Advanced materials

Materials designed at the interface, where most systems fail.

ConnectiveKinetics is developing polymers, conductive films and thermal composites for programs that cannot tolerate drift. We work from failure analysis through to pilot formulation, and partner for scale once a material is qualified.

Macro view of a crystalline material lattice under laboratory lighting
Fig. 01 · Directional crystal growth in a lattice-templated composite

0.4 W/mK

Baseline conductivity uplift

12 yr

Median accelerated-ageing target

±2 nm

Film thickness tolerance

Open

Research and investment conversations

Capabilities

01

Interface engineering

Surface chemistry and adhesion systems that hold bonded assemblies together across thermal cycling, humidity and mechanical fatigue.

02

Conductive thin films

Solution-cast and vapour-deposited films tuned for sheet resistance, optical clarity and long-term drift under load.

03

Thermal composites

Filled matrices engineered for through-plane conduction without sacrificing dielectric strength or processability.

Translucent conductive polymer film held in laboratory tweezers
Fig. 02 · 40 µm conductive film, post-anneal
Materials science laboratory bench with precision instruments
Fig. 03 · Materials characterisation bench

Explorer

Explore the materials design space.

Three programmes, three parameter studies. Adjust the formulation and process variables to see how indicative properties respond. The same trade-off maps our models navigate at scale, reviewed at every step by a scientist.

45 nm
20 nm120 nm
200 °C
120 °C260 °C
45nm

Conductive film

The working layer. Sheet resistance falls with thickness, and optical transmission falls with it.

Sheet resistance

45.7 Ω/sq

Optical transmission

83.3 %

Drift under load

3.5 %/1000 h

Fig. 04 · Parametric explorer. Indicative responses for illustration; not measured data.

Intelligence

AI accelerates discovery. Human judgement decides what matters.

We use machine learning to map formulation spaces, predict degradation pathways, and surface patterns that sit beneath the noise of routine testing. But a model does not understand a failure mode in context, negotiate a qualification schedule, or recognise when a result contradicts physical intuition. That is where our scientists step in.

01

Generative models, constrained by chemistry

Candidate formulations are proposed in silico, then filtered by real thermodynamic, compatibility and process limits before a single batch is mixed.

02

Human-in-the-loop interpretation

Every AI-derived insight is reviewed against microscopy, spectroscopy and lifetime data by the scientist who owns the program.

03

Ingenuity as the guardrail

Algorithms expand the search. People decide what is safe to scale, what is worth qualifying, and what should be abandoned early.

How we work

Scoping

We start from the failure mode, not the datasheet. Constraints, duty cycle and qualification path are defined before formulation begins.

Formulation

Iterative small-batch work with characterisation data returned at every cycle rather than at the end.

Qualification

Accelerated ageing, thermal cycling and mechanical testing against your acceptance criteria, documented for audit.

Transfer

Process parameters, control limits and supply arrangements prepared for transfer to a qualified production partner.