, existing-design review, legacy-component redevelopment, SolidWorks design support, integration of material and component requirements, preparation for manufacture and inspection.

Engineering & Design
04
Stacked machined steel backing plates

Friction and metallic-component machining

Prototype friction components, repeat friction-component manufacture, associated metallic components, defined geometry, in-process checks and dimensional inspection.

CNC Machining
05
Friction components in the bonding jig

Surface preparation, bonding and curing

Backing-component preparation, automatic or manual shot blasting, controlled bonding, UV curing where applicable, process records and shear testing.

Bonding & Finishing
06
Coated and finished friction pads

Protective coating, finishing and assembly

Protective coating, paint finishing, customer-specific finish requirements, assembly, identification and final preparation.

07
CMM probe measuring a friction plate

Testing and inspection

Dynamic and material testing, coefficient-stability assessment, wear-rate assessment, thermal-performance assessment, CMM dimensional inspection, shear testing, in-process checks, final visual and assembly inspection.

Testing & Inspection
08
Rows of sintered friction rings in controlled production

Controlled production and traceability

Material reference and revision, component revision, manufacturing stages, inspection requirements, production records, batch or lot traceability and change-control responsibilities.

09
Finished sintered rings stacked for inventory and dispatch

Inventory, call-off and worldwide delivery

Secure finished-goods storage, controlled inventory, scheduled call-off, customer-specific packaging, labels and barcodes, export documentation and international delivery.

Make responsibility explicit before the programme begins

Single-source accountability works only when FTL's scope and the customer's responsibilities are clearly defined.

FTL responsibility within the agreed scope Customer or appointed-authority responsibility
01Application definition

Review the supplied application and identify required engineering information

Define the intended system function and operating context

02Material route

Select, develop or optimise a material route within scope

Approve requirements and complete any additional system validation

03Component engineering

Provide agreed design or redevelopment support

Confirm design authority and approve the component definition

04Manufacturing

Complete the agreed in-house component-manufacturing stages

Supply approved information and customer-controlled inputs

05Testing and inspection

Produce agreed material, dimensional, bond or production evidence

Define or approve acceptance requirements where applicable

06System validation

Support with evidence included within FTL's scope

Complete equipment-, platform- or regulatory-level validation unless otherwise agreed

07Production transfer

Establish approved material, component and process controls

Approve the production configuration through the agreed route

08Change control

Control changes within FTL's manufacturing scope

Review customer-approval changes and wider system implications

09Supply

Manufacture, store, package and deliver within agreed arrangements

Provide forecasts, call-off requirements and receiving controls

Combine one-point accountability with a defined continuity plan

One accountable manufacturing partner can simplify the customer-facing supply route, but it does not remove the need for continuity planning. The programme should establish how the approved material and component route will be maintained over time.

Material and component control

Confirm a controlled material reference, approved component configuration, current revisions, change-notification responsibilities, customer approval requirements and traceability records.

Production continuity

Where relevant, review critical manufacturing stages, equipment dependency, tooling or fixture requirements, capacity requirements, recovery arrangements and approved alternative routes.

Inventory and call-off planning

FTL's confirmed supply capability includes secure finished-goods storage, controlled inventory, scheduled call-off and customer-specific packaging and identification. The appropriate inventory level and call-off arrangement must be agreed for the programme.

Material-supply risk

Establish critical material inputs, customer-controlled materials, long-lead inputs, change-notification requirements and approved contingency arrangements.

Global delivery

FTL manufactures in North Wales and can support export documentation, customer-specific packaging, customer-specific labelling and international shipping.

Single-source versus sole-source

FTL uses single-source to describe one accountable route for the awarded manufacturing scope. It does not require a customer to adopt a sole-source procurement policy. The customer's wider sourcing and risk strategy remains its own decision.

What the integrated model is designed to improve

The objective is a clearer, more controllable route from the application brief to the finished component. Potential customer outcomes include:

  • Fewer direct supplier relationships across the connected manufacturing scope
  • Fewer technical handovers
  • One primary escalation route
  • Clearer responsibility when an issue arises
  • Material and component revisions kept together
  • Continuity from prototype work into repeat manufacture
  • Testing and inspection linked to the manufactured configuration
  • Production and traceability records connected to the finished component
  • Fewer separate purchase orders and logistics movements
  • Inventory and scheduled supply aligned with the programme
  • Customer-specific packaging and identification
  • One manufacturing partner capable of remaining involved throughout the programme lifecycle

What a single-source manufacturing engagement can deliver

Deliverables depend on the agreed scope. Outputs span engineering and responsibility definition, controlled material and component routes, prototypes, testing and inspection evidence, and a controlled repeat-supply arrangement. The detail for each output sits on the capability page that owns it.

A stage-gated route from technical brief to lifecycle supply

Each stage should answer a defined question before the programme moves forward.

01

Share the application and programme situation

  • What the component must do
  • New, underperforming or obsolete
  • Information available
  • What prompted the enquiry
  • Required outcome
Decision: is FTL an appropriate fit?
02

Define scope and responsibility

  • FTL technical scope
  • Customer responsibilities
  • Design authority
  • Required documents
  • Approval responsibilities
  • Commercial scope
Decision: is the accountability boundary clear?
03

Select the appropriate service route

  • New Programme Support
  • Legacy & Obsolete Reverse Engineering
  • Performance Optimisation
  • A defined manufacturing-only route where appropriate
Decision: which engagement matches?
04

Establish the material route

  • Established formulations
  • Optimisation requirements
  • New material development
  • Additional application evidence
Decision: which material route progresses?
05

Establish the component and manufacturing route

  • Component geometry
  • Associated metallic elements
  • Machining, bonding, finishing, assembly
  • Inspection requirements
Decision: what configuration is manufactured?
06

Agree the prototype and evidence plan

  • Prototype configuration
  • Quantity, tests, inspection
  • Acceptance criteria
  • Customer and FTL responsibilities
Decision: what must the prototype establish?
07

Manufacture the prototype components

  • Approved components move through the relevant FTL stages
Decision: ready for testing or evaluation?
08

Test, inspect and refine

  • Complete the agreed evidence route
  • Review results against requirements
Decision: progress, refine or reselect?
09

Support customer or system validation

  • FTL provides evidence within its scope
  • Customer or authority completes system, platform or regulatory evaluation
Decision: approval route complete?
10

Transfer into controlled repeat manufacture

  • Material revision, component revision
  • Manufacturing stages, inspection
  • Traceability, change control
Decision: what controls preserve the configuration?
11

Establish the supply model

  • Inventory, scheduled call-off
  • Packaging, labelling
  • Export documentation
  • International delivery
Decision: what arrangement supports the lifecycle?

Control the material, component and production route together

The single-source advantage here is connection: material, component and production revisions stay linked to one accountable route rather than held by separate suppliers.

01

Material and batch traceability

The agreed route can connect the finished component with material reference, material revision, production batch or lot and relevant documentation, so the record follows the component from material through manufacture to dispatch.

02

Component revision control

The production route should identify the drawing or component definition, revision, design authority, customer approval and change-notification requirements, keeping the approved configuration current.

03

Change control

Before repeat supply begins, define how changes to material formulation or revision, component geometry, associated components, manufacturing process, test or inspection requirement, approved configuration, and packaging or identification are reviewed.

One accountable route for demanding industry programmes

The manufacturing model is consistent, but the operating, documentation and approval requirements differ by application.

Aerospace braking applications

Aerospace

A connected route for custom braking, locking, actuation and motion-control components where traceability and validation responsibilities must be explicit.

Aerospace Friction Materials & Components →
Defence applications

Defence

Integrated component support where supplier assurance, information handling, documentation, traceability and programme continuity matter.

Defence Friction Materials & Components →
Wind energy yaw braking

Wind Energy

Connected material and component support for yaw-brake development, performance review and obsolete-component continuity.

Wind Turbine Friction Materials & Components →
Industrial equipment braking

Industrial Equipment

Custom friction components for industrial braking, crane, motor, safety-equipment and general motion-control applications.

Industrial Friction Materials & Components →

A trusted, accountable supplier since 2003

High-performance friction and braking solutions, backed by decades of in-house expertise and supplied to OEM and aftermarket customers worldwide.

2003
Established
0+
Friction formulations
0%
Of output exported
North Wales
Manufactured in
Worldwide
Components supplied
2003Founded, Birmingham
2009ISO 9001 certified
2016Caernarfon manufacturing
201840+ countries supplied
2020Facility extension
2024EN9100 aerospace
2026100+ formulations
ISO 9001AS9100 / EN9100ISO 14001 ISO 45001JOSCARCyber Essentials
View Quality & Certifications →

Evidence of connected engineering and manufacturing support

One technical and commercial relationship, from an unavailable component to component redevelopment, a replacement material route, complete-component manufacture and support for customer certification.

Case example: restoring supply after aircraft brake-pad obsolescence. SDTS approached FTL after the original aircraft brake pad was no longer available. FTL worked with SDTS to redesign the pad, establish a replacement-material route and manufacture a component aligned with the stated aeronautical technical requirements.

FTL's responsiveness in redesigning the pad with a material that meets aeronautical technical requirements, and their ability to adapt to our aeronautical environment allowed us to certify a modification applicable to our aircraft. The quality of the manufactured product is remarkable.

Olivier Moulin SDTS

Read the Full SDTS Case Study →
Collins Aerospace Jaguar Land Rover Alfa Laval Desch Videndum Kongsberg Automotive

The questions buyers need answered before consolidating the supply route

Can FTL match or improve the required material performance?
FTL can review the existing material, complete component, operating environment, required behaviour, available evidence and acceptance criteria. Whether performance can be matched or improved depends on the agreed development, test and validation route. No outcome should be guaranteed before that work is complete.
Is the proposed solution already proven in service?
Where approved, relevant service history exists, FTL can identify it during the technical discussion. A new, modified or redeveloped application may still require prototype work, material or component testing, customer evaluation, system-level validation and programme-specific approval.
How does FTL support quality and repeatability?
The connected route can maintain alignment between a controlled material reference, component revision, manufacturing stages, testing and inspection, production records, batch and lot traceability, and change control. The precise control and acceptance requirements must be agreed for the programme.
Does FTL have the engineering capability to support the complete route?
FTL's confirmed capability includes friction-material formulation, SolidWorks design support, CNC machining, bonding, surface preparation, finishing, dynamic and material testing, CMM inspection, shear testing, assembly, and inventory and global supply.
Will the integrated route reduce lead time?
Fewer external handovers may remove some coordination and logistics stages. Actual timing still depends on material availability, engineering scope, component complexity, prototype iterations, testing and inspection, customer validation, production quantity and supply requirements. FTL should confirm timing only after the technical route is understood.
Will it reduce cost?
The commercial result depends on the current supplier arrangement, engineering and development work, component scope, quantity, testing, documentation, inventory and delivery model. The integrated route should be assessed on total programme scope and accountability rather than an unsupported blanket saving.
Does appointing one supplier increase continuity risk?
It can concentrate responsibility, so continuity controls must be defined rather than assumed. The customer and FTL should review critical material inputs, production dependencies, inventory, call-off requirements, change control, recovery arrangements and wider sourcing strategy.

Is the single-source model right for your programme?

FTL is a strong fit when:

  • Your team has an engineering brief rather than a standard purchasing request
  • The friction material and complete component need to be considered together
  • A new programme must progress from development into production
  • An obsolete component must be redeveloped and supplied again
  • An existing system needs a material and component performance review
  • Machining, bonding, finishing and inspection need to remain connected
  • Prototype work may progress into repeat manufacture
  • Traceability and documentation matter
  • You want fewer supplier handovers
  • Inventory, call-off or worldwide delivery may be required

FTL must confirm fit when:

  • The requirement includes a process outside FTL's confirmed capability
  • A specialist external approval or accredited test is mandatory
  • Customer-supplied materials or components will be used
  • A specific production capacity or recovery requirement applies
  • The customer requires an unconfirmed standard, document or control
  • One isolated subcontract process is required without wider engineering context

A different route may be more appropriate when:

  • You need an immediate stock part
  • You are purchasing solely by part number
  • You need an online catalogue
  • You need a general-purpose subcontract manufacturer unrelated to friction components
  • Price is the only selection criterion
  • No engineering or manufacturing review is required

Frequently asked questions about single-source friction manufacturing

What is single-source friction manufacturing?
At FTL, it means one accountable manufacturing route for the agreed friction-material, component, production, inspection and supply scope. Instead of separately coordinating each stage, the customer works through one FTL technical and commercial relationship.
What single-source manufacturing does not mean

Single-source manufacturing does not automatically mean that:

  • FTL manufactures every raw-material input.
  • FTL provides every possible specialist process.
  • FTL designs or approves the customer's complete system.
  • Every listed capability is required on every project.
  • Every component is already proven in the intended application.
  • The customer must appoint FTL as its only approved supplier.
  • Lead time, price or performance can be guaranteed before scope review.
Is single-source the same as sole-source?
Not necessarily. FTL uses single-source to describe one accountable route for the scope awarded to FTL. The customer remains responsible for deciding whether its wider procurement strategy uses one approved source, multiple approved sources or another continuity model.
Which manufacturing stages can FTL connect?
FTL's confirmed chain includes friction-material formulation, engineering and SolidWorks design support, CNC machining, bonding, shot blasting, UV curing where applicable, protective coating and paint finishing, assembly, dynamic and material testing, CMM inspection, shear testing, final inspection, and storage, call-off and international delivery.
Does FTL manufacture every raw-material input?
FTL formulates and manufactures friction materials and complete components. This does not mean FTL manufactures every raw-material ingredient used within those formulations. Material-sourcing and continuity requirements should be discussed during project scoping.
Does every project require the complete FTL capability chain?
No. The project should use only the capabilities required for the application and agreed manufacturing scope. FTL can review whether one stage or a connected group of stages is the appropriate route.
Can FTL support only one manufacturing process?
A standalone process enquiry can be reviewed. FTL should first confirm that the material, component, quality and commercial requirement fits its capabilities and service-led model.
Can FTL develop the friction material and manufacture the complete component?
Yes, where the requirement fits FTL's confirmed capabilities. The route can connect material selection or formulation, component engineering, machining, bonding, finishing, testing, inspection and repeat supply.
Can FTL support a programme before the design is complete?
Yes. The first discussion can begin with the application, required function, operating environment, existing component, partial drawing, available specification and required outcome. A completed production drawing is not mandatory at first contact.
Can FTL reverse engineer an obsolete component?
Yes. FTL supports projects where the original material, component, drawing or supplier is no longer available. The available evidence is reviewed before a redevelopment, prototype, test and revalidation route is proposed.
Can FTL investigate an underperforming system?
Yes. FTL's confirmed performance-optimisation scope includes inconsistent braking, excessive or unpredictable wear, and thermal-performance concerns. The review can consider the friction material, component, operating environment and manufacturing evidence together.
Who holds design authority?
Design authority must be agreed for the individual programme. The scope should define what FTL develops, what the customer approves, drawing ownership, component approval, system-level responsibility and change-control requirements.
Does FTL provide final system or regulatory approval?
Not automatically. FTL can provide the engineering, manufacturing, testing, inspection and traceability evidence included within its agreed scope. Final equipment, system, platform, customer or regulatory approval may remain with the customer or another appointed authority.
How does FTL maintain traceability?
The agreed route can connect the finished component with material reference and revision, component revision, production batch or lot, machining, bonding, finishing, testing, inspection, storage and dispatch. The exact document set must be agreed for each programme.
How are manufacturing changes controlled?
The production route should define how changes to the material, component, process, inspection or approved configuration are reviewed and communicated through FTL's defined change-control process.
Can the integrated model shorten lead time?
Connecting production stages may reduce some external handovers and logistics movements. There is no guaranteed standard reduction. Timing depends on the actual engineering, manufacturing, testing, validation and supply scope.
Can the integrated model reduce cost?
It may reduce duplicated coordination, separate logistics or supplier administration in some programmes. The actual commercial result depends on the customer's current route and the agreed FTL scope. No fixed saving should be promised.
How does FTL support continuity of supply?
FTL's confirmed supply capabilities include repeat manufacture, secure finished-goods storage, scheduled call-off, customer-specific packaging and labelling, export documentation and international shipping. Additional production, raw-material or recovery controls should be agreed project by project.
Can FTL hold finished goods for scheduled call-off?
Yes. FTL provides secure finished-goods storage and scheduled call-off supply. The quantity, ownership, forecast, replenishment and delivery arrangement must be agreed commercially.
Does FTL sell standard parts by part number?
FTL is structured around custom engineering and manufacturing briefs rather than conventional catalogue sales. A part number may provide useful background information, but FTL will still need to understand the application.
When are annual volume and pricing discussed?
The first conversation focuses on the application and technical fit. Expected annual volumes and commercial scope are discussed later, once FTL understands the likely engineering, manufacturing and supply route.
Can FTL support customers outside the UK?
Yes. FTL manufactures in North Wales and supplies manufactured components worldwide. 84% of output is exported.

Replace disconnected suppliers with one accountable manufacturing conversation.

Tell FTL what the component needs to do, which manufacturing stages are currently involved and what has prompted the review. A short initial brief is enough. The relevant technical, engineering and commercial team members can then assess the material, component, production, inspection and supply route and define the most appropriate next step.

Optional drawing or specification upload available.