Our current work is focused on experimentally evaluating whether localized interface geometries can operate within laminar flow without inducing instability that prevents controlled material transport.
This phase is intentionally scoped as a feasibility-stage investigation, aimed at resolving a single core uncertainty before expanding into more complex system development.
Experimental Focus
The work is carried out using simplified flow systems designed to isolate the interaction between interface geometry and flow behaviour.
A small set of interface shapes is introduced into a controlled laminar flow environment, where each configuration is tested under consistent conditions.
Approach
The development process emphasizes rapid iteration and direct observation. Interface designs are refined across successive experiments, with each cycle focused on identifying how small geometric changes influence system behaviour.
Rather than modelling behaviour in advance, the approach relies on experimental validation to determine how interface‑flow interactions evolve under real conditions.
Current Stage
The work is currently limited to:
- simple interface geometries
- controlled laminar flow conditions
- qualitative observation of flow stability and dispersion
The objective is to establish whether stable interface‑driven transport is fundamentally achievable.
Expected Outcome
The primary outcome of this phase is a clear determination of feasibility, including:
- identification of interface configurations that preserve stability
- observation of conditions under which instability occurs
- qualitative understanding of how material transport behaves near the interface
This provides the basis for subsequent work toward controlled operation and more integrated system development.