Engineering evidence, not opinions

First-principles analysis and bench experiments that retire technical risk before a programme commits to a direction.

Most programmes fail on an assumption nobody tested. We take the riskiest assumption first, design the cheapest experiment that can disprove it, and run it early — while changing direction is still inexpensive.

• Concept studies and feasibility assessment
• Physics-based modelling and simulation
• Design of experiments and rig development
• Trade studies and technology down-select

Characterisation, selection, and qualification of metals, composites, polymers, and surface treatments.

Material behaviour under real service conditions decides whether hardware survives. We characterise candidates against the actual load, thermal, and wear environment rather than a datasheet.

• Alloy, composite, and polymer characterisation
• Coatings, surface treatment, and corrosion behaviour
• Thermal, wear, and fatigue performance
• Supplier evaluation and material qualification

Instrumented test campaigns that turn a promising prototype into a verified, evidence-backed result.

A prototype that works once is an anecdote. We build structured campaigns with defined acceptance criteria, capture the data properly, and analyse the failures as carefully as the successes.

• Test planning against defined acceptance criteria
• Instrumentation, data acquisition, and analysis
• Environmental, durability, and life testing
• Failure analysis and root-cause investigation

Fabrication capability that keeps iteration measured in days, not procurement cycles.

Learning rate is set by how fast a new revision reaches the bench. Keeping fabrication in-house means a design change on Monday is hardware under test by the end of the week.

• Additive and subtractive fabrication
• Functional and representative prototypes
• Short-run tooling and fixtures
• Rapid design iteration and rework