An interactive tool to assess sustainability and commercial readiness, with supporting references.
Eastman - Recycled + Bio-based Acetate
Made from 60% wood pulp and 40% certified recycled content.
Best-in-class material. Combines a renewable or recycled feedstock with a clear, positive end-of-life story.
Bolt Threads - Bio-fabricated Material
Grown from mycelium (mushroom roots). Biodegradable.
Best-in-class material. Combines a renewable or recycled feedstock with a clear, positive end-of-life story.
The material shows promise, but significant R&D is still needed to refine its properties, reduce costs, and develop manufacturing processes.
Checkerspot - Bio-based Polymer
Polymer derived from microalgae oil, offering unique performance characteristics.
Best-in-class material. Combines a renewable or recycled feedstock with a clear, positive end-of-life story.
The material shows promise, but significant R&D is still needed to refine its properties, reduce costs, and develop manufacturing processes.
Mazzucchelli - Bio-based Acetate
Bio-acetate made from wood pulp, biodegradable.
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
Arkema - Bio-based Polyamide
High-performance polyamide made from renewable castor beans.
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
EMS-Grivory - Bio-based Polyamide
Transparent polyamide made from 62% bio-based content (castor oil).
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
Various - Recycled Polymer
Made from post-consumer recycled plastic bottles.
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
Technology is proven, and supply chains are being established. Cost is nearing parity with conventional materials.
ZEISS - Bio-based Polyamide
Lenses made from bio-based polyamide (castor oil).
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
Lab-scale production is successful. The primary challenges are now related to cost and scaling up manufacturing infrastructure.
Various - Recycled Polymer
Made from recycled milk jugs and other HDPE sources.
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
Marchon - Recycled Plastic
Made from recycled plastic bottles (rPET).
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
R&D - Bio-Composite
Agricultural waste (rice husks) mixed with a binder to create a hard, wood-like material.
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
Lab-scale production is successful. The primary challenges are now related to cost and scaling up manufacturing infrastructure.
R&D - Bio-Composite
Used coffee grounds are mixed with binders to create a dark, durable composite.
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
Lab-scale production is successful. The primary challenges are now related to cost and scaling up manufacturing infrastructure.
R&D - Natural Fiber Composite
Natural flax fibers are set in a bio-resin, creating a strong and lightweight material.
A strong sustainable option. Typically 100% bio-based or made from a well-established, high-quality recycled source.
The material shows promise, but significant R&D is still needed to refine its properties, reduce costs, and develop manufacturing processes.
Various - Recycled Composite
Uses waste from carbon fiber production. Aims to improve sustainability.
A trade-off. Has some sustainable benefits but also significant drawbacks.
The material shows promise, but significant R&D is still needed to refine its properties, reduce costs, and develop manufacturing processes.
Mykita - 3D Printed Polyamide
Additive manufacturing process reduces waste, but material is fossil-based.
A trade-off. Has some sustainable benefits but also significant drawbacks.
Various - Metal
Durable, lightweight, and corrosion-resistant. Highly recyclable, but energy-intensive to produce.
A trade-off. Has some sustainable benefits but also significant drawbacks.
Various - Recycled Composite
Uses waste from carbon fiber production. Aims to improve sustainability.
A trade-off. Has some sustainable benefits but also significant drawbacks.
The material shows promise, but significant R&D is still needed to refine its properties, reduce costs, and develop manufacturing processes.
R&D - Bio-Composite
Composite material made from shredded textile waste held in a binder.
A trade-off. Has some sustainable benefits but also significant drawbacks.
The material shows promise, but significant R&D is still needed to refine its properties, reduce costs, and develop manufacturing processes.
EMS-Grivory - Polyamide
Standard high-performance transparent polyamide, fossil-fuel based.
A conventional material with limited sustainable features.
Various - Composite
Extremely strong and lightweight, but difficult to recycle and energy-intensive.
Represents a material with major environmental challenges, such as extremely high energy use and little to no viable recycling options.
An early-stage material. The core technology exists but requires fundamental research to become a viable product.
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