Bridging Material Science with Industrial Execution
SWEGHA Eco Materiels AB operates as a specialized material science hub and technology holder based in Västerås, Sweden. We design, validate, and optimize advanced thermal encapsulation methodologies to upcycle post-consumer polyolefin waste streams into high-performance, non-cement building materials. Our dual-hub model bridges European engineering standards with high-impact localized industrial deployment in developing countries starting in West Africa (Ghana).
Pilot Goals
Validating low-emission processing parameters utilizing a heavy-duty hydraulic driven by an integrated servo-system. Our framework aim to optimizes energy efficiency and structural uniformity across both high-traction outdoor applications and certified indoor environments.
Science Focus
Characterizing the exact thermo-chemical behavior, shrinkage coefficients, and rheological flow of unwashed plastic-sand aggregates. Our research targets permanent microplastic sequestration, fire safety, and advanced odor mitigation.
Partner Scale
Leveraging specialized R&D budget auditing and global capital investment (CapEx) oversight to de-risk technology deployment. We coordinate with public grant bodies, academic labs, municipalities and international real estate developers to scale verified circular infrastructure.

Technical Specifications & Performance
Our R&D pipeline focuses on validating strict material thresholds and physical performance criteria. Through laboratory simulation and advanced testing, our methodology models engineering parameters to surpass international structural baselines.
Material Composition MATRICS
- Target Polyolefins: Sourced from unsorted, post-consumer fractions
- Mineral Aggregates: Engineered local sand grading configurations for structural skeletal reinforcement.
- Thermal Binding: Non-cement thermo-mechanical encapsulation designed to guarantee zero microplastic leaching.
TARGET PERFORMANCE MATRICS
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Compressive Strength: Modeling load capacity thresholds optimized for heavy-pedestrian infrastructure, vehicular traffic, and industrial applications.
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Hydrophobic Properties: Targeting water absorption limits of <1% to prevent internal degradation under tropical rain conditions.
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Friction Coefficient: Engineering surface patterns via advanced servo-press geometries to meet strict anti-slip parameters.
ENVIRONMENTAL VALIDATION
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Carbon Footprint Mapping: Establishing life-cycle assessments (LCA) targeting massive CO₂ savings compared to Portland cement.
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Resource Optimization: Engineering maximum plastic waste density per volume unit to maximize municipal landfill diversion.
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Circular Lifecycle: Ensuring that all composite materials remain completely recyclable at the end of their structural lifespan.
APPLICATIONS & REGULATORY MAPPING
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Multi-Purpose Deployment: Modeling performance for commercial parking lots, market squares, parks & amusement centers, cycling paths, pedestrian walkways, and certified indoor real estate environments.
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Degradation Controls: Testing long-term structural resistance to intense UV radiation and thermal expansion stress.
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Compliance Alignment: Formulating testing matrices to achieve structural certification under international safety and load-bearing standards (e.g., GSA and ASTM baselines).

1. Collection
We aggregate mixed plastic waste from municipal and environmental sources, diverting hard-to-recycle polyolefins from local landfills and ocean-bound pathways.

4. SERVO-HYDRAULIC process

5. controlled Cooling & Quality test
Our methodology models controlled cooling phases to prevent structural warping, incorporating rigorous testing metrics for compressive strength, moisture limits, and zero toxic outgassing.

6. LOGISTICS & B2B SUPPLY
The resulting material systems are palletized and ready for scalable distribution across high-traction outdoor commercial hubs and certified indoor architectural environments.
The aggregate matrix is transferred to a heavy-duty hydraulic processer driven by an integrated servo-system, utilizing precise cycle profiling to compress the matrix into uniform, high-density structures.
Production Process: From Waste to Infrastructure
Our localized industrial methodology converts post-consumer plastic waste into high-performance material systems through a controlled, low-emission thermal process.

2. Mechanical shredding
Raw, unwashed polymer feedstocks are processed directly through industrial shredders, converting complex shapes into uniform flakes ready for processing without consuming water resources.

3. MATRIX AGGREGATION
The shredded plastic flakes are precision-blended with specific sand grading configurations and mineral reinforcements to create a balanced, structural composite formula.
Impact & Scalability
SWEGHA’s industrial model is designed for systematic transformation. By converting non-recyclable waste into high-performance material systems, we deliver verified environmental benefits while creating resilient jobs and replicable infrastructure across our target developing countries.
Environmental Impact
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Plastic Waste Diversion: Removing complex polyolefins from the sea, landfills and municipal drainage systems to eliminate critical blockages and naturally reduce urban flooding risks.
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Climate Action: Achieving significant CO₂ savings by replacing carbon-intensive traditional Portland cement with thermo-mechanical matrices.
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Zero Leaching: Scientific encapsulation preventing microplastic runoff and chemical leaching into local marine and agricultural ecosystems.
Social Impact
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Job Creation: Supporting industrial employment through specialized production facilities.
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Mitigating irregular economic migration by establishing localized, high-value technical careers within the regional circular economy.
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Skills Transfer: Deploying European technical standards to local engineering workforces.
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Urban Safety: Improving safer environments with durable, anti-slip infrastructure.
Regional Scalability
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Market Expansion: Replicable daughter companies established in Ghana and key growth hubs.
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Modular Production: Scalable, server-press manufacturing lines for localized deployment.
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Strategic Alliances: Partnering with real estate developers, municipalities, and commercial entities for institutional infrastructure rollout.
Product Showcase: SWEGHA Eco Paver Series
Sample configurations for infrastructure deployment, demonstrating the structural versatility of our circular material science profiles.



PEDESTRIAN MATRIX CONFIGURATION
HIGH-TRACTION VEHICULAR GRID
ARCHITECTURAL SURFACE MATRICES
Structural modeling optimized for high-volume pedestrian zones, municipal walkways, and residential pathways, tracking load-bearing metrics under sustained foot traffic.
Engineering simulations reinforced for commercial parking lots, public charging hubs, and localized access roads, analyzing stress distribution profiles under vehicular loads.
Aesthetic geometric configurations optimized for architectural integration across community plazas, public parks, and premium commercial indoor or outdoor floor systems.
- Recycled Plastic Matrix
- Advanced Slip Resistance
- Suitable for African Climates
- Industrial Grade Durability
- Thermal Stress Resistance
- 100% Recycled Content
- UV Resistant Stabilization
- Hydrophobic Surface Tech
- Community-Minded Design
Collaborative R&D Frameworks
We facilitate strategic alliances with academic institutions, private developers, and commercial entities to advance our material testing frameworks. Our B2B model ensures that advanced circular material science is seamlessly integrated into private real estate portfolios and sustainable industrial planning projects.
MARKET INTERFACES
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Civil Engineering Labs
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Private Real Estate Developer
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Commercial Infrastructure Architects
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Institutional Impact Funds
Engagement Models
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Joint Public Funding Applications
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Technical Material Validation Studies
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IP Licensing Frameworks
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Co-Developed Pilot Line Modeling
Systematic Value
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Certified R&D Engagement Models
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Standardized ESG Performance Criteria
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Data-Validated Material Life Cycles
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High-Traction Durability Mapping