Environmental and Circular Materials

Advanced analysis and research support for environmental and circular materials innovation

Attlas supports companies, public bodies, researchers and industry partners working with environmental materials, waste-derived materials, circular economy solutions, remediation technologies and sustainable product development.

Through access to advanced analytical instrumentation, dedicated instrument scientists and Bernal Institute expertise, Attlas helps organisations understand the chemistry, structure, surface behaviour, contamination profile and performance potential of complex environmental and circular materials.

Our role is to help turn difficult material questions into clear analytical insight and, where appropriate, into consultancy, training, collaborative research or funded project opportunities.

Supporting the transition to circular and sustainable materials

Many industries are under increasing pressure to reduce waste, reuse resources, recover value from by-products and develop more sustainable materials. This creates new technical questions around material composition, stability, contamination, performance, environmental behaviour and reuse potential.

Attlas can support organisations working across:

  • waste-derived materials;
  • recycled materials;
  • recovered minerals and metals;
  • bauxite residue and industrial by-products;
  • mine waste and contaminated materials;
  • soil, sediment and sludge-derived materials;
  • water treatment and remediation media;
  • adsorbents and filtration materials;
  • circular construction materials;
  • bio-based and natural materials;
  • sustainable polymers and composites;
  • environmental monitoring materials;
  • engineered materials for nature-based solutions;
  • materials for carbon, nutrient or contaminant capture.
Waste-derived and recovered materials

Supporting the analysis of materials recovered from industrial processes, waste streams or environmental sources.

Relevant to:

  • industrial by-products;
  • bauxite residue;
  • mine waste;
  • recovered minerals;
  • construction and demolition residues;
  • ash, slag and mineral residues;
  • recycled powders;
  • waste-derived additives;
  • secondary raw materials;
  • circular material feedstocks.
Water treatment and remediation materials

Characterising materials used to capture, bind, filter or transform contaminants in water or environmental systems.

Relevant to:

  • adsorbents;
  • filtration media;
  • engineered minerals;
  • biochar and carbon-based materials;
  • wetland media;
  • remediation substrates;
  • nutrient capture materials;
  • metal capture materials;
  • hybrid nature-based and engineered systems.
Contamination and environmental behaviour

Investigating contaminants, residues, surface chemistry and material behaviour that may influence reuse, treatment or environmental risk.

Relevant to:

  • unknown contaminants;
  • surface residues;
  • heavy metal-bearing materials;
  • organic residues;
  • oxidation and weathering;
  • ageing and exposure;
  • leaching-related questions;
  • material stability;
  • process-related contamination.
Supporting public bodies, industry and research partners

Environmental and circular materials challenges often sit between industry, government, regulators, communities and research organisations. Attlas can support early-stage technical investigation, project scoping and collaborative research development where multiple stakeholders need reliable material insight.

This may be relevant for:

  • industry partners seeking reuse or valorisation routes;
  • public bodies exploring environmental remediation;
  • utilities and water-sector organisations;
  • companies developing circular economy products;
  • environmental technology developers;
  • local authorities;
  • academic collaborators;
  • funded research consortia.
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Relevant analytical capabilities

Attlas can help identify the most appropriate technique or combination of techniques based on the material, application and technical question.

Relevant techniques for environmental and circular materials may include:

  • XPS for surface chemistry, oxidation, coatings and contamination analysis;
  • SEM/EDX for morphology, surface features and elemental composition;
  • SEM-FIB for cross-sectioning coatings, interfaces, defects and internal structures;
  • TEM/STEM for nanoscale imaging, particle analysis and advanced material investigation;
  • FTIR for organic identification, polymer analysis and residue screening;
  • Raman for non-destructive molecular fingerprinting, phase identification and material mapping;
  • ToF-SIMS for ultra-sensitive surface chemical analysis, molecular fragments and depth profiling;
  • AFM for surface topography, roughness and nanoscale surface measurement;
  • Confocal microscopy for high-resolution 3D imaging and surface profiling;
  • DSC/TGA for polymer, thermal and material behaviour;
  • XRD for crystalline phases, powders and structural material changes;
  • Solid-State NMR for detailed chemical and structural analysis of solid materials, polymers, powders and complex formulations;
  • Nanoindentation for hardness, stiffness, coating performance and local mechanical properties.

Where a single technique is not enough, Attlas can combine methods to build a clearer understanding of material composition, structure, surface chemistry and potential application.

Understanding complex materials before reuse or deployment

Environmental and circular materials are often chemically and structurally complex. Their potential for reuse, treatment or valorisation depends on understanding what they contain, how they behave and whether they are suitable for a proposed application.

Attlas helps organisations answer questions such as:

  • What is the chemical and elemental composition of this material?
  • What crystalline phases are present?
  • Is there contamination or unwanted residue?
  • How stable is the material under processing or environmental conditions?
  • Can this waste or by-product be reused safely and effectively?
  • What surface properties influence adsorption, reactivity or binding?
  • How does the material change after treatment, ageing or exposure?
  • Can a material be developed for water treatment, remediation or capture?
  • How do different materials, sources or processing routes compare?
  • Could this technical issue become a research, consultancy or funded project?
Circular construction and sustainable product materials

Supporting the development, comparison and validation of materials intended for reuse in construction, manufacturing or product applications.

Relevant to:

  • alternative cementitious materials;
  • mineral fillers;
  • recycled aggregates;
  • circular construction materials;
  • composite materials;
  • sustainable coatings;
  • polymer and composite reuse;
  • waste-to-product development;
  • material performance screening.
Material valorisation and product development

Helping organisations explore whether a waste, residue or by-product can be transformed into a useful material, product or technology platform.

Relevant to:

  • reuse feasibility;
  • material upgrading;
  • comparative characterisation;
  • product-development support;
  • pilot studies;
  • proof-of-concept testing;
  • research project development;
  • industry-academic collaboration.
From analysis to collaborative research

Some environmental and circular materials questions can be answered through focused analytical testing. Others require deeper investigation involving academic expertise, field context, method development, PhD researchers, postdoctoral researchers or funded collaborative research.

Attlas helps identify the right route.

This may include:

  • one-off material analysis;
  • multi-technique characterisation;
  • contamination or residue investigation;
  • technical consultancy;
  • bespoke industry or stakeholder training;
  • feasibility studies;
  • pilot project support;
  • environmental materials research;
  • circular economy project development;
  • funded collaborative research;
  • PhD or postdoctoral research projects;
  • longer-term strategic partnerships.