your portal to the world of materials science and engineering

Applied Materials

Materialeyes bridges atomic to macro-scale materials innovation, unlocking transformative performance and sustainability. We combine multiscale design (metamaterials, smart composites) with industry-focused solutions: solid-state battery electrolytes, carbon-negative concretes, bioresorbable implants, and AI-driven lightweighting. Our approach embeds circularity—decarbonizing via abundant alternatives, engineering recyclability, and enabling adaptive “living” materials. A global network of scientists, engineers, and disruptors accelerates R&D with predictive modeling, lifecycle integration, and compliant scaling. From energy to healthcare, we harmonize utility with planetary stewardship, turning matter into progress. Partner with us to reengineer the material world—atom by atom, system by system.

Trends and Insights

The built environment, energy transition, and bio-based innovation are intersecting to tackle global challenges. From carbon-sequestering concrete to mycelium-derived insulation, materials are rewriting urban resilience. Energy storage leaps—solid-state batteries, hydrogen-ready alloys—demand scalable, ethical supply chains. Bio-hybrid systems, blending agricultural waste with advanced polymers, offer circular alternatives to plastics. At Materialeyes, we dissect regulatory shifts, tech breakthroughs, and lifecycle synergies shaping these fields. Explore how cross-sector collaboration turns constraints into catalysts, forging structures and systems that harmonize human progress with planetary boundaries.

Create it

Built Environments

Energy Materials

Biobased materials

Built Environments

Bio-based Materials

Projects

Coming Soon

Modular Horizons: Community-Driven Sustainable Kit Homes for Equitable Housing

This project aims to develop a suite of low-cost, modular building materials and systems, including complementary sustainable materials paired with participatory co-design frameworks to empower communities to self-fabricate climate-resilient homes. Integrate circular design principles, AI-assisted cost optimization, and localized supply chains to slash construction expenses while addressing housing shortages. Scalable, culturally adaptable templates ensure dignified shelter and skill-building opportunities, bridging equity gaps in urban and rural landscapes.

GeoBuilt Innovations: Bioclimatic Stone & Earth Systems for Resilient Communities

This collaboration pioneers scalable methods to transform vernacular stone and earthen materials into code-compliant, high-performance structures using sustainable binders and computationally driven structural optimization. By merging ancient techniques with modern materials science, we aim to address regulatory hurdles, integrate passive heating/cooling design, and reduce embodied carbon significantly. Through this project we intend for open-source fabrication toolkits to empower communities to build affordable, disaster-resilient housing while preserving cultural heritage and ecological balance.

EcoFiberComposites: Sustainable Construction with Bio-Based and Waste Fibres

This initiative focuses on pioneering eco-friendly fibre-reinforced cementitious composites for diverse applications in the built environment. By integrating bio-based fibres (e.g., hemp, flax) and repurposed waste fibres (e.g., agricultural byproducts, textile residues), we aim to develop durable, low-carbon solutions for load bearing and architectural applications. The project emphasizes data driven design and supply chain synergies.

4C technologies: AI enhanced simulation and modelling for energy materials

This project aims to provide versatile solutions for the computational design of electrode and electrolyte materials for batteries and fuel cells. Offering a customizable toolkit integrating first-principles calculations, machine learning with real-world materials insights, this project aims to serve the rapidly growing sector of energy materials innovation, empowering ventures with the data they needs to optimise materials design and processing.