Month: June 2026

PART 2. From Material Literacy to Responsible Making

Circularity Begins Before Waste

Many conversations about sustainability begin at the end: recycling, disposal, waste management. But for designers, circularity begins much earlier. It begins before the object exists, when choices are still open.

The Ellen MacArthur Foundation’s Circular Design Guide emphasises that the transition to a circular economy is driven by design, with principles such as eliminating waste and pollution, circulating products and materials at their highest value, and regenerating nature. This matters for students because most environmental consequences are shaped upstream, in the brief, the concept, the material choices, the business model and the assembly method.

A product that cannot be opened, repaired, upgraded or separated is already on a path towards waste. A garment made from blended fibres may be difficult to recycle. A building product with hidden toxic additives may limit reuse. A packaging concept that depends on infrastructure that does not exist may fail in practice.

Circular design asks students to imagine not only how something begins, but how it continues.

Sources:
https://www.ellenmacarthurfoundation.org/circular-design-guide/overview
https://www.ellenmacarthurfoundation.org/material-selection

Case Study: Safe and Circular Material Choices

The Ellen MacArthur Foundation’s circular design resources include methods focused on safe and circular material choices. This is important because circularity is not only a question of keeping materials in use. If a material contains chemicals of concern, circulating it may also circulate harm.

For design students, this connects sustainability with health. A material that is recyclable but toxic is not a responsible choice. A material that is natural but treated with harmful finishes may not be safe. A product designed for reuse must also be safe for the people who make it, install it, use it and recover it.

This expands the idea of good design. A successful material decision should consider performance, beauty, cost and availability, but also chemical safety, human health and end-of-life value.

Source:
https://www.ellenmacarthurfoundation.org/circular-design-guide/resources

Material Health and Safer Chemistry

Material health is becoming an important field for designers and architects. It asks what products are made of and how those ingredients may affect people and ecosystems. This is especially relevant in interiors, architecture, furniture, textiles and consumer products, where people live in close contact with materials every day.

Cradle to Cradle Certified’s Material Health Certificate provides a way to assess and verify progress towards safer product chemistries. For students, such frameworks can be educational even when they are not using certified products. They show that material responsibility requires evidence, assessment and improvement, not only good intentions.

Designers do not need to become chemists, but they do need enough chemical awareness to ask informed questions. What are the adhesives, coatings, dyes, flame retardants or plasticisers? Are ingredients disclosed? Are there safer alternatives? Does a supplier provide transparency?

Source:
https://c2ccertified.org/the-standard/material-health-certificate

Case Study: Healthy Materials Lab at Parsons School of Design

Healthy Materials Lab at Parsons School of Design is dedicated to placing people’s health at the centre of design decisions. The lab raises awareness about toxic chemicals in building products and creates resources for the next generation of designers and architects to make healthier places for people to live.

This is a powerful model for design education because it treats material choice as a social and public health question. The impact of a material is not limited to the designer’s studio or the final image. It affects workers, residents, communities and future environments.

For students, this means that responsible making includes care for invisible users: the person manufacturing the product, the installer handling the material, the child touching the surface, the community living near extraction or disposal sites, and the future worker who may need to take the object apart.

Source:
https://www.newschool.edu/centers-institutes-labs/healthy-materials-lab/

Material Passports and Future Transparency

As circular design develops, transparency tools such as material and building passports are gaining attention. A passport can record information about materials, products and components, supporting reuse and more informed decisions.

For design students, this points to a future in which material information becomes part of the design deliverable. A project may need to show not only renderings and specifications, but also what materials are present, where they came from, how they can be maintained, how they can be separated and what value they may hold after first use.

This changes the portfolio as well. A material-aware project can include samples, tests, sourcing notes, repair strategies, disassembly diagrams, lifecycle reflections and material data. These elements show that the student understands making as a long-term responsibility.

Source:
https://build-up.ec.europa.eu/en/resources-and-tools/publications/material-and-building-passports-supportive-tools-enhancing

The New Material Portfolio

If portfolios are becoming more process-led, material intelligence offers a rich way to show process. Students can document why a material was chosen, what alternatives were tested, what failed, what trade-offs were accepted and how the final decision aligns with the values of the project.

This kind of documentation does not make a portfolio less visual. It gives visual work more depth. It shows judgment, responsibility and the ability to connect aesthetics with consequences.

Key Takeaways for Design Students

• Treat materials as systems, not only surfaces.
• Ask where materials come from, what they contain and where they go next.
• Learn through physical testing, not only digital rendering.
• Consider material health, toxicity and safer chemistry.
• Design for repair, disassembly, reuse and long-term value.
• Be careful with vague sustainability claims.
• Use material libraries, databases and certifications critically.
• Document material decisions in your portfolio.
• Understand that circularity begins at the design stage.
• Remember that every material choice affects people and ecosystems.

Looking Ahead

The future of materials will be shaped by science, policy, climate pressure, new technologies and changing cultural values. But designers will play a decisive role because design determines how materials are selected, combined, used, maintained and recovered.

For students, material intelligence offers a way to connect imagination with responsibility. It asks them to make beautifully, but also carefully; to experiment freely, but also to investigate consequences; to value innovation, but not confuse novelty with progress.

The next generation of designers will not only ask what an object looks like. They will ask what it is made of, who it affects, how long it can serve, and what future it leaves behind.

PART 1. From Surface Choice to Material Literacy

For a long time, materials in design education were often approached through appearance, function and technique. Students learned how paper folds, how wood joins, how textiles behave, how plastic can be moulded, how metal carries weight, or how digital renderings can imitate surface and texture. These skills remain essential. But the meaning of materials is changing.

Today, a material is not only a surface, structure or finish. It is a set of relationships: to extraction, labour, chemistry, energy, supply chains, repair, reuse, toxicity, carbon, local culture and future waste.

For design students, this means that material choice is becoming a form of responsibility. The future designer must learn not only how materials look and perform, but where they come from, what they contain, how they age, how they affect people and ecosystems, and what happens when the product is no longer new.

Material intelligence is therefore becoming a core part of design literacy. It connects craft with science, aesthetics with ethics, and making with systems thinking.

Material Is Never Neutral

Every material carries a story. Some stories are visible: colour, texture, weight, smell, touch. Others are hidden: the chemicals used in production, the energy required to process it, the conditions of workers, the distance it travelled, the difficulty of recycling it, or the harm it may cause when burned, buried or broken down.

Design students are trained to make choices. But the basis of those choices must expand. It is no longer enough to ask whether a material is beautiful, affordable or easy to use. Students must also ask whether it is safe, circular, repairable, locally appropriate and transparent.

The point is not to find a perfect material. The point is to learn how to ask better material questions.

BE OPEN Insight

The future of design will not be shaped only by new forms, but by new relationships with matter.

As environmental and health consequences become harder to ignore, students need to understand materials as active participants in design. They are not passive ingredients. They shape how people live, how systems function and how future waste or value is created.

From Selection to Investigation

Traditional material education often begins with selection: choosing from samples, catalogues or supplier lists. Future material education will need to begin earlier, with investigation. What is the material made from? What is mixed into it? Who produces it? How far does it travel? Can it be repaired? Can it be separated from other materials? Can it return safely to biological or technical cycles?

This investigative approach changes the studio. Students may still build models and prototypes, but they may also create material maps, ingredient lists, lifecycle sketches, disassembly tests and end-of-life scenarios. They may compare not only how materials behave in the hand, but how they behave in a system.

Case Study: Materiom and the Rise of Bio-Based Experimentation

Materiom is a platform that supports the development of next-generation bio-based materials through open data and AI. Its work highlights a broader shift in design: material innovation is no longer limited to industrial laboratories. Designers, scientists, makers and producers can experiment with ingredients, recipes and performance data to explore new possibilities.

For students, bio-based experimentation can be especially valuable because it makes material systems visible. A material made from algae, mycelium, agricultural waste or natural binders reveals relationships between biology, chemistry, locality, performance and decay.

This kind of learning encourages students to ask practical questions. How strong is the material? How does it respond to moisture? Is it scalable? Is it compostable only under specific conditions? What additives are needed? Does it truly replace a harmful material, or does it introduce a different problem?

Source:
https://www.materiom.org

Learning Through Making

Material intelligence cannot be learned only from reading. Students need to cut, bend, break, join, stain, repair, test and disassemble. They need to see how materials fail. A material that looks elegant in a rendering may crack, warp, scratch, smell, fade or become impossible to separate from another component.

Material literacy is therefore not nostalgic craft. It is a future skill.