Biodegradable Design Solutions

Mealworms + Styrofoam = Chitofoam! Ever heard of mealworms eating Styrofoam and transforming it into bioplastic? It may sound like a wacky science experiment, but design studio Doppelgänger has turned this idea into reality with their innovation: Chitofoam. This shock-absorbent, water-resistant bioplastic is made from the exoskeletons of Styrofoam-eating mealworms—and it breaks down in just weeks. It's a promising solution for Styrofoam waste, which clogs nearly 30% of landfill space due to the costly and complex recycling process. Traditional Styrofoam, or expanded polystyrene (EPS), is petroleum-based and loaded with carcinogenic chemicals, making it a long-lasting environmental pollutant. Doppelgänger's designers, Charlotte Böhning and Mary Lempres, looked to nature for answers and found a surprising one. Mealworms, equipped with a unique enzyme in their gut, can actually digest Styrofoam, safely breaking it down. When mealworms complete their life cycle, their chitin-rich exoskeletons can be harvested to produce Chitofoam. This provides the strength and durability of Styrofoam without the toxic footprint. The science behind this process is fascinating. Mealworms naturally shed their exoskeletons in a cycle known as ecdysis, triggered by a hormone that allows them to grow a new protective layer while discarding the old one. Discarded exoskeletons, rich in chitin, become the raw material for Chitofoam, directly connecting to the natural cycles Doppelgänger aims to emulate. Though still in development, the potential applications are vast, from sustainable packaging to fully compostable cups. Böhning and Lempres are actively working on ways to scale production, hoping that Chitofoam could soon become part of daily life and reshape our approach to waste. What do you think, could Chitofoam potentially take down Styrofoam for good? Is this just the beginning of nature-powered design? 📷Doppelgänger

Vivomer: The Plastic-Free Future We’ve Needed We’re on the brink of a materials revolution. Enter Vivomer™, developed by Shellworks — a bio-based, compostable polymer that behaves like plastic but doesn’t leave the lasting damage. 🔍 What Makes Vivomer Special • 100% bio-based: made from waste biomass (plants etc.), no fossil feedstock. • Plastic-free & toxin-free: No PFAS, BPA, phthalates — free of the usual suspects. • Home compostable: certified by TÜV Austria (OK HOME), breaks down within ~52 weeks under home compost conditions. • Zero microplastics: once disposed of, it fully biodegrades into CO₂, water and biomass — no tiny plastic leftovers. • Versatile materials: rigid or flexible, matte or glossy — usable for packaging, jars, droppers, etc. 🌍 Why It’s a Revolution • We’ve been stuck using plastics because they’re cheap, durable, and scalable — but those same qualities are what make them hard to get rid of. Materials like Vivomer offer durability when needed plus guilt-free disposal. • They help close the loop: no more infinite landfill, fewer toxins entering water systems, and less pressure on recycling systems. • They make sustainability a baseline, not an afterthought. For consumers, companies, regulators — the shift gets easier when the material itself does half the work. 🤔 Reflections & Questions • What hurdles remain? Cost? Supply chain? Consumer behavior? We’ll need all three to align. • Could building materials or non-packaging sectors use Vivomer (or similar) at scale? For example: construction liners, seals, or temporary barriers. Vivomer may be just one material — but its design philosophy (plastic-like performance + completely safe end-of-life) might be the kind of thinking we need everywhere plastic dominates. 🎥 by shellworks_ (IG)

Beautiful design doesn’t require waste. 📦 Packaging is one of the most immediate—and visible—interfaces between design, consumption, and planetary health. Because of its scale and speed, it is also one of the fastest levers for regenerative impact. That is why the Global Climate Design Awards recognize package design not just for aesthetics or efficiency, but for its ability to eliminate waste, restore material cycles, and strengthen ecological resilience across supply chains. 🧩 Flexi-Hex Sleeve V2 reimagines protective packaging through modular, paper-based geometry. Designed to replace plastic foams and wraps, it flexes to fit multiple product sizes while remaining lightweight, recyclable, and durable. By eliminating single-use plastics at scale, it supports circular logistics systems that are both resilient and low-carbon. 💧 Notpla Ooho Reboot pushes regenerative packaging even further—designing materials meant to safely disappear. Made from seaweed-based biopolymers, Ooho packaging biodegrades naturally without leaving microplastics behind. It models a future where packaging returns harmlessly to natural systems rather than persisting as pollution. 📦 The EcoEnclose EcoFoil Carton addresses a long-standing challenge in mailer and carton design: performance without plastic. By replacing traditional plastic-lined cartons with curbside-recyclable, fiber-based alternatives, EcoEnclose strengthens circular material recovery while meeting real-world durability demands. ✨ These Global Climate Design Awards nominees reveal what regenerative packaging looks like in practice: 🔄 Materials designed for recovery, reuse, or safe return to nature 🌱 Plastic eliminated at the source 📉 Carbon and waste reduced across supply chains 🧠 Design intelligence replacing disposability Beautiful design doesn’t require waste. It requires intention. Packaging doesn’t have to be disposable. When regeneration leads the brief, materials become part of the solution—not the problem.   ♻️ Repost to help amplify the momentum the Global Climate Design Awards are building toward a more sustainable and regenerative planet. 👉 Follow me for sustainability content that helps launch and scale products and companies. Judy Holm

🏗️ Growing the Future: 3D-Printed Mycelium Imagine buildings that grow, self-repair, and decompose naturally when no longer needed. Researchers have developed a 3D-printing method for mycelium biocomposites, eliminating the need for molds and unlocking new possibilities for sustainable, biodegradable materials. Using spent coffee grounds as a substrate, this innovation turns waste into strong, compostable structures—a game-changer for packaging, architecture, and beyond. 🤓 Geek Mode Traditional mycelium-based materials require molds, which limit design flexibility. This study introduces: Mycofluid: A 3D-printable mycelium paste made from 73% spent coffee grounds. Fungibot: A custom extruder that prints living biomaterial. Mycostructure: A process where printed parts grow together, fusing into seamless, self-supporting structures. By fine-tuning viscosity, growth conditions, and extrusion techniques, the team produced mechanically robust biocomposites. The printed objects self-colonize with fungi, creating hydrophobic surfaces that resist water while retaining biodegradability. 💼 Opportunity for VCs This technology offers a paradigm shift in materials science. It opens doors for: - Sustainable packaging that replaces polystyrene. - Biodegradable furniture and structures that grow and adapt. - Self-healing biomaterials for modular, repairable buildings. - Carbon-negative manufacturing with hyper-local supply chains. VCs investing in biofabrication, circular economy, and sustainable construction should take note—this is the frontier of regenerative materials. 🌍 Humanity-Level Impact Instead of mining, melting, or molding, we can grow what we need: 1️⃣Carbon-neutral cities, where buildings decompose instead of turning into waste. 2️⃣Mars-ready habitats, using fungi to construct and self-repair in extreme environments. 3️⃣A circular bioeconomy, where waste (like coffee grounds) fuels innovation. This isn’t just eco-friendly tech—it’s nature’s blueprint, optimized for modern fabrication. 📄 Link to original study: https://lnkd.in/gQNsTVEP #DeepTech #VentureCapital #Biomaterials #3DPrinting #CircularEconomy

This startup grows building materials from mushrooms 🍄 (and built a pavilion at Glastonbury Festival with them!) London-based Biohm is leading a revolution in construction, turning waste into regenerative materials for a healthier planet. 🌱 The Challenge: ↳ Construction accounts for 37% of global CO₂ emissions with high levels of embodied carbon ↳ Food and agricultural waste streams are rapidly growing yet remain underutilized 💫 The Innovation: ↳ Orb boards: 100% natural, biodegradable construction sheets made from agricultural by-products ↳ Mycelium insulation panels grown on food waste like orange peel & cocoa husks 🎯 How It Works: 1) Mycelium is cultivated on food/agri-waste to form strong, lightweight panels 2) Orb boards are molded from organic refuse and a natural binder 3) Materials are shaped into insulation, panels, tiles & furniture 4) All products are compostable or recyclable 5) Mycelium strains can even digest microplastics, offering future pollution solutions 🌿 The Impact: ↳ Mycelium panels are vegan, non-toxic and outperform traditional foam insulation for thermal, fire & acoustic performance ↳ Carbon-negative manufacturing sequesters up to 1.7kg CO₂ per m² of insulation, replacing materials like chipboard, MDF & OSB ↳ Panels grown to build the Hayes Pavilion in 2023 From food waste and fungi… ...to the next generation of regenerative building materials. 📥 Like this post? Follow me for more insights on NatureTech and Nature Finance

Northeastern University researchers create plastic that dissolves in water. Boston., USA. November 12, 2024. Excerpt: “The impact of human-made materials results in climate change, pollution and more,” said Avinash Manjula-Basavanna, a senior research scientist at Northeastern. “One way to address this is to make materials sustainable, smart or intelligent." Manjula-Basavanna and Neel S. Joshi, associate professor of chemistry and chemical biology at Northeastern call their bioplastic MECHS — acronym for Mechanical Engineered Living Materials with Compostability, Healability and Scalability. The research was published 12 November 2024 in the journal Nature Communications. Note: The study showcases the most recent work with engineered living materials, living cells to produce functional materials. Manjula-Basavanna and Joshi explain such materials have notable assets. Nature-inspired solutions can be made to regenerate, regulate and/or respond to external stimuli such as light and can heal itself. Second, unlike polluting plastics the materials are biodegradable in water and in compost bins. "A lot of conventional nonbiodegradable plastics are not needed for applications," Joshi said. “If replaced with our plastic, you could just flush it down the toilet, it would biodegrade.” Although engineered living materials have been manipulated to adhere, catalyze and remediate, soft or stiff, the materials have not been scalable for widespread production. MECHS consists of engineered E. coli bacteria with a fiber matrix to create a paper- or film-like material. The fibers give MECHS desirable properties. MECHS can stretch like plastic wrap, can be genetically engineered by adding proteins or peptides for stiffness and healable. A small amount of water disentangles the fibers, which re-entangle as the MECHS dry. A lot of water or a trip to a compost bin causes the material to dissolve faster than other biodegradable plastics, researchers found. The material can be easily mass produced in a process similar to paper manufacturing. Manjula-Basavanna and Joshi envision the product in “primary packaging” — filmy plastic that protects the screen and case of your iPhone. Detergent pods for dishwashers or washing machines are another potential use. Proteins embedded in the fibers could provide fertilizer as it breaks down if MECHS were used as a pot for plants.  Public policy on plastics is ‘absolutely critical’ “Plastic pollution is a global problem, we are focusing on targeting low-hanging fruit of plastic packaging, comprising nearly one-third of the plastic market,” Manjula-Basavanna says. Typical lifespan of this packaging could be a few days to two years.  “Petrochemical plastics can take hundreds of years to biodegrade. https://lnkd.in/eyw4Prgs.

Turning apple waste into furniture? Material innovation is being redefined with a groundbreaking vegan-certified leather alternative crafted from upcycled agricultural waste. This innovative material offers a premium, bio-based option that seamlessly blends environmental responsibility with practical versatility. Manufactured on wide rolls, it provides a luxurious, durable alternative to traditional leather while addressing the urgent need for eco-friendly solutions. By utilising by-products of agricultural processes, this innovation exemplifies how waste can become a cornerstone for transformative design, challenging industry norms and fostering a more circular economy. Recently, this material has been introduced in the furniture sector, demonstrating its versatility and effectiveness in reducing carbon footprints. For example, when used in furniture, it achieves significant reductions in carbon emissions compared to traditional materials. This measurable impact highlights the potential of sustainable materials to advance both environmental and business objectives. Key Features of Bio-Based Materials →Transformative Origins: Converts agricultural by-products into high-quality materials. →Cross-Industry Applications: Ideal for furniture, fashion, and automotive sectors. →Design Customisation: Supports diverse finishes and textures, meeting unique design needs. →Supply Chain Transparency: Offers full traceability, ensuring ethical production and enhancing storytelling. Business Impact and ROI →Sustainability Leadership: Collaborating with material innovators demonstrates a commitment to Environmental, Social, and Governance (ESG) goals. →Cost Optimisation: By utilising waste-based inputs, businesses can reduce dependence on costly, resource-intensive materials. →Market Differentiation: Offering products made with innovative materials positions companies as leaders in sustainability, appealing to a conscientious consumer base. →Carbon Reduction: Bio-based materials deliver tangible emissions savings, supporting corporate decarbonisation objectives. This innovation exemplifies how rethinking waste can drive sustainability and profitability, empowering businesses to lead in the era of bio-based innovation. Link for more info: https://lnkd.in/dmtMrnP3 #sustainability #esg #biomaterials #decarbonisation #wasteupcycling #innovation #bioeconomy #climateaction #circularity #greendesign

♻️ From Beer to Biodegradable Fashion: Brewing Waste Finds New Life in Textiles What if the yeast left behind in breweries could help solve fashion’s sustainability crisis? Researchers have developed biodegradable fibres spun from waste yeast proteins, offering a compelling alternative to cotton, wool, and polyester. 🔑 Why this matter: Cotton demands enormous water and land resources. Polyester sheds microplastics into our environment. Wool is costly to produce and raises animal welfare concerns. By contrast, yeast-based fibres: Repurpose brewing and pharmaceutical waste streams. Are reportedly stronger than natural fibres. Can be manufactured for $6/kg vs. $10–12/kg for wool. Are biodegradable, reducing long-term pollution. Imagine sweaters as soft as wool, but woven from the byproducts of beer-making. This innovation not only closes industrial loops but also points toward a circular economy in fashion. 👕 The pilot-scale demonstration has already produced over 1,000 pounds of material, showing real potential for scaling. 💡 Sustainable fashion doesn’t just mean new fabrics - it means rethinking waste. Turning brewing byproducts into clothing fibres is a powerful example of how chemistry and circular design can reshape industries. #sustainablefashion #circulareconomy #materialsscience

A Mexican company called BioFase has developed biodegradable cutlery and straws made from avocado seeds, and they can fully break down within just 240 days. Using discarded avocado pits from food processors, BioFase transforms what would otherwise be waste into durable utensils that perform like plastic but leave no toxic trace. Whether used for hot soup or iced drinks, these items are heat-resistant, sturdy, and completely compostable. Mexico, as the world’s leading avocado producer, generates an abundance of raw material for this innovation, making it both sustainable and locally sourced. It’s a brilliant example of how agricultural waste can become a planet-friendly resource, proving that big impact sometimes starts with small seeds.