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EL

Engineered Living Materials Institute @ Cornell

ELMI develops engineered living materials and structures using non-mammalian organisms to create renewable resources for large-scale infrastructure and human-scale products. This approach addresses the need for sustainable materials in off-world exploration and habitation, reducing reliance on traditional manufacturing processes.

Boston, United StatesFounded 2023410+ followers
Updated 4 months ago

Funding

Funding not disclosed

Funding rounds are not available yet.

Founders

Product

Problem

Traditional manufacturing processes for infrastructure and human-scale products rely on non-renewable resources, leading to environmental concerns and supply chain vulnerabilities, especially in remote environments like off-world colonies. The need for sustainable and adaptable materials is critical for long-term habitation and resource management in these challenging settings.

Solution

ELMI (Engineered Living Materials and Structures) is developing a novel approach to material production by utilizing engineered, non-mammalian organisms to create renewable resources. This technology enables the creation of large-scale infrastructure and human-scale products that can be grown from renewable resources rather than manufactured through traditional methods. By leveraging biological systems, ELMI aims to provide sustainable solutions for construction, resource management, and adaptable materials, particularly for applications in off-world exploration and habitation. The core innovation lies in the ability to engineer organisms to produce materials with specific properties, offering a pathway to create self-repairing, adaptable, and environmentally friendly structures.

Target Audience

The primary target audience includes organizations involved in space exploration, sustainable construction, and advanced materials research, as well as government agencies and private companies seeking innovative solutions for resource management and infrastructure development in challenging environments.

Features

  • Development of engineered, non-mammalian organisms for material production
  • Creation of renewable resources for infrastructure and human-scale products
  • Focus on sustainable materials for off-world exploration and habitation
  • Application of synthetic biology to tailor material properties
  • Research into plant-inspired structures and fungal robotics for construction
  • Development of hybrid living coatings for damage detection and mitigation
This profile is AI-generated and may contain inaccuracies.