Integrated friction material engineering and manufacturing capabilities
FTL connects the engineering and manufacturing stages required to turn a friction application into a finished, inspected component.
Friction-material formulation, component engineering, CNC machining, bonding, surface preparation, finishing, testing, inspection and repeat supply can be managed through one accountable production chain in North Wales.
This keeps material, component and manufacturing decisions connected as a project moves from the initial brief through prototype work and into controlled production.
Use one capability where appropriate or bring FTL the complete application and let the technical team define the connected route.
FTL's capabilities support custom engineering and manufacture rather than off-the-shelf or part-number purchasing.
Standards and registrations
The exact processes, inspections, documentation and acceptance criteria applicable to a project must be agreed during the technical review.
When connected manufacturing capability matters
FTL's capability chain is most valuable when the engineering and production stages need to remain aligned throughout the project.
A new application needs both a material and a component route
The engineering team understands the required function, but the friction formulation, component geometry, manufacturing stages and evidence needed for production still have to be established.
New Programme Support →An obsolete component must be redeveloped and manufactured again
The project may need component assessment, design redevelopment, replacement-material work, prototypes, testing, inspection and repeat supply within one controlled route.
Legacy & Obsolete Reverse Engineering →An existing friction system is not performing as required
The available evidence may need to be reviewed across the material, component, operating conditions, bonding, dimensions and production controls rather than treating the problem as a material substitution alone.
Performance Optimisation →The current supply chain creates too many technical handovers
Material development, machining, bonding, finishing, testing and inspection are divided between separate suppliers, making accountability and issue resolution harder.
A prototype must transfer into repeatable production
The engineering decisions made during development need to remain connected to the approved material, component construction, inspection requirements and repeat-supply route.
The customer needs inspection, traceability and documentation
The project requires defined manufacturing records, dimensional inspection, testing, final checks and batch or lot traceability.
Explore FTL's engineering and manufacturing capabilities
Each capability can support a defined part of a project. Together, they provide a connected route from application review to finished-component supply.
Friction Material Formulation
Research, selection, development and optimisation of friction formulations around the application's required behaviour and operating environment.
- Review of application requirements
- Selection of an established formulation
- Optimisation of an existing material
- Development of a new material route
- Organic, composite, sintered, Kevlar and woven materials
- Prototype-material and testing support
Engineering & Design
Engineering support for new components, existing designs and legacy-part redevelopment.
- Application and component review
- SolidWorks design support
- Component-geometry development
- Existing-part redevelopment
- Consideration of machining, bonding, finishing and inspection
- Preparation of a repeatable production route
CNC Machining
Precision manufacture of friction and associated metallic components to the agreed geometry and dimensional requirements.
- Prototype components
- Friction-material machining
- Associated metallic components
- Complex component geometry
- Repeat manufacture
- Dimensional inspection
Bonding & Finishing
Connected surface preparation, bonding, curing, coating and finishing for complete friction components.
- Backing-component preparation
- Automatic and manual shot blasting
- Controlled bonding
- UV curing where applicable
- Protective coating and paint finishing
- Assembly and final preparation
Testing & Inspection
Engineering and production evidence supporting material decisions, component development and repeat manufacture.
- CMM dimensional inspection
- Dynamic and material testing
- Coefficient-stability assessment
- Wear-rate assessment
- Thermal-performance testing
- Shear testing
- In-process and final inspection
Precision Gasketing
Manufacture of precision gasket components where they form part of the agreed component, assembly or sealing requirement.
- Review of available drawings or specifications
- Precision component manufacture
- Prototype and repeat requirements
- Integration with the wider assembly scope
- Dimensional inspection
Assembly, Traceability & Supply
The manufacturing route can continue beyond the individual process into final checks, controlled storage and scheduled delivery.
- Structured assembly
- Final visual and assembly inspection
- Batch and lot documentation
- Secure finished-goods storage
- Scheduled call-off
- Customer-specific packaging and labelling
- Export documentation and international delivery
Keep the material, component and production decisions connected
A friction component can pass through several engineering and manufacturing stages before it is ready for repeat supply.
When those stages are split between unrelated suppliers, technical information and responsibility can become fragmented.
FTL's integrated route gives the customer one technical and commercial point of accountability across the agreed scope.
Potential project outcomes include
- One connected route from application review to finished component
- Material decisions considered alongside component design and manufacture
- Fewer handovers between separate specialist suppliers
- Clearer responsibility when technical or quality questions arise
- Continuity between prototype work and repeat production
- Inspection and testing tied to defined engineering questions
- Production records and traceability linked to the manufactured component
- Fewer separate purchase orders and logistics touchpoints
- A defined route into inventory, scheduled call-off and international supply
Actual lead-time, administrative or cost benefits depend on your existing supply arrangement and the agreed FTL scope.
What a project receives within the capability chain
Not every project requires every stage. The scope is built around what the application needs and what the next engineering decision must establish.
Depending on the agreed scope, a project can receive engineered components, a defined material reference, prototype and repeat-production parts, the testing and inspection evidence behind them, and the production records, traceability and supply arrangements that keep the approved route controlled.
The exact document pack, inspection records, test outputs and delivery arrangement must be agreed for the individual programme. Each capability page sets out what that stage produces in detail.
From application brief to controlled repeat supply
The precise sequence varies by project, but each stage should produce enough information to support the next engineering or manufacturing decision.
Review the application and available evidence
- The application
- Required braking, holding or motion-control function
- New, existing or obsolete component
- Available drawings or specifications
- Known operating conditions
- Existing performance or supply concerns
Define the material route
- An established formulation
- Optimisation of an existing material
- A newly developed formulation
- Further application evidence before a material decision
Define the component and manufacturing route
- Component geometry
- Interfaces
- Friction and metallic elements
- Machining, bonding, finishing, assembly
- Inspection requirements
Manufacture the prototype or initial components
- Material-production stages
- CNC machining
- Surface preparation
- Bonding and curing
- Finishing and assembly
Test and inspect against the agreed requirements
- Material or dynamic testing
- CMM inspection
- Shear testing
- In-process checks
- Final inspection
Support validation or customer approval
- FTL supplies the engineering, manufacturing, testing and inspection evidence within agreed scope
- The customer or appointed authority completes additional system, equipment or regulatory evaluation
Transfer the approved route into repeat manufacture
- Controlled material reference
- Component configuration
- Manufacturing stages
- Inspection requirements
- Production records and traceability
Establish inventory and scheduled supply
- Finished-goods storage
- Controlled inventory
- Scheduled call-off
- Customer-specific packaging
- Labels and barcodes
- Export documentation and international shipping
Define the decision gates before the work begins
Capability does not replace project definition. FTL and the customer agree what each stage must establish before the project moves forward.
A project is defined at six gates, each a decision point in the integrated manufacturing flow above.
Application
Function, operating conditions and starting point are agreed.
Material
The material route and applicable test requirements are agreed.
Component
Geometry, interfaces, bonding and inspection characteristics are agreed.
Prototype
Configuration, manufacturing route and evidence needed are agreed.
Validation
Testing scope, acceptance criteria and approval responsibilities are agreed.
Production
Approved revision, production controls, traceability and supply are agreed.
Capabilities are the tools. The service route defines the problem.
The capabilities describe how FTL engineers and manufactures.
The service route describes why the customer is engaging FTL.
New Programme Support
Use the capability chain to move a new application from material and component engineering through prototype, testing and validation into repeat production.
Explore New Programme Support →Legacy & Obsolete Component Reverse Engineering
Use the capability chain to review and redevelop existing components, incomplete drawings and unavailable materials into a revalidated repeat-production route.
Explore Reverse Engineering →Friction System Performance Optimisation
Use the capability chain to investigate inconsistent braking, wear, thermal performance and variation across the material, design and production factors.
Explore Performance Optimisation →Integrated capabilities for regulated and demanding industries
The same capability chain supports different sectors, but the operating conditions, documentation and approval responsibilities remain application-specific.
Aerospace
Engineering and manufacturing support for custom braking, locking, actuation and motion-control components, including new programmes and obsolete-component continuity.
Aerospace Friction Materials & Components →
Defence
Connected material and component manufacture supported by quality systems, inspection, traceability, JOSCAR registration and Cyber Essentials.
Defence Friction Materials & Components →
Wind Energy
Material and complete-component support for yaw-brake applications, including new development, performance review and obsolete-component redevelopment.
Wind Turbine Friction Materials & Components →
Industrial Equipment
Custom materials and components for industrial braking, crane, motor, safety-equipment and motion-control applications.
Industrial Friction Materials & Components →Engineering capability backed by controlled manufacture and inspection
Established in 2003, FTL's integrated chain is supported by controlled manufacture, inspection and traceability, and held to recognised quality, environmental, safety and supply-chain standards.
View Quality & Certifications →
Case example: connecting engineering, material and manufacture.
SDTS approached FTL after the original aircraft brake pad was no longer available. FTL redesigned the pad, established a replacement material route and manufactured a component aligned with the stated aeronautical technical requirements, supporting SDTS's modification-certification process.
“The quality of the manufactured product is remarkable.”
Olivier Moulin SDTS
Read the SDTS Case Study →Customer logos
The SDTS example demonstrates linked engineering, material and manufacturing support.
Is FTL the right capability route for your project?
FTL is a strong fit when:
- Your team has an engineering brief rather than a stock-parts request
- The material and complete component need to be considered together
- A new programme must progress from early engineering into production
- An existing friction system requires an evidence-led review
- A legacy component must be redeveloped
- Prototype work may need to transfer into controlled repeat manufacture
- Testing, inspection and traceability matter
- You want fewer suppliers across the connected manufacturing stages
- The finished components require inventory, scheduled call-off or international delivery
FTL may need to confirm fit when:
- The enquiry concerns only one isolated subcontract process
- The requested material, machine process or test method has not been confirmed within FTL's scope
- The project requires an unconfirmed certification, standard or approval
- The required quantity, geometry or capacity is outside the confirmed operating range
A different route may be more appropriate when:
- You need a standard off-the-shelf part immediately
- You are purchasing solely by an established part number
- You need a retail or online catalogue
- No engineering or manufacturing review is required
- Price is the only selection criterion
Frequently asked questions about FTL's manufacturing capabilities
What is the difference between an FTL service and an FTL capability?
Can FTL manage the complete route from friction material to finished component?
Can FTL support only one manufacturing stage?
Does FTL develop custom friction materials?
What material families does FTL work with?
What can FTL machine?
What bonding and finishing processes are available?
What testing and inspection can FTL support?
Does FTL testing prove complete system performance?
Can FTL support prototypes and repeat production?
Can FTL work from an existing component without the original drawing?
Does FTL provide traceability?
Can FTL hold inventory and provide scheduled supply?
How quickly can FTL complete the work?
Does FTL support customers outside the UK?
Bring FTL the application, not a list of subcontract processes
Tell FTL what the component needs to do, what information your team currently has and what has prompted the enquiry.
A short brief is enough to begin.
The relevant technical, engineering and commercial team members can then determine which capabilities are required, how they should connect and what evidence is needed before the project moves forward.
Optional drawing or specification upload available.