P R O L E A R N
Computational Design uses computer algorithms and computational techniques to generate architectural design models and analyses. It encompasses parametric design, generative design, and other data-driven approaches to create multiple design solutions based on set parameters and constraints.
Cost Efficiencies
Time Savings: Computational design can reduce design time by up to 50% through rapid iteration and automation of repetitive tasks.
Resource Optimisation: By optimising material use and building performance, computational design can potentially reduce construction costs by 15-20%.
Error Reduction: Automated processes and data-driven decision-making can significantly reduce costly errors and rework during construction.
Sustainability Benefits
Energy Efficiency: Computational design enables precise environmental analysis, potentially improving building energy performance by up to 30%.
Material Optimisation: By optimising structural elements and material choices, computational design can reduce material waste by up to 15%.
Lifecycle Analysis: Computational tools facilitate comprehensive lifecycle assessments, supporting more sustainable design decisions.
Innovative Applications
Complex Geometry Handling: Enables the creation of intricate, previously challenging geometries, expanding architectural possibilities.
Generative Design: Produces multiple design options based on set parameters, allowing exploration of innovative solutions.
Performance-Based Design: Integrates environmental, structural, and user-centric analyses into the design process for optimised outcomes.
Challenges and Considerations
Learning Curve: Mastering computational design tools requires significant time investment and new skill sets.
Data Quality: The effectiveness of computational design relies heavily on the quality and accuracy of input data.
Balancing Automation and Creativity: There's a need to maintain human creativity and intuition alongside computational processes.
Future Outlook
As technology advances, computational design is set to play an increasingly crucial role in the AEC industry. Integration with AI, machine learning, and IoT is likely to further enhance its capabilities, leading to more efficient, sustainable, and innovative building designs.
Call to Action:
Evaluate your current design processes to identify opportunities for integrating computational design tools. Consider pilot projects that leverage these technologies, and invest in developing the necessary skills within your team to harness the full potential of computational design.
Polycare was founded in 2010 by Dr. Gerhard Dust and Gunther Plötner in response to the devastating earthquake in Haiti. The company was established with the mission to build affordable, durable, and comfortable houses using locally available secondary raw materials without the need for expensive equipment. Today, Polycare's mission focuses on revolutionizing the construction industry through sustainable and circular building solutions. Core values include innovation, sustainability, and responsibility, with a purpose to create a regenerative future through advanced material science and production technology.
Location
Headquarters: Thuringian Forest, Germany.
Primary manufacturing/operations locations: Various locations across Germany.
Note: Strategic location in the Thuringian Forest to optimize local sourcing, distribution, and collaboration with industry partners.
The Circular Vision
Core circular economy principles: Designing out waste, using recycled and bio-based materials, and creating products that are fully recyclable.
Key innovations: Development of Polyblocks made from secondary raw materials, elimination of cement as a binder for geopolymer concrete, and integration of industrial by-products such as fly ash and slags.
Prioritization of local sourcing and closed-loop supply chains: Emphasis on using local materials and production to minimize environmental impact and support local economies.
Pioneering Solutions
Flagship products: Polyblocks for modular construction, SEMBLA® reusable masonry system.
Unique value propositions: High-quality, sustainable building solutions that prioritize circularity, material reuse, and environmental responsibility. Polycare's products are known for their durability, ease of assembly, and innovative use of secondary raw materials.
The Regenerative Future
R&D focus areas: Advancing sustainable materials, optimizing recycling processes, and developing new circular design principles.
Ambitious goals: To lead the construction industry in sustainable practices, create zero-waste products, and inspire a shift towards a regenerative built environment.
Fact Sheet
Commercial Availability: Products available globally through direct sales and partnerships with distributors.
Environmental Product Declaration (EPD): Information not available.
Circularity Rating: 5/5 (Designed for full circularity).
Key Certifications: Information not available.
Cost Rating: 4/5 (Competitive with conventional alternatives, with significant cost savings in sustainable materials).
Material Passport: Detailed material traceability and use of recycled and bio-based materials.
Designed for Disassembly: Yes, products are designed for easy disassembly and recycling.
Carbon Performance: Focus on reducing carbon footprint through sustainable materials and local production.
Key Takeaway
Polycare transforms the construction industry through innovative, sustainable building solutions, setting a benchmark for circularity and environmental responsibility.
Explore Further
Polycare website: https://polycare.de/en
Polycare purpose: https://polycare.de/en/polycare/our-purpose
Example product: SEMBLA®