Product Development & Materials Innovation

When this comes up

• A development programme is slipping, and the open questions are materials questions.
• What works at bench or pilot scale is not reproducing in production.
• The concept needs a material that does not exist off the shelf, or a formulation that has to be built.
• A performance target is being pursued without agreement on whether it is physically reachable.
• The programme needs a senior technical view without hiring a full in-house materials group.

Where the work concentrates

Formulation and structure–property relationships

The through-line of this practice is the relationship between formulation, structure, processing, morphology, properties and performance — across all classes of materials. That chain is where development programmes usually stall, because a change made at one end produces an unexplained result at the other.

Scale-up

Bench-to-pilot-to-production transitions fail for reasons that are predictable in advance: shear and thermal history differ, residence-time distributions differ, mixing quality differs, and a formulation tuned to a laboratory process can be intolerant of the production one. Identifying which of those a given formulation is sensitive to, before the capital is committed, is usually the highest-value point in the programme.

Materials innovation

Where an off-the-shelf material will not reach the target, the route may be a blend, a hybrid, a nanocomposite, a modified surface or a reformulated system. Direct research experience across organic–inorganic hybrids, nanocomposites, biomaterials, magnetic materials and glass–polymer systems informs whether a proposed route is promising or a known dead end.

Intellectual property

Where development produces something protectable, support is available for patent applications and for positioning the work so that it can be protected — drawing on direct experience as a named inventor and on prior-art and patentability work. See Expert Witness & Litigation Support.

How a programme is supported

• Technology and market opportunity assessment — is this route worth taking, and what does the literature and patent landscape already say about it.
• Ideation and concept shaping — turning a performance target into candidate material and process routes.
• Design, prototyping and testing — specified through university and industry laboratory partners.
• Production transition — identifying the process sensitivities that will decide whether it scales.
• Cross-functional technical project management — forming and running the team, including identifying university research groups and national laboratories that can be brought in cost-effectively.

Process areas covered

• Extrusion
• Injection moulding
• Compounding & formulation
• Coatings & films
• Adhesives
• Polymer reaction engineering
• Rheology
• Materials processing
• Materials testing
• Properties of materials

Frequently asked questions

At what stage should I bring in independent expertise?

The highest-value point is early — before tooling investment commits you to a material or geometry. Independent review at the formulation or prototype stage catches problems that are cheap to fix there and expensive to fix in production.

Do you work with polymer formulations specifically?

Yes. Specialty polymers, blends, composites and nanocomposites have been a research and industrial focus for four decades. Formulation work, scale-up from lab to pilot to production, and supplier qualification are all within scope.

Can you work alongside our internal team?

Yes. The typical arrangement is a defined scope of independent review rather than a displacement of your team. Where your team already has testing arrangements or supplier relationships, that work is specified, reviewed and interpreted rather than duplicated.