Research

Research at SCML International addresses soft and complex matter physics, with particular emphasis on layered and self-organised materials and their emergent structural, mechanical, optical, and transport properties. A central guiding principle is the use of earth-abundant, mineral-based, and bio-sourced materials, including clay minerals, naturally occurring layered systems, and biologically derived components.

Core themes include structural coloration from self-organised architectures; ion-mediated interactions and swelling phenomena; gas separation and confinement effects; and photonic, opto-mechanical, and electromechanical responses. These topics increasingly intersect with concepts relevant to next-generation photonic and quantum-enabled systems, where material ordering, confinement, and low-loss architectures play key roles. In this context, particular emphasis is placed on exploring natural and earth-abundant materials as platforms for quantum-relevant photonic and sensing functionalities.

A defining feature of the research is continuity across length scales—from nanoscale interactions to macroscopic functionality—and across disciplinary boundaries, linking fundamental soft-matter physics to functional materials concepts.

The research programme spans fundamental studies and innovation-oriented materials development, including technology validation and pre-commercial exploration typically in the range of TRL 3–5, and in selected cases early-stage demonstration approaching TRL 6 under research-controlled conditions. These efforts translate physical insight into validated materials concepts while remaining anchored in research-driven methodologies and sustainability-oriented design.

Methodologically, the work integrates advanced scattering techniques (SAXS, SANS, XRD), microscopy, spectroscopy, and theoretical and computational modelling.

Experimental work associated with SCML International is conducted through trusted collaborations with partner laboratories and at shared national and international research facilities. Access to infrastructure is obtained through established collaborations and competitive beamtime or facility-access programmes, with SCML International contributing scientific leadership, experimental design, and data analysis.

Sustainability considerations are incorporated at the research level through qualitative environmental screening and early-stage sustainability analysis, informing materials selection and design choices during the development process. These activities are intended to guide research direction and are not positioned as full life-cycle assessment studies.

Several peer-reviewed publications are forthcoming from ongoing doctoral research conducted at the Norwegian University of Science and Technology (NTNU), where experimental and computational work is carried out under established doctoral supervision. Resulting publications will list NTNU as the primary affiliation corresponding to where the research was performed, with SCML International indicated as present affiliation where appropriate.