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Biomimicry & Environment
Reconciling environmental performance and industrial innovation through living organisms.
Agriculture, a key sector facing major challenges
Preserving the environment is a major challenge of the 21st century. Pollution, soil sealing, climate change: human activity exerts increasing pressure on ecosystems and therefore on biodiversity, natural resources, and directly impacts their interactions and physical conditions.
Today, 75% of terrestrial environments and 66% of marine environments are degraded , profoundly affecting biodiversity as well as soil quality, water regulation, the carbon cycle, and other essential ecosystem functions. At the same time, CO₂ emissions continue to rise , exacerbating climate change, ocean acidification, and the frequency of extreme weather events.
Faced with this emergency, industries must reinvent their models by limiting their environmental footprint and integrating more sustainable solutions. Soil and water pollution cleanup, plastic waste management, decarbonization of industrial processes, species protection...: these are all critical issues exacerbated by resource scarcity and increasingly stringent regulations.
In this context, innovation must combine efficiency, sustainability, and resilience. And what if nature, with its billions of years of evolution, already held some of the keys to meeting these challenges?
Biomimicry offers a major technological opportunity for the environment:
For 3.8 billion years , nature has developed remarkable strategies to optimize resource use, recycle waste, and maintain ecosystem balance . These mechanisms are now inspiring bio-inspired solutions that reduce environmental footprints, improve infrastructure sustainability, and push the boundaries of industrial processes .
One of the major environmental challenges concerns the detection and removal of pollutants emitted by human industrial activities. Inspired by natural enzymes, molecularly imprinted polymers (MIPs) mimic their ultra-selective recognition capabilities to detect toxic substances such as PFAS . Once identified, these contaminants can be targeted by bio-inspired approaches to limit their dispersion in the environment. Meanwhile, phytoremediation, observed in hyperaccumulator plants capable of extracting heavy metals from the soil, is inspiring the development of natural solutions to regenerate polluted soils and filter contaminants from water.
Optimizing resource and material management is also a key lever for reducing environmental impact. The circularity observed in ecosystems , where every resource is recycled, inspires new models of resource efficiency. Bio-based bioplastics , derived from algae or fungi, offer an alternative to petroleum-based polymers by combining biodegradability with a lower carbon footprint . By drawing inspiration from insect colonies, where collective organization ensures optimized management of material flows, it is possible to rethink logistics and material recycling to limit industrial waste.
Biomimicry also opens up numerous possibilities for CO₂ capture and sequestration . Inspired by phytoplankton and microalgae, which naturally store carbon through photosynthesis, bio-inspired systems are being developed to capture and sustainably transform atmospheric CO₂. Other approaches, such as biomineralization, exploit the ability of certain bacteria and corals to fix carbon in the form of mineral structures, thus offering solutions for the long-term sequestration of CO₂ and reducing the carbon footprint of industries .
Bionnov, a French expert in biomimicry, supports industrial and institutional stakeholders in integrating bio-inspired solutions to accelerate the ecological transition. By combining technology, sustainability, and circularity, biomimicry pushes the boundaries of innovation to build more sustainable, resilient, and efficient industrial infrastructures and models that benefit the environment.
